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----------------------------------------------------------------------- -- util-strings-transforms -- Various Text Transformation Utilities -- Copyright (C) 2015, 2018 Stephane Carrez -- Written by Stephane Carrez (Stephane.Carrez@gmail.com) -- -- Licensed under the Apache License, Version 2.0 (the "License"); -- you may not use this file except in compliance with the License. -- You may obtain a copy of the License at -- -- http://www.apache.org/licenses/LICENSE-2.0 -- -- Unless required by applicable law or agreed to in writing, software -- distributed under the License is distributed on an "AS IS" BASIS, -- WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. -- See the License for the specific language governing permissions and -- limitations under the License. ----------------------------------------------------------------------- package body Util.Strings.Transforms is -- ------------------------------ -- Escape the content into the result stream using the JavaScript -- escape rules. -- ------------------------------ function Escape_Javascript (Content : String) return String is Result : Ada.Strings.Unbounded.Unbounded_String; begin TR.Escape_Java_Script (Content, Result); return Ada.Strings.Unbounded.To_String (Result); end Escape_Javascript; -- ------------------------------ -- Escape the content into the result stream using the Java -- escape rules. -- ------------------------------ function Escape_Java (Content : String) return String is Result : Ada.Strings.Unbounded.Unbounded_String; begin TR.Escape_Java (Content, Result); return Ada.Strings.Unbounded.To_String (Result); end Escape_Java; -- ------------------------------ -- Escape the content into the result stream using the XML -- escape rules: -- '<' -> '&lt;' -- '>' -> '&gt;' -- ''' -> '&apos;' -- '&' -> '&amp;' -- -> '&#nnn;' if Character'Pos >= 128 -- ------------------------------ function Escape_Xml (Content : String) return String is Result : Ada.Strings.Unbounded.Unbounded_String; begin TR.Escape_Xml (Content, Result); return Ada.Strings.Unbounded.To_String (Result); end Escape_Xml; end Util.Strings.Transforms;
-- Abstract : -- -- See spec -- -- Copyright (C) 2017 - 2019 Free Software Foundation, Inc. -- -- This library is free software; you can redistribute it and/or modify it -- under terms of the GNU General Public License as published by the Free -- Software Foundation; either version 3, or (at your option) any later -- version. This library is distributed in the hope that it will be useful, -- but WITHOUT ANY WARRANTY; without even the implied warranty of MERCHAN- -- TABILITY or FITNESS FOR A PARTICULAR PURPOSE. -- As a special exception under Section 7 of GPL version 3, you are granted -- additional permissions described in the GCC Runtime Library Exception, -- version 3.1, as published by the Free Software Foundation. pragma License (Modified_GPL); with Ada.Strings.Fixed; with Gpr_Process_Actions; package body Wisi.Gpr is overriding procedure Initialize (Data : in out Parse_Data_Type; Lexer : in WisiToken.Lexer.Handle; Descriptor : access constant WisiToken.Descriptor; Base_Terminals : in WisiToken.Base_Token_Array_Access; Post_Parse_Action : in Post_Parse_Action_Type; Begin_Line : in WisiToken.Line_Number_Type; End_Line : in WisiToken.Line_Number_Type; Begin_Indent : in Integer; Params : in String) is use Ada.Strings.Fixed; use all type Gpr_Process_Actions.Token_Enum_ID; First : Integer := Params'First; Last : Integer := Index (Params, " "); begin Wisi.Initialize (Wisi.Parse_Data_Type (Data), Lexer, Descriptor, Base_Terminals, Post_Parse_Action, Begin_Line, End_Line, Begin_Indent, ""); Data.First_Comment_ID := +COMMENT_ID; Data.Last_Comment_ID := WisiToken.Invalid_Token_ID; Data.Left_Paren_ID := WisiToken.Invalid_Token_ID; Data.Right_Paren_ID := WisiToken.Invalid_Token_ID; if Params /= "" then -- must match [1] wisi-parse-format-language-options Gpr_Indent := Integer'Value (Params (First .. Last - 1)); First := Last + 1; Last := Index (Params, " ", First); Gpr_Indent_Broken := Integer'Value (Params (First .. Last - 1)); First := Last + 1; Gpr_Indent_When := Integer'Value (Params (First .. Params'Last)); end if; end Initialize; end Wisi.Gpr;
package calc with SPARK_Mode is function calc (f1, f2: Float) return Float with Pre => f1 in -1000.0 .. 1000.0 and f2 in -1000.0 .. 1000.0; end calc;
-- Copyright 2019 Simon Symeonidis (psyomn) -- -- Licensed under the Apache License, Version 2.0 (the "License"); -- you may not use this file except in compliance with the License. -- You may obtain a copy of the License at -- -- http://www.apache.org/licenses/LICENSE-2.0 -- -- Unless required by applicable law or agreed to in writing, software -- distributed under the License is distributed on an "AS IS" BASIS, -- WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. -- See the License for the specific language governing permissions and -- limitations under the License. with Ada.Strings; use Ada.Strings; with Ada.Command_Line; use Ada.Command_Line; with Ada.Strings.Fixed; use Ada.Strings.Fixed; with Common_Utils; use Common_Utils; package body CLI is procedure Process_Command_Line_Arguments (Conf : in out Listener) is Total : constant Natural := Argument_Count; Count : Positive := 1; Skip : Boolean := False; begin if Total = 0 then return; end if; Argument_Parse_Loop : loop declare Current_Argument : constant String := Argument (Count); First_Two : constant String := Current_Argument (1 .. 2); Hyphenated : constant Boolean := Current_Argument (1) = '-'; begin if Count + 1 > Argument_Count and Hyphenated then raise CLI_Argument_Exception with "you need to provide a value"; else Skip := True; end if; if First_Two = "-r" then Apply_Root_Dir_Flag (Conf, Count); elsif First_Two = "-p" then Apply_Port_Flag (Conf, Count); elsif First_Two = "-h" then Apply_Host_Flag (Conf, Count); else raise CLI_Argument_Exception with "non existant flag"; end if; end; Count := Count + 1 + (if Skip then 1 else 0); Skip := False; exit Argument_Parse_Loop when Count > Total; end loop Argument_Parse_Loop; end Process_Command_Line_Arguments; procedure Apply_Root_Dir_Flag (Conf : in out Listener; Index : Positive) is New_Path : constant String := Trim ( Source => Argument (Index + 1), Side => Both ); begin Empty_String (Conf.WS_Root_Path); Conf.WS_Root_Path (1 .. New_Path'Last) := New_Path (1 .. New_Path'Last); end Apply_Root_Dir_Flag; procedure Apply_Port_Flag (Conf : in out Listener; Index : Positive) is Arg : constant String := Argument (Index + 1); New_Port : constant Natural := Positive'Value (Arg); begin Conf.Port_Number := New_Port; end Apply_Port_Flag; procedure Apply_Host_Flag (Conf : in out Listener; Index : Positive) is New_Host : constant String := Trim ( Source => Argument (Index + 1), Side => Both ); begin Empty_String (Conf.Host_Name); Overwrite ( Source => Conf.Host_Name, Position => 1, New_Item => New_Host ); end Apply_Host_Flag; end CLI;
-- Copyright (c) 2013, Nordic Semiconductor ASA -- All rights reserved. -- -- Redistribution and use in source and binary forms, with or without -- modification, are permitted provided that the following conditions are met: -- -- * Redistributions of source code must retain the above copyright notice, this -- list of conditions and the following disclaimer. -- -- * Redistributions in binary form must reproduce the above copyright notice, -- this list of conditions and the following disclaimer in the documentation -- and/or other materials provided with the distribution. -- -- * Neither the name of Nordic Semiconductor ASA nor the names of its -- contributors may be used to endorse or promote products derived from -- this software without specific prior written permission. -- -- THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS "AS IS" -- AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE -- IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE -- DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT HOLDER OR CONTRIBUTORS BE LIABLE -- FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL -- DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR -- SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER -- CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, -- OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE -- OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. -- -- This spec has been automatically generated from nrf51.svd pragma Restrictions (No_Elaboration_Code); pragma Ada_2012; pragma Style_Checks (Off); with System; -- nRF51 reference description for radio MCU with ARM 32-bit Cortex-M0 -- Microcontroller at 16MHz CPU clock package NRF_SVD is pragma Preelaborate; -------------------- -- Base addresses -- -------------------- POWER_Base : constant System.Address := System'To_Address (16#40000000#); CLOCK_Base : constant System.Address := System'To_Address (16#40000000#); MPU_Base : constant System.Address := System'To_Address (16#40000000#); AMLI_Base : constant System.Address := System'To_Address (16#40000000#); RADIO_Base : constant System.Address := System'To_Address (16#40001000#); UART0_Base : constant System.Address := System'To_Address (16#40002000#); SPI0_Base : constant System.Address := System'To_Address (16#40003000#); TWI0_Base : constant System.Address := System'To_Address (16#40003000#); SPI1_Base : constant System.Address := System'To_Address (16#40004000#); TWI1_Base : constant System.Address := System'To_Address (16#40004000#); SPIS1_Base : constant System.Address := System'To_Address (16#40004000#); SPIM1_Base : constant System.Address := System'To_Address (16#40004000#); GPIOTE_Base : constant System.Address := System'To_Address (16#40006000#); ADC_Base : constant System.Address := System'To_Address (16#40007000#); TIMER0_Base : constant System.Address := System'To_Address (16#40008000#); TIMER1_Base : constant System.Address := System'To_Address (16#40009000#); TIMER2_Base : constant System.Address := System'To_Address (16#4000A000#); RTC0_Base : constant System.Address := System'To_Address (16#4000B000#); TEMP_Base : constant System.Address := System'To_Address (16#4000C000#); RNG_Base : constant System.Address := System'To_Address (16#4000D000#); ECB_Base : constant System.Address := System'To_Address (16#4000E000#); AAR_Base : constant System.Address := System'To_Address (16#4000F000#); CCM_Base : constant System.Address := System'To_Address (16#4000F000#); WDT_Base : constant System.Address := System'To_Address (16#40010000#); RTC1_Base : constant System.Address := System'To_Address (16#40011000#); QDEC_Base : constant System.Address := System'To_Address (16#40012000#); LPCOMP_Base : constant System.Address := System'To_Address (16#40013000#); SWI_Base : constant System.Address := System'To_Address (16#40014000#); NVMC_Base : constant System.Address := System'To_Address (16#4001E000#); PPI_Base : constant System.Address := System'To_Address (16#4001F000#); FICR_Base : constant System.Address := System'To_Address (16#10000000#); UICR_Base : constant System.Address := System'To_Address (16#10001000#); GPIO_Base : constant System.Address := System'To_Address (16#50000000#); end NRF_SVD;
----------------------------------------------------------------------- -- awa-setup -- Setup and installation -- Copyright (C) 2016, 2017 Stephane Carrez -- Written by Stephane Carrez (Stephane.Carrez@gmail.com) -- -- Licensed under the Apache License, Version 2.0 (the "License"); -- you may not use this file except in compliance with the License. -- You may obtain a copy of the License at -- -- http://www.apache.org/licenses/LICENSE-2.0 -- -- Unless required by applicable law or agreed to in writing, software -- distributed under the License is distributed on an "AS IS" BASIS, -- WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. -- See the License for the specific language governing permissions and -- limitations under the License. ----------------------------------------------------------------------- with Ada.Text_IO; with Ada.IO_Exceptions; with Ada.Directories; with Util.Files; with Util.Processes; with Util.Log.Loggers; with Util.Streams.Pipes; with Util.Streams.Buffered; with Util.Strings; with ASF.Events.Faces.Actions; with ASF.Applications.Main.Configs; with ASF.Applications.Messages.Factory; with AWA.Applications; with AWA.Applications.Configs; with AWA.Components.Factory; package body AWA.Setup.Applications is use ASF.Applications; Log : constant Util.Log.Loggers.Logger := Util.Log.Loggers.Create ("AWA.Setup.Applications"); package Save_Binding is new ASF.Events.Faces.Actions.Action_Method.Bind (Bean => Application, Method => Save, Name => "save"); package Start_Binding is new ASF.Events.Faces.Actions.Action_Method.Bind (Bean => Application, Method => Start, Name => "start"); package Finish_Binding is new ASF.Events.Faces.Actions.Action_Method.Bind (Bean => Application, Method => Finish, Name => "finish"); package Configure_Binding is new ASF.Events.Faces.Actions.Action_Method.Bind (Bean => Application, Method => Configure_Database, Name => "configure_database"); -- The application base URL. package P_Base_URL is new ASF.Applications.Main.Configs.Parameter ("app_url_base", "http://localhost:8080/#{contextPath}"); Binding_Array : aliased constant Util.Beans.Methods.Method_Binding_Array := (Save_Binding.Proxy'Access, Start_Binding.Proxy'Access, Finish_Binding.Proxy'Access, Configure_Binding.Proxy'Access); protected body State is -- ------------------------------ -- Wait until the configuration is finished. -- ------------------------------ entry Wait_Configuring when Value /= CONFIGURING is begin null; end Wait_Configuring; -- ------------------------------ -- Wait until the server application is initialized and ready. -- ------------------------------ entry Wait_Ready when Value = READY is begin null; end Wait_Ready; -- ------------------------------ -- Set the configuration state. -- ------------------------------ procedure Set (V : in Configure_State) is begin Value := V; end Set; end State; overriding procedure Do_Get (Server : in Redirect_Servlet; Request : in out ASF.Requests.Request'Class; Response : in out ASF.Responses.Response'Class) is pragma Unreferenced (Server); Context_Path : constant String := Request.Get_Context_Path; begin Response.Send_Redirect (Context_Path & "/setup/install.html"); end Do_Get; -- ------------------------------ -- Get the value identified by the name. -- ------------------------------ function Get_Value (From : in Application; Name : in String) return Util.Beans.Objects.Object is begin if Name = "database_name" then return Util.Beans.Objects.To_Object (From.Database.Get_Database); elsif Name = "database_server" then return From.Db_Host; elsif Name = "database_port" then return From.Db_Port; elsif Name = "database_user" then return Util.Beans.Objects.To_Object (From.Database.Get_Property ("user")); elsif Name = "database_password" then return Util.Beans.Objects.To_Object (From.Database.Get_Property ("password")); elsif Name = "database_driver" then return From.Driver; elsif Name = "database_root_user" then return From.Root_User; elsif Name = "database_root_password" then return From.Root_Passwd; elsif Name = "result" then return From.Result; end if; if From.Changed.Exists (Name) then return Util.Beans.Objects.To_Object (String '(From.Changed.Get (Name))); end if; declare Param : constant String := From.Config.Get (Name); begin return Util.Beans.Objects.To_Object (Param); end; exception when others => return Util.Beans.Objects.Null_Object; end Get_Value; -- ------------------------------ -- Set the value identified by the name. -- ------------------------------ procedure Set_Value (From : in out Application; Name : in String; Value : in Util.Beans.Objects.Object) is begin if Name = "database_name" then From.Database.Set_Database (Util.Beans.Objects.To_String (Value)); elsif Name = "database_server" then From.Db_Host := Value; elsif Name = "database_port" then From.Db_Port := Value; elsif Name = "database_user" then From.Database.Set_Property ("user", Util.Beans.Objects.To_String (Value)); elsif Name = "database_password" then From.Database.Set_Property ("password", Util.Beans.Objects.To_String (Value)); elsif Name = "database_driver" then From.Driver := Value; elsif Name = "database_root_user" then From.Root_User := Value; elsif Name = "database_root_password" then From.Root_Passwd := Value; elsif Name = "callback_url" then From.Changed.Set (Name, Util.Beans.Objects.To_String (Value)); From.Changed.Set ("facebook.callback_url", Util.Beans.Objects.To_String (Value) & "#{contextPath}/auth/verify"); From.Changed.Set ("google-plus.callback_url", Util.Beans.Objects.To_String (Value) & "#{contextPath}/auth/verify"); else From.Changed.Set (Name, Util.Beans.Objects.To_String (Value)); end if; end Set_Value; -- ------------------------------ -- Get the database connection string to be used by the application. -- ------------------------------ function Get_Database_URL (From : in Application) return String is use Ada.Strings.Unbounded; Result : Ada.Strings.Unbounded.Unbounded_String; Driver : constant String := Util.Beans.Objects.To_String (From.Driver); User : constant String := From.Database.Get_Property ("user"); begin if Driver = "" then Append (Result, "mysql"); else Append (Result, Driver); end if; Append (Result, "://"); if Driver /= "sqlite" then Append (Result, From.Database.Get_Server); if From.Database.Get_Port /= 0 then Append (Result, ":"); Append (Result, Util.Strings.Image (From.Database.Get_Port)); end if; end if; Append (Result, "/"); Append (Result, From.Database.Get_Database); if User /= "" then Append (Result, "?user="); Append (Result, User); if From.Database.Get_Property ("password") /= "" then Append (Result, "&password="); Append (Result, From.Database.Get_Property ("password")); end if; end if; if Driver = "sqlite" then if User /= "" then Append (Result, "&"); else Append (Result, "?"); end if; Append (Result, "synchronous=OFF&encoding=UTF-8"); end if; return To_String (Result); end Get_Database_URL; -- ------------------------------ -- Get the command to configure the database. -- ------------------------------ function Get_Configure_Command (From : in Application) return String is Database : constant String := From.Get_Database_URL; Command : constant String := "dynamo create-database db '" & Database & "'"; Root : constant String := Util.Beans.Objects.To_String (From.Root_User); Passwd : constant String := Util.Beans.Objects.To_String (From.Root_Passwd); begin if Root = "" then return Command; elsif Passwd = "" then return Command & " " & Root; else return Command & " " & Root & " " & Passwd; end if; end Get_Configure_Command; -- ------------------------------ -- Validate the database configuration parameters. -- ------------------------------ procedure Validate (From : in out Application) is Driver : constant String := Util.Beans.Objects.To_String (From.Driver); Server : constant String := Util.Beans.Objects.To_String (From.Db_Host); begin From.Has_Error := False; if Driver = "sqlite" then return; end if; begin From.Database.Set_Port (Util.Beans.Objects.To_Integer (From.Db_Port)); exception when others => From.Has_Error := True; Messages.Factory.Add_Field_Message ("db-port", "setup.setup_database_port_error", Messages.ERROR); end; if Server'Length = 0 then From.Has_Error := True; Messages.Factory.Add_Field_Message ("db-server", "setup.setup_database_host_error", Messages.ERROR); end if; From.Database.Set_Server (Server); end Validate; -- ------------------------------ -- Configure the database. -- ------------------------------ procedure Configure_Database (From : in out Application; Outcome : in out Ada.Strings.Unbounded.Unbounded_String) is begin From.Validate; if not From.Has_Error then declare Pipe : aliased Util.Streams.Pipes.Pipe_Stream; Buffer : Util.Streams.Buffered.Buffered_Stream; Content : Ada.Strings.Unbounded.Unbounded_String; Command : constant String := From.Get_Configure_Command; begin Log.Info ("Configure database with {0}", Command); Pipe.Open (Command, Util.Processes.READ); Buffer.Initialize (null, Pipe'Unchecked_Access, 64 * 1024); Buffer.Read (Content); Pipe.Close; From.Result := Util.Beans.Objects.To_Object (Content); From.Has_Error := Pipe.Get_Exit_Status /= 0; if From.Has_Error then Log.Error ("Command {0} exited with status {1}", Command, Util.Strings.Image (Pipe.Get_Exit_Status)); Messages.Factory.Add_Message ("setup.setup_database_error", Messages.ERROR); if Pipe.Get_Exit_Status = 127 then Messages.Factory.Add_Message ("setup.setup_dynamo_missing_error", Messages.ERROR); end if; end if; end; end if; if From.Has_Error then Ada.Strings.Unbounded.Set_Unbounded_String (Outcome, "failure"); end if; end Configure_Database; -- ------------------------------ -- Save the configuration. -- ------------------------------ procedure Save (From : in out Application; Outcome : in out Ada.Strings.Unbounded.Unbounded_String) is pragma Unreferenced (Outcome); procedure Save_Property (Name : in Ada.Strings.Unbounded.Unbounded_String; Value : in Ada.Strings.Unbounded.Unbounded_String); procedure Read_Property (Line : in String); Path : constant String := Ada.Strings.Unbounded.To_String (From.Path); New_File : constant String := Path & ".tmp"; Output : Ada.Text_IO.File_Type; Changed : ASF.Applications.Config := From.Changed; procedure Read_Property (Line : in String) is Pos : constant Natural := Util.Strings.Index (Line, '='); begin if Pos = 0 or else not Changed.Exists (Line (Line'First .. Pos - 1)) then Ada.Text_IO.Put_Line (Output, Line); return; end if; Ada.Text_IO.Put (Output, Line (Line'First .. Pos)); Ada.Text_IO.Put_Line (Output, Changed.Get (Line (Line'First .. Pos - 1))); Changed.Remove (Line (Line'First .. Pos - 1)); end Read_Property; procedure Save_Property (Name : in Ada.Strings.Unbounded.Unbounded_String; Value : in Ada.Strings.Unbounded.Unbounded_String) is begin Ada.Text_IO.Put (Output, Ada.Strings.Unbounded.To_String (Name)); Ada.Text_IO.Put (Output, "="); Ada.Text_IO.Put_Line (Output, Ada.Strings.Unbounded.To_String (Value)); end Save_Property; begin Log.Info ("Saving configuration file {0}", Path); Changed.Set ("database", From.Get_Database_URL); Ada.Text_IO.Create (File => Output, Name => New_File); Util.Files.Read_File (Path, Read_Property'Access); Changed.Iterate (Save_Property'Access); Ada.Text_IO.Close (Output); Ada.Directories.Delete_File (Path); Ada.Directories.Rename (Old_Name => New_File, New_Name => Path); end Save; -- ------------------------------ -- Finish the setup to start the application. -- ------------------------------ procedure Start (From : in out Application; Outcome : in out Ada.Strings.Unbounded.Unbounded_String) is pragma Unreferenced (Outcome); begin Log.Info ("Waiting for application to be started"); From.Status.Wait_Ready; end Start; -- ------------------------------ -- Finish the setup and exit the setup. -- ------------------------------ procedure Finish (From : in out Application; Outcome : in out Ada.Strings.Unbounded.Unbounded_String) is begin Log.Info ("Finish configuration"); From.Save (Outcome); From.Status.Set (STARTING); end Finish; -- ------------------------------ -- This bean provides some methods that can be used in a Method_Expression -- ------------------------------ overriding function Get_Method_Bindings (From : in Application) return Util.Beans.Methods.Method_Binding_Array_Access is pragma Unreferenced (From); begin return Binding_Array'Access; end Get_Method_Bindings; -- ------------------------------ -- Enter in the application setup -- ------------------------------ procedure Setup (App : in out Application; Config : in String; Server : in out ASF.Server.Container'Class) is Path : constant String := AWA.Applications.Configs.Get_Config_Path (Config); Dir : constant String := Ada.Directories.Containing_Directory (Path); Done : constant String := Ada.Directories.Compose (Dir, ".initialized"); begin Log.Info ("Entering configuration for {0}", Path); App.Path := Ada.Strings.Unbounded.To_Unbounded_String (Path); begin App.Config.Load_Properties (Path); Util.Log.Loggers.Initialize (Path); exception when Ada.IO_Exceptions.Name_Error => Log.Error ("Cannot read application configuration file: {0}", Path); end; -- If the Done file marker exists, the installation was done and we don't want -- to enter in it again. if Ada.Directories.Exists (Done) then Log.Info ("Application {0} is already initialized.", Config); Log.Info ("Remove {0} if you want to enter in the installation again.", Done); return; end if; App.Initialize (App.Config, App.Factory); App.Set_Error_Page (ASF.Responses.SC_NOT_FOUND, "/setup/install.html"); App.Set_Global ("contextPath", App.Config.Get ("contextPath")); App.Set_Global ("setup", Util.Beans.Objects.To_Object (App'Unchecked_Access, Util.Beans.Objects.STATIC)); App.Add_Servlet (Name => "redirect", Server => App.Redirect'Unchecked_Access); App.Add_Servlet (Name => "faces", Server => App.Faces'Unchecked_Access); App.Add_Servlet (Name => "files", Server => App.Files'Unchecked_Access); App.Add_Mapping (Pattern => "*.html", Name => "redirect"); App.Add_Mapping (Pattern => "/setup/*.html", Name => "faces"); App.Add_Mapping (Pattern => "*.css", Name => "files"); App.Add_Mapping (Pattern => "*.js", Name => "files"); App.Add_Mapping (Pattern => "*.png", Name => "files"); App.Add_Components (AWA.Components.Factory.Definition); declare Paths : constant String := App.Get_Config (AWA.Applications.P_Module_Dir.P); Path : constant String := Util.Files.Find_File_Path ("setup.xml", Paths); begin ASF.Applications.Main.Configs.Read_Configuration (App, Path); exception when Ada.IO_Exceptions.Name_Error => Log.Error ("Setup configuration file '{0}' does not exist", Path); end; declare URL : constant String := App.Config.Get ("google-plus.callback_url", ""); Pos : constant Natural := Util.Strings.Index (URL, '#'); begin if Pos > 0 then App.Changed.Set ("callback_url", URL (URL'First .. Pos - 1)); else App.Changed.Set ("callback_url", "http://mydomain.com/oauth"); end if; end; App.Database.Set_Connection (App.Get_Config (AWA.Applications.P_Database.P)); App.Driver := Util.Beans.Objects.To_Object (App.Database.Get_Driver); if App.Database.Get_Driver = "mysql" then App.Db_Host := Util.Beans.Objects.To_Object (App.Database.Get_Server); App.Db_Port := Util.Beans.Objects.To_Object (App.Database.Get_Port); else App.Db_Host := Util.Beans.Objects.To_Object (String '("localhost")); App.Db_Port := Util.Beans.Objects.To_Object (Integer (3306)); end if; Server.Register_Application (App.Get_Config (AWA.Applications.P_Context_Path.P), App'Unchecked_Access); Log.Info ("Connect your browser to {0}/index.html", App.Get_Config (P_Base_URL.P)); App.Status.Wait_Configuring; Log.Info ("Application setup is now finished"); Log.Info ("Creating the installation marker file {0}", Done); Util.Files.Write_File (Done, "installed"); end Setup; -- ------------------------------ -- Configure the application by using the setup application, allowing the administrator to -- setup the application database, define the application admin parameters. After the -- configuration is done, register the application in the server container and start it. -- ------------------------------ procedure Configure (Server : in out ASF.Server.Container'Class; App : in Application_Access; Config : in String; URI : in String) is Path : constant String := AWA.Applications.Configs.Get_Config_Path (Config); S : aliased Application; C : ASF.Applications.Config; begin -- Do the application setup. S.Setup (Config, Server); -- Load the application configuration file that was configured during the setup process. begin C.Load_Properties (Path); exception when Ada.IO_Exceptions.Name_Error => Log.Error ("Cannot read application configuration file {0}", Path); end; -- Initialize the application and register it. Log.Info ("Initializing application {0}", URI); Initialize (App, C); Server.Register_Application (URI, App.all'Access); S.Status.Set (READY); delay 2.0; -- Now we can remove the setup application. Server.Remove_Application (S'Unchecked_Access); end Configure; end AWA.Setup.Applications;
with Ada.Assertions; use Ada.Assertions; with Ada.Strings.Fixed; use Ada.Strings.Fixed; with Ada.Strings.Unbounded; use Ada.Strings.Unbounded; package body Rejuvenation.Nested is function Remove_Nested_Flags (Source : String; On_Flag : String; Off_Flag : String; Depth : Natural := 0) return String is function Next_Flag_Location (From : Positive; Flag : String) return Positive; function Next_Flag_Location (From : Positive; Flag : String) return Positive is I : constant Natural := Index (Source, Flag, From); begin return (if I = 0 then Source'Last + 1 else I); end Next_Flag_Location; function Next_On_Flag_Location (From : Positive) return Positive is (Next_Flag_Location (From, On_Flag)); function Next_Off_Flag_Location (From : Positive) return Positive is (Next_Flag_Location (From, Off_Flag)); Current_Location : Natural := Source'First; Current_Depth : Natural := Depth; On_Location : Positive := Next_On_Flag_Location (Current_Location); Off_Location : Positive := Next_Off_Flag_Location (Current_Location); Final : Unbounded_String := Null_Unbounded_String; begin loop if On_Location > Source'Last and then Off_Location > Source'Last then Assert (Check => Current_Depth = 0, Message => "Unexpectedly at Current_Depth " & Current_Depth'Image); Append (Final, Source (Current_Location .. Source'Last)); return To_String (Final); elsif On_Location < Off_Location then declare Next_Location : constant Positive := On_Location + On_Flag'Length; Last : constant Positive := (if Current_Depth = 0 then Next_Location - 1 else On_Location - 1); begin Current_Depth := Current_Depth + 1; Append (Final, Source (Current_Location .. Last)); Current_Location := Next_Location; Assert (Check => Current_Location <= Off_Location, Message => "Invariant violated"); On_Location := Next_On_Flag_Location (Current_Location); end; else Assert (Check => Off_Location < On_Location, Message => "On and Off token can't occur at same location"); declare Next_Location : constant Positive := Off_Location + Off_Flag'Length; Last : constant Positive := (if Current_Depth = 1 then Next_Location - 1 else Off_Location - 1); begin Assert (Check => Current_Depth > 0, Message => "Current_Depth is zero at offset " & Off_Location'Image); Current_Depth := Current_Depth - 1; Append (Final, Source (Current_Location .. Last)); Current_Location := Next_Location; Assert (Check => Current_Location <= On_Location, Message => "Invariant violated"); Off_Location := Next_Off_Flag_Location (Current_Location); end; end if; end loop; end Remove_Nested_Flags; end Rejuvenation.Nested;
with Gdk.Event; with Gdk.Types.Keysyms; with Gtkada.Dialogs; with Gtkada.File_Selection; with Gtk.Dialog; with Gtk.File_Chooser; with Gtk.File_Chooser_Dialog; use Gtk.File_Chooser_Dialog; with Gtk.List_Store; with Gtk.Message_Dialog; with Gtk.Main; with Gtk.Status_Bar; with Gtk.Text_Iter; with Gtk.Tree_Model; with Gtk.Widget; use Gtk.Widget; with Pango.Font; with Ada.Strings.Unbounded; use Ada.Strings.Unbounded; with Ada.Text_IO; use Ada.Text_IO; with Interfaces; use Interfaces; with assembler; with gui; with util; with vm; use vm; -- Callback procedures, called from the Gtk GUI. package body callbacks is ------------------------- -- Some GUI state vars -- ------------------------- -- this is so we can pop up an "are you sure?" dialog on quit/new/open unsavedChanges : Boolean := False; -- current filename we are saving under. curFileName : Unbounded_String; -- Output from our assemble procedure. We'll pass this to the VM at boot time. machinecode : MachineCodeVector.Vector; -- gives us a chance to catch the signal to delete the main window. If we want -- to quit, return False. function tryQuit (Object : access Gtkada_Builder_Record'Class) return Boolean is pragma Unreferenced (Object); begin if unsavedChanges then return not areYouSure; end if; return False; end tryQuit; procedure quit (Object : access Gtkada_Builder_Record'Class) is begin Gtk.Main.Main_Quit; end quit; ---------------------------------------------------------------------------- -- assembleCB - callback for GUI "assemble" button. -- Assemble the source code into an object file that can be loaded into the -- VM's memory. ---------------------------------------------------------------------------- procedure assembleCB (Object : access Gtkada_Builder_Record'Class) is pragma Unreferenced (Object); start : Gtk.Text_Iter.Gtk_Text_Iter; finish : Gtk.Text_Iter.Gtk_Text_Iter; assembly : Unbounded_String; result : Boolean; errMsg : Unbounded_String; instructions : assembler.InstructionVector.Vector; ignore : Gtkada.Dialogs.Message_Dialog_Buttons; ignore2 : Gtk.Status_Bar.Message_Id; begin Ada.Text_IO.Put_Line("Assemble"); ignore2 := Gtk.Status_Bar.Push(gui.statusBar, 1, "Assembling..."); gui.textbuf.Get_Bounds(start, finish); assembly := To_Unbounded_String(gui.textbuf.Get_Text( Start => start, The_End => finish, Include_Hidden_Chars => True)); -- Assemble the file into a vector of instruction records result := assembler.parse(source => To_String(assembly), instructions => instructions, msg => errMsg); if not result then ignore := Gtkada.Dialogs.Message_Dialog( Msg => To_String(errMsg), Dialog_Type => Gtkada.Dialogs.Information, Buttons => Gtkada.Dialogs.Button_OK, Title => "Parse Error", Parent => null); --gui.statusBar.removeAll; return; end if; --gui.statusBar.Push("Code gen...", Context => 0); -- convert the instruction vector into a vector of machine code insts. result := assembler.codeGen(instructions => instructions, objectFile => machinecode, msg => errMsg); if not result then ignore := Gtkada.Dialogs.Message_Dialog( Msg => To_String(errMsg), Dialog_Type => Gtkada.Dialogs.Information, Buttons => Gtkada.Dialogs.Button_OK, Title => "Code Generation Error", Parent => null); --gui.statusBar.Remove_All; return; end if; --gui.statusBar.Push("Loading object file...", Context => 0); -- Load the opcodes into the machinecode list store. loadObjectFile : declare use Gtk.List_Store; use Gtk.Tree_Model; machinecodeListIter : Gtk_Tree_Iter; addr : Unsigned_64 := 0; inst : Unsigned_64 := 0; begin --machinecodeList := Gtk_List_Store(Gtkada.Builder.Get_Object(gui.builder, "machinecodeList")); gui.machinecodeList.Clear; Ada.Text_IO.Put_Line(" adding " & Integer(machinecode.Length)'Image & " instructions to liststore"); for i in 0 .. Integer(machinecode.Length)-1 loop Ada.Text_IO.Put_Line(" adding element " & i'Image); inst := machinecode.Element(Integer(i)); addr := Unsigned_64(Integer(i)); gui.machinecodeList.Append(Iter => machinecodeListIter); gui.machinecodeList.Set(Iter => machinecodeListIter, Column => 0, Value => util.toHexString(addr)); gui.machinecodeList.Set(Iter => machinecodeListIter, Column => 1, Value => util.toHexString(inst)); end loop; end loadObjectFile; ignore2 := Gtk.Status_Bar.Push(gui.statusBar, 1, "Assembly Success!"); -- Go ahead and boot the VM ignore := Gtkada.Dialogs.Message_Dialog( Msg => "Assembly Finished, click OK to boot the VM.", Dialog_Type => Gtkada.Dialogs.Information, Buttons => Gtkada.Dialogs.Button_OK, Title => "Success", Parent => null); vm.boot(machinecode); gui.updateGUI_VM; end assembleCB; ---------------------------------------------------------------------------- -- stepCB -- callback for the "step" button - instruct the VM to single-step an -- instruction. ---------------------------------------------------------------------------- procedure stepCB (Object : access Gtkada_Builder_Record'Class) is pragma Unreferenced (Object); errMsg : Unbounded_String; healthy : Boolean; ignore : Gtkada.Dialogs.Message_Dialog_Buttons; begin Ada.Text_IO.Put_Line("Step"); healthy := vm.step(errMsg); if not healthy then ignore := Gtkada.Dialogs.Message_Dialog( Msg => To_String(errMsg), Dialog_Type => Gtkada.Dialogs.Information, Buttons => Gtkada.Dialogs.Button_OK, Title => "Exception", Parent => null); return; else gui.updateGUI_VM; end if; end stepCB; ----------- -- runCB -- ----------- procedure runCB (Object : access Gtkada_Builder_Record'Class) is pragma Unreferenced (Object); begin Ada.Text_IO.Put_Line("Run"); end runCB; ------------ -- stopCB -- ------------ procedure stopCB (Object : access Gtkada_Builder_Record'Class) is pragma Unreferenced (Object); begin Ada.Text_IO.Put_Line("Stop"); end stopCB; ----------- -- newCB -- ----------- procedure newCB (Object : access Gtkada_Builder_Record'Class) is start : Gtk.Text_Iter.Gtk_Text_Iter; finish : Gtk.Text_Iter.Gtk_Text_Iter; begin if unsavedChanges then if not areYouSure then return; end if; end if; gui.textbuf.Get_Bounds(start, finish); gui.textbuf.Delete(Start => start, The_End => finish); unsavedChanges := False; curFileName := To_Unbounded_String(""); gui.setTitle("YOTROC Assembler / Emulator: " & To_String(curFileName)); end newCB; ------------ -- openCB -- ------------ procedure openCB (Object : access Gtkada_Builder_Record'Class) is pragma Unreferenced(Object); openPath : Unbounded_String; begin if unsavedChanges then if not areYouSure then return; end if; end if; openPath := To_Unbounded_String(Gtkada.File_Selection.File_Selection_Dialog (Title => "Open", Must_Exist => True)); if openPath /= "" then declare file : Ada.Text_IO.File_Type; contents : Unbounded_String; ignore : Gtkada.Dialogs.Message_Dialog_Buttons; begin Ada.Text_IO.Open(File => file, Mode => Ada.Text_IO.In_File, Name => To_String(openPath)); -- read in entire file before assigning to text buffer. while not Ada.Text_IO.End_Of_File(file) loop declare use ASCII; nextChr : Character; -- lookAhead : Character; begin Ada.Text_IO.Get_Immediate(file, nextChr); Append(contents, nextChr); end; end loop; --Ada.Text_IO.Put_Line("Open: " & To_String(openPath) & " contents: " & To_String(contents)); Ada.Text_IO.Close(file); gui.textbuf.Set_Text(Text => To_String(contents)); unsavedChanges := False; curFileName := openPath; gui.setTitle("YOTROC Assembler / Emulator: " & To_String(curFileName)); exception when others => ignore := Gtkada.Dialogs.Message_Dialog (Msg => "Error opening file.", Buttons => Gtkada.Dialogs.Button_OK, Dialog_Type => Gtkada.Dialogs.Warning, Title => "Uh oh!"); end; end if; end openCB; -- underlying function for file saves procedure saveFile(savePath : Unbounded_String) is ignore : Gtkada.Dialogs.Message_Dialog_Buttons; file : Ada.Text_IO.File_Type; bufContents : Unbounded_String; start, finish : Gtk.Text_Iter.Gtk_Text_Iter; begin -- try to open the file openFile : declare begin -- open filepath, write it all out. Ada.Text_IO.Open(File => file, Mode => Ada.Text_IO.Out_File, Name => To_String(savePath)); exception when Ada.Text_IO.Name_Error => Ada.Text_IO.Create(File => file, Mode => Ada.Text_IO.Out_File, Name => To_String(savePath)); end openFile; gui.textbuf.Get_Bounds(start, finish); bufContents := To_Unbounded_String(gui.textbuf.Get_Text(Start => start, The_End => finish)); Ada.Text_IO.Put_Line("Writing: "); for i in 1 .. Length(bufContents) loop Ada.Text_IO.Put(Element(bufContents, i)); Ada.Text_IO.Put(file, Element(bufContents, i)); end loop; -- if successful, make this the new curFileName curFileName := savePath; unsavedChanges := False; gui.setTitle("YOTROC Assembler / Emulator: " & To_String(curFileName)); Ada.Text_IO.Close(file); exception when others => ignore := Gtkada.Dialogs.Message_Dialog (Msg => "Error saving file.", Buttons => Gtkada.Dialogs.Button_OK, Dialog_Type => Gtkada.Dialogs.Warning, Title => "Uh oh!"); end saveFile; ------------ -- saveCB -- ------------ procedure saveCB (Object : access Gtkada_Builder_Record'Class) is savePath : Unbounded_String; begin if curFileName = "" then saveAsCB(Object); else saveFile(curFileName); end if; end saveCB; -------------- -- saveAsCB -- -------------- procedure saveAsCB (Object : access Gtkada_Builder_Record'Class) is pragma Unreferenced(Object); savePath : Unbounded_String; begin savePath := To_Unbounded_String(Gtkada.File_Selection.File_Selection_Dialog (Title => "Save As", Default_Dir => "", Dir_Only => False, Must_Exist => False)); if savePath /= "" then saveFile(savePath); end if; return; end saveAsCB; ------------- -- aboutCB -- ------------- procedure aboutCB (Object : access Gtkada_Builder_Record'Class) is use Gtk.Dialog; retButton : Gtkada.Dialogs.Message_Dialog_Buttons; begin retButton := Gtkada.Dialogs.Message_Dialog( Msg => "YOTROC Assembler & Emulator, written by Jon Andrew for Syracuse CIS655. All rights reserved.", Buttons => Gtkada.Dialogs.Button_OK, Dialog_Type => Gtkada.Dialogs.Information, Title => "About"); -- confirmDialog.Destroy; end aboutCB; ---------------------------------------------------------------------------- -- editCB - called whenever changes are made to the textbuffer ---------------------------------------------------------------------------- procedure editCB (Object : access Gtk.Text_Buffer.Gtk_Text_Buffer_Record'Class) is begin --TODO: it would be kind of fun to add syntax highlighting here. --Ada.Text_IO.Put_Line("textview changed"); unsavedChanges := True; end editCB; --------------------------------------------------------------------------- -- confirmUnsaved -- pop up a dialog confirming that they want to exit/open file, etc. -- when there are unsaved changes. Return True if they want to proceed. --------------------------------------------------------------------------- function areYouSure return Boolean is use Gtk.Dialog; confirmDialog : Gtk.Message_Dialog.Gtk_Message_Dialog; confirmYesNo : Gtk.Dialog.Gtk_Response_Type; confirmFlags : Gtk.Dialog.Gtk_Dialog_Flags; begin confirmFlags := Gtk.Dialog.Modal; confirmDialog := Gtk.Message_Dialog.Gtk_Message_Dialog_New (Parent => null, The_Type => Gtk.Message_Dialog.Message_Question, Flags => confirmFlags, Buttons => Gtk.Message_Dialog.Buttons_Yes_No, Message => "You have unsaved changes, are you sure you want to do this?"); confirmYesNo := confirmDialog.Run; confirmDialog.Destroy; return confirmYesNo = Gtk.Dialog.Gtk_Response_Yes; end areYouSure; end callbacks;
-- { dg-do compile } -- { dg-options "-g" } with Taft_Type3_Pkg; use Taft_Type3_Pkg; procedure Taft_Type3 is subtype S is String (1..32); Empty : constant S := (others => ' '); procedure Proc (Data : in out T) is begin null; end; task type Task_T is entry Send (Data : in out T); end; task body Task_T is type List_T is array (1 .. 4) of S; L : List_T := (others => Empty); begin accept Send (Data : in out T) do Proc (Data); end; end; begin null; end;
with Ada.Text_IO; use Ada.Text_IO; procedure Man_Or_Boy is function Zero return Integer is begin return 0; end Zero; function One return Integer is begin return 1; end One; function Neg return Integer is begin return -1; end Neg; function A ( K : Integer; X1, X2, X3, X4, X5 : access function return Integer ) return Integer is M : Integer := K; -- K is read-only in Ada. Here is a mutable copy of function B return Integer is begin M := M - 1; return A (M, B'Access, X1, X2, X3, X4); end B; begin if M <= 0 then return X4.all + X5.all; else return B; end if; end A; begin Put_Line ( Integer'Image ( A ( 10, One'Access, -- Returns 1 Neg'Access, -- Returns -1 Neg'Access, -- Returns -1 One'Access, -- Returns 1 Zero'Access -- Returns 0 ) ) ); end Man_Or_Boy;
----------------------------------------------------------------------- -- asf-factory -- Component and tag factory -- Copyright (C) 2009, 2010, 2011, 2012, 2013, 2018 Stephane Carrez -- Written by Stephane Carrez (Stephane.Carrez@gmail.com) -- -- Licensed under the Apache License, Version 2.0 (the "License"); -- you may not use this file except in compliance with the License. -- You may obtain a copy of the License at -- -- http://www.apache.org/licenses/LICENSE-2.0 -- -- Unless required by applicable law or agreed to in writing, software -- distributed under the License is distributed on an "AS IS" BASIS, -- WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. -- See the License for the specific language governing permissions and -- limitations under the License. ----------------------------------------------------------------------- with ASF.Views.Nodes; with ASF.Converters; with ASF.Validators; with EL.Objects; private with Util.Beans.Objects.Hash; private with Ada.Containers; private with Ada.Containers.Hashed_Maps; -- The <b>ASF.Factory</b> is the main factory for building the facelet -- node tree and defining associated component factory. A binding library -- must be registered before the application starts. The binding library -- must not be changed (this is a read-only static definition of names -- associated with create functions). package ASF.Factory is -- ------------------------------ -- List of bindings -- ------------------------------ -- The binding array defines a set of XML entity names that represent -- a library accessible through a XML name-space. The binding array -- must be sorted on the binding name. The <b>Check</b> procedure will -- verify this assumption when the bindings are registered in the factory. type Binding_Array is array (Natural range <>) of aliased ASF.Views.Nodes.Binding_Type; type Binding_Array_Access is access constant Binding_Array; type Factory_Bindings is limited record URI : ASF.Views.Nodes.Name_Access; Bindings : Binding_Array_Access; end record; type Factory_Bindings_Access is access constant Factory_Bindings; -- ------------------------------ -- Component Factory -- ------------------------------ -- The <b>Component_Factory</b> is the main entry point to register bindings -- and resolve them when an XML file is read. type Component_Factory is limited private; -- Register a binding library in the factory. procedure Register (Factory : in out Component_Factory; Bindings : in Factory_Bindings_Access); procedure Register (Factory : in out Component_Factory; URI : in ASF.Views.Nodes.Name_Access; Name : in ASF.Views.Nodes.Name_Access; Tag : in ASF.Views.Nodes.Tag_Node_Create_Access; Create : in ASF.Views.Nodes.Create_Access); -- Find the create function in bound to the name in the given URI name-space. -- Returns null if no such binding exist. function Find (Factory : in Component_Factory; URI : in String; Name : in String) return ASF.Views.Nodes.Binding_Type; -- ------------------------------ -- Converter Factory -- ------------------------------ -- The <b>Converter_Factory</b> registers the converters which can be used -- to convert a value into a string or the opposite. -- Register the converter instance under the given name. procedure Register (Factory : in out Component_Factory; Name : in String; Converter : in ASF.Converters.Converter_Access); -- Find the converter instance that was registered under the given name. -- Returns null if no such converter exist. function Find (Factory : in Component_Factory; Name : in EL.Objects.Object) return ASF.Converters.Converter_Access; -- ------------------------------ -- Validator Factory -- ------------------------------ -- Register the validator instance under the given name. procedure Register (Factory : in out Component_Factory; Name : in String; Validator : in ASF.Validators.Validator_Access); -- Find the validator instance that was registered under the given name. -- Returns null if no such validator exist. function Find (Factory : in Component_Factory; Name : in EL.Objects.Object) return ASF.Validators.Validator_Access; private use ASF.Converters; use ASF.Validators; use ASF.Views.Nodes; -- The tag name defines a URI with the name. type Tag_Name is record URI : ASF.Views.Nodes.Name_Access; Name : ASF.Views.Nodes.Name_Access; end record; -- Compute a hash for the tag name. function Hash (Key : in Tag_Name) return Ada.Containers.Hash_Type; -- Returns true if both tag names are identical. function "=" (Left, Right : in Tag_Name) return Boolean; -- Tag library map indexed on the library namespace. package Factory_Maps is new Ada.Containers.Hashed_Maps (Key_Type => Tag_Name, Element_Type => Binding_Type, Hash => Hash, Equivalent_Keys => "="); -- Converter map indexed on the converter name. -- The key is an EL.Objects.Object to minimize the conversions when searching -- for a converter. package Converter_Maps is new Ada.Containers.Hashed_Maps (Key_Type => EL.Objects.Object, Element_Type => Converter_Access, Hash => EL.Objects.Hash, Equivalent_Keys => EL.Objects."="); -- Validator map indexed on the validator name. -- The key is an EL.Objects.Object to minimize the conversions when searching -- for a validator. package Validator_Maps is new Ada.Containers.Hashed_Maps (Key_Type => EL.Objects.Object, Element_Type => Validator_Access, Hash => EL.Objects.Hash, Equivalent_Keys => EL.Objects."="); type Component_Factory is limited record Map : Factory_Maps.Map; Converters : Converter_Maps.Map; Validators : Validator_Maps.Map; end record; end ASF.Factory;
with AVR, AVR.MCU; use AVR; with Interfaces; use Interfaces; package Hardware.PWM is -- Set Servo_ISR as the TIMER1 COMPA handler. See page 101 of the -- ATmega2560 datasheet for more details. procedure Servo_ISR; pragma Machine_Attribute (Entity => Servo_ISR, Attribute_Name => "interrupt"); pragma Export (C, Servo_ISR, MCU.Sig_Timer1_COMPA_String); Max_Servos : constant := 4; -- Board has 4 PWM connectors. type Servo_Index is range 1 .. Max_Servos; procedure Connect (pin : in AVR.Bit_Number; which : out Servo_Index); procedure Trim (which : in Servo_Index; trim : in Integer_16); procedure Set (which : in Servo_Index; us : in Unsigned_16); private Duty_Cycle : constant := 20000; -- 20ms pulse width Update_Interval : constant := 40000; Update_Wait : constant := 5; -- Allow for minor interrupt delays. -- Specified in the servo datasheet and common to this hardware -- configuration. Min_Pulse : constant := 1300; Mid_Pulse : constant := 1500; Max_Pulse : constant := 1700; type Servo is record Pin : AVR.Bit_Number; Ticks : Unsigned_16; Min : Unsigned_16; Max : Unsigned_16; Trim : Integer_16; end record; type Servo_ptr is access Servo; Servos : array (1 .. Max_Servos) of Servo_ptr; -- 0 is used to indicate the refresh cycle has completed. Active_Servos : Integer range 0 .. Max_Servos := 0; Current_Servo : Integer range 0 .. Max_Servos := 1; end Hardware.PWM;
with Courbes.Singletons; use Courbes.Singletons; with Courbes.Droites; use Courbes.Droites; with Courbes.Bezier_Cubiques; use Courbes.Bezier_Cubiques; with Courbes.Bezier_Quadratiques; use Courbes.Bezier_Quadratiques; package Courbes.Visiteurs is type Visiteur_Courbe is abstract tagged null record; procedure Visiter(Self : Visiteur_Courbe; C : Courbe); procedure Visiter(Self : Visiteur_Courbe; D : Droite); procedure Visiter(Self : Visiteur_Courbe; S : Singleton); procedure Visiter(Self : Visiteur_Courbe; BC : Bezier_Cubique); procedure Visiter(Self : Visiteur_Courbe; BQ : Bezier_Quadratique); end Courbes.Visiteurs;
------------------------------------------------------------------------------ -- -- -- Copyright (C) 2019, Fabien Chouteau -- -- -- -- Redistribution and use in source and binary forms, with or without -- -- modification, are permitted provided that the following conditions are -- -- met: -- -- 1. Redistributions of source code must retain the above copyright -- -- notice, this list of conditions and the following disclaimer. -- -- 2. Redistributions in binary form must reproduce the above copyright -- -- notice, this list of conditions and the following disclaimer in -- -- the documentation and/or other materials provided with the -- -- distribution. -- -- 3. Neither the name of the copyright holder nor the names of its -- -- contributors may be used to endorse or promote products derived -- -- from this software without specific prior written permission. -- -- -- -- THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS -- -- "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT -- -- LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR -- -- A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT -- -- HOLDER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, -- -- SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT -- -- LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, -- -- DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY -- -- THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT -- -- (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE -- -- OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. -- -- -- ------------------------------------------------------------------------------ with Ada.Text_IO; with Ada.Command_Line; with GNAT.Command_Line; use GNAT.Command_Line; with GNAT.Strings; use GNAT.Strings; with LibRISCV.Sim.Hart; with LibRISCV.Sim.Platform; with LibRISCV.Sim.Memory_Bus; with LibRISCV.Loader; with LibRISCV.Signature; with LibRISCV.Sim.Shutdown; with LibRISCV.Sim.Log; with LibRISCV.Sim.GDB_Remote_Target; use LibRISCV; procedure Main is Config : Command_Line_Configuration; Signature_Path : aliased String_Access := null; Log_Enable : aliased String_Access := null; HTIF_Enable : aliased Boolean := False; GDB_Enable : aliased Boolean := False; SOC : aliased Sim.Platform.Instance (Hart_Count => 1); Bus : aliased Sim.Memory_Bus.Instance (RAM_Base => 16#8000_0000#, RAM_Size => 256 * 1024); GDB_Target : Sim.GDB_Remote_Target.Instance (SOC'Unchecked_Access, Bus'Unchecked_Access, 256); use type Sim.Platform.State_Kind; use type Sim.Hart.State_Kind; begin declare begin Define_Switch (Config, Signature_Path'Access, "-s:", Long_Switch => "--signature=", Help => "Pathname for the test signature output"); Define_Switch (Config, Log_Enable'Access, "-l:", Long_Switch => "--log=", Help => "Comma separated list of log topics to enable/disable"); Define_Switch (Config, HTIF_Enable'Access, "-t", Long_Switch => "--htif", Help => "Enable the Host Target interface"); Define_Switch (Config, GDB_Enable'Access, "-g", Long_Switch => "--gdb", Help => "Enable the GDB remote interface (localhost:1234)"); Set_Usage (Config, "[switches] binary.elf", "RISC-V simulator"); Getopt (Config); exception when GNAT.Command_Line.Invalid_Switch => Ada.Command_Line.Set_Exit_Status (1); return; when GNAT.Command_Line.Exit_From_Command_Line => return; end; if Signature_Path /= null and then Signature_Path.all /= "" then Signature.Signature_Filepath (Signature_Path.all); end if; if Log_Enable /= null and then Log_Enable.all /= "" then if not LibRISCV.Sim.Log.Set_Arg (Log_Enable.all) then Ada.Text_IO.Put_Line ("Invalid log argument: '" & Log_Enable.all & "'"); Ada.Command_Line.Set_Exit_Status (1); return; end if; end if; if HTIF_Enable then Bus.Enable_HTIF; end if; loop declare Arg : constant String := Get_Argument (Do_Expansion => True); begin exit when Arg'Length = 0; Loader.Load_Elf (Bus, Arg); end; end loop; SOC.Reset; if GDB_Enable then GDB_Target.Start_Server; else SOC.Resume; end if; loop if GDB_Enable then GDB_Target.Poll; end if; SOC.Cycle (Bus); if SOC.Get_Hart (1).State = Sim.Hart.Debug_Halt then case SOC.Get_Hart (1).Halt_Source is when Sim.Hart.None => null; when Sim.Hart.Single_Step => GDB_Target.Halted_On_Single_Step; when Sim.Hart.Breakpoint => GDB_Target.Halted_On_Breakpoint; when Sim.Hart.Watchpoint => null; end case; end if; exit when SOC.State = Sim.Platform.Reset or else Sim.Shutdown.Requested; end loop; Signature.Dump_Signature (Bus); end Main;
-- //////////////////////////////////////////////////////////// -- // -- // SFML - Simple and Fast Multimedia Library -- // Copyright (C) 2007-2009 Laurent Gomila (laurent.gom@gmail.com) -- // -- // This software is provided 'as-is', without any express or implied warranty. -- // In no event will the authors be held liable for any damages arising from the use of this software. -- // -- // Permission is granted to anyone to use this software for any purpose, -- // including commercial applications, and to alter it and redistribute it freely, -- // subject to the following restrictions: -- // -- // 1. The origin of this software must not be misrepresented; -- // you must not claim that you wrote the original software. -- // If you use this software in a product, an acknowledgment -- // in the product documentation would be appreciated but is not required. -- // -- // 2. Altered source versions must be plainly marked as such, -- // and must not be misrepresented as being the original software. -- // -- // 3. This notice may not be removed or altered from any source distribution. -- // -- //////////////////////////////////////////////////////////// -- //////////////////////////////////////////////////////////// -- // Headers -- //////////////////////////////////////////////////////////// with Sf.Config; with Sf.Graphics.Types; package Sf.Graphics.PostFX is use Sf.Config; use Sf.Graphics.Types; -- //////////////////////////////////////////////////////////// -- /// Create a new post-fx from a file -- /// -- /// \param Filename : File to load -- /// -- /// \return A new sfPostFX object, or NULL if it failed -- /// -- //////////////////////////////////////////////////////////// function sfPostFX_CreateFromFile (Filename : String) return sfPostFX_Ptr; -- //////////////////////////////////////////////////////////// -- /// Create a new post-fx from an effect source code -- /// -- /// \param Effect : Source code of the effect -- /// -- /// \return A new sfPostFX object, or NULL if it failed -- /// -- //////////////////////////////////////////////////////////// function sfPostFX_CreateFromMemory (Effect : String) return sfPostFX_Ptr; -- //////////////////////////////////////////////////////////// -- /// Destroy an existing post-fx -- /// -- /// \param PostFX : PostFX to delete -- /// -- //////////////////////////////////////////////////////////// procedure sfPostFX_Destroy (PostFX : sfPostFX_Ptr); -- //////////////////////////////////////////////////////////// -- /// Change a parameter of a post-fx (1 float) -- /// -- /// \param PostFX : Post-effect to modify -- /// \param Name : Parameter name in the effect -- /// \param X : Value to assign -- /// -- //////////////////////////////////////////////////////////// procedure sfPostFX_SetParameter1 (PostFX : sfPostFX_Ptr; Name : String; X : Float); -- //////////////////////////////////////////////////////////// -- /// Change a parameter of a post-fx (2 floats) -- /// -- /// \param PostFX : Post-effect to modify -- /// \param Name : Parameter name in the effect -- /// \param X, Y : Values to assign -- /// -- //////////////////////////////////////////////////////////// procedure sfPostFX_SetParameter2 (PostFX : sfPostFX_Ptr; Name : String; X, Y : Float); -- //////////////////////////////////////////////////////////// -- /// Change a parameter of a post-fx (3 floats) -- /// -- /// \param PostFX : Post-effect to modify -- /// \param Name : Parameter name in the effect -- /// \param X, Y, Z : Values to assign -- /// -- //////////////////////////////////////////////////////////// procedure sfPostFX_SetParameter3 (PostFX : sfPostFX_Ptr; Name : String; X, Y, Z : Float); -- //////////////////////////////////////////////////////////// -- /// Change a parameter of a post-fx (4 floats) -- /// -- /// \param PostFX : Post-effect to modify -- /// \param Name : Parameter name in the effect -- /// \param X, Y, Z, W : Values to assign -- /// -- //////////////////////////////////////////////////////////// procedure sfPostFX_SetParameter4 (PostFX : sfPostFX_Ptr; Name : String; X, Y, Z, W : Float); -- //////////////////////////////////////////////////////////// -- /// Set a texture parameter in a post-fx -- /// -- /// \param PostFX : Post-effect to modify -- /// \param Name : Texture name in the effect -- /// \param Texture : Image to set (pass NULL to use content of current framebuffer) -- /// -- //////////////////////////////////////////////////////////// procedure sfPostFX_SetTexture (PostFX : sfPostFX_Ptr; Name : String; Texture : sfImage_Ptr); -- //////////////////////////////////////////////////////////// -- /// Tell whether or not the system supports post-effects -- /// -- /// \return sfTrue if the system can use post-effects -- /// -- //////////////////////////////////////////////////////////// function sfPostFX_CanUsePostFX return sfBool; private pragma Import (C, sfPostFX_Destroy, "sfPostFX_Destroy"); pragma Import (C, sfPostFX_CanUsePostFX, "sfPostFX_CanUsePostFX"); end Sf.Graphics.PostFX;
-- SPDX-License-Identifier: Apache-2.0 -- -- Copyright (c) 2020 onox <denkpadje@gmail.com> -- -- Licensed under the Apache License, Version 2.0 (the "License"); -- you may not use this file except in compliance with the License. -- You may obtain a copy of the License at -- -- http://www.apache.org/licenses/LICENSE-2.0 -- -- Unless required by applicable law or agreed to in writing, software -- distributed under the License is distributed on an "AS IS" BASIS, -- WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. -- See the License for the specific language governing permissions and -- limitations under the License. package Orka.Contexts.EGL.Wayland is pragma Preelaborate; type Wayland_EGL_Context is limited new Context with private; overriding function Create_Context (Version : Context_Version; Flags : Context_Flags := (others => False)) return Wayland_EGL_Context; -- Raise Program_Error due to the missing native Wayland display -- -- This function must be overriden and internally call the function below. function Create_Context (Window : Standard.EGL.Native_Display_Ptr; Version : Context_Version; Flags : Context_Flags := (others => False)) return Wayland_EGL_Context; -- Return a Wayland EGL context private type Wayland_EGL_Context is limited new EGL_Context with record Context : Standard.EGL.Objects.Contexts.Context (Standard.EGL.Objects.Displays.Wayland); end record; overriding function Is_Current (Object : Wayland_EGL_Context; Kind : Task_Kind) return Boolean is (Object.Context.Is_Current (case Kind is when Current_Task => Standard.EGL.Objects.Contexts.Current_Task, when Any_Task => Standard.EGL.Objects.Contexts.Any_Task)); overriding procedure Make_Current (Object : Wayland_EGL_Context); overriding procedure Make_Not_Current (Object : Wayland_EGL_Context); end Orka.Contexts.EGL.Wayland;
with Ada.Text_IO; use Ada.Text_IO; with Ada.Integer_Text_IO; use Ada.Integer_Text_IO; with Google_Naive; procedure test_google_naive is type Double is digits 10 ; package Double_Text_Io is new Ada.Text_IO.Float_IO (Double); use Double_Text_Io; Fichier : constant String := "Fichier_Test.net"; Alpha : constant Double := 0.85; package Google_Naive_Test is new Google_Naive(2, Double); use Google_Naive_Test; procedure Construire_Fichier is File : File_Type; begin Create(File, Out_File, Fichier); Put(File, 3, 0); New_Line(File); For I in 0..2 loop if I = 1 then Put(File, I, 0); Put(File, 0, 2); New_Line(File); Put(File, I, 0); Put(File, 2, 2); New_Line(File); elsif I = 0 then Put(File, I, 0); Put(File, 1, 2); New_Line(File); else null; end if; end loop; Close(File); end Construire_Fichier; procedure Initialiser_Vecteur_Poids(V : out T_Vecteur) is begin for I in 0..2 loop if I = 0 then Modifier(V,I,0.2587); elsif I = 1 then Modifier(V,I,2.33654); else Modifier(V,I,1.2587); end if; end loop; end Initialiser_Vecteur_Poids; procedure Construire_exemple_Sujet (A, B : out T_Google; C : out T_Vecteur) is begin Initialiser(A); Initialiser(B); Initialiser(C,1.0); For i in 0..2 loop For j in 0..2 loop Modifier(A,i,j,Double(j*i)); Modifier(B,i,j,1.0); end loop; end loop; end Construire_exemple_Sujet; procedure Tester_Sont_Egaux is A, B : T_Google; begin Put_Line ("=== Tester_Sont_Egaux..."); New_Line; Initialiser(A); Initialiser(B); For i in 0..2 loop For j in 0..2 loop Modifier(A,i,j,1.0); Modifier(B,i,j,Double(1)); end loop; Pragma Assert(Sont_Egaux(A,B)); end loop; end Tester_Sont_Egaux; procedure Tester_Calcul_Google is G : T_Google; begin Put_Line ("=== Tester_Calcul_Google..."); New_Line; Calcul_Google(G, Fichier, Alpha); Afficher(G); New_Line; pragma Assert(Composante(G,0,0) = (1.0-Alpha)/3.0); pragma Assert(Composante(G,1,0) = Alpha/2.0 + (1.0-Alpha)/3.0); pragma Assert(Composante(G,2,2) = 1.0/3.0); pragma Assert(Composante(G,0,0) = Composante(G,1,1)); pragma Assert(Composante(G,2,0) = Composante(G,2,1)); end Tester_Calcul_Google; procedure Tester_Remplir_Fichier is Fichier1, Fichier2 : File_Type; V : T_Vecteur; Indice, N, Nb_Iter : Integer; Poids, alph : Double; begin Put_Line ("=== Tester_Remplir_Fichiers..."); New_Line; Initialiser_Vecteur_Poids(V); Remplir_Fichier(V, 3, 150, Alpha, Fichier); Open(Fichier1,In_File,"Fichier_Test.p"); Open(Fichier2,In_File,"Fichier_Test.ord"); Get(Fichier1, N); pragma Assert(N = 3); Get(Fichier1, alph); pragma Assert(alph = Alpha); Get(Fichier1, Nb_Iter); pragma Assert(Nb_Iter = 150); for I in 0..2 loop Get(Fichier2, Indice); Get(Fichier1, Poids); if I = 0 then pragma Assert(Indice = 1); pragma Assert(Poids = 2.33654); elsif I = 1 then pragma Assert(Indice = 2); pragma Assert(Poids = 1.2587); else pragma Assert(Indice = 0); pragma Assert(Poids = 0.2587); end if; end loop; Close(Fichier1); Close(Fichier2); end Tester_Remplir_Fichier; procedure Tester_Produit_Matriciel is A : T_Google; B : T_Google; V : T_Vecteur; somme : Double; begin Put_Line ("=== Tester_Produit_Matriciel..."); New_Line; Construire_Exemple_Sujet (A, B, V); Produit_Matriciel(V,A); For i in 0..2 loop somme := 0.0; For j in 0..2 loop somme := somme + Double(i*j); end loop; Pragma Assert(Composante(V,i)=somme); end loop; Initialiser(V,1.0); Produit_Matriciel(V,B); For I in 0..2 loop pragma Assert(Composante(V,i) = 3.0); end loop; end Tester_Produit_Matriciel; begin Construire_Fichier; Tester_Produit_Matriciel; Tester_Sont_Egaux; Tester_Calcul_Google; Tester_Remplir_Fichier; Put_Line("Fin des tests. Ok!"); end test_google_naive;
package body SomeClass is function someFunction (Self : in SomeClass) return Integer is begin return Self.someAttribute; end someFunction; procedure someProcedure (Self : in SomeClass) is begin null; end someProcedure; procedure someUnrelatedProcedure is begin null; end someUnrelatedProcedure; end SomeClass;
------------------------------------------------------------------------------ -- -- -- Copyright (C) 2018, Universidad Politécnica de Madrid -- -- -- -- This is free software; you can redistribute it and/or modify it under -- -- terms of the GNU General Public License as published by the Free Soft- -- -- ware Foundation; either version 3, or (at your option) any later ver- -- -- sion. This software is distributed in the hope that it will be useful, -- -- but WITHOUT ANY WARRANTY; without even the implied warranty of MERCHAN- -- -- TABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU General Public -- -- License for more details. You should have received a copy of the GNU -- -- General Public License distributed with this software; see file -- -- COPYING3. If not, go to http://www.gnu.org/licenses for a complete copy -- -- of the license. -- -- -- ------------------------------------------------------------------------------ -- TMP36 temperature sensor reading -- See TMP35/TMP36/TMP37 datasheet package HK_Data.TMP36 is type Temperature_Range is digits 5 range -40.0 .. +125.0; function Temperature (R : Sensor_Reading) return Temperature_Range with Inline; end HK_Data.TMP36;
------------------------------------------------------------------------------ -- -- -- GNAT COMPILER COMPONENTS -- -- -- -- T R E E _ I O -- -- -- -- B o d y -- -- -- -- $Revision$ -- -- -- Copyright (C) 1992-2001 Free Software Foundation, Inc. -- -- -- -- GNAT is free software; you can redistribute it and/or modify it under -- -- terms of the GNU General Public License as published by the Free Soft- -- -- ware Foundation; either version 2, or (at your option) any later ver- -- -- sion. GNAT is distributed in the hope that it will be useful, but WITH- -- -- OUT ANY WARRANTY; without even the implied warranty of MERCHANTABILITY -- -- or FITNESS FOR A PARTICULAR PURPOSE. See the GNU General Public License -- -- for more details. You should have received a copy of the GNU General -- -- Public License distributed with GNAT; see file COPYING. If not, write -- -- to the Free Software Foundation, 59 Temple Place - Suite 330, Boston, -- -- MA 02111-1307, USA. -- -- -- -- As a special exception, if other files instantiate generics from this -- -- unit, or you link this unit with other files to produce an executable, -- -- this unit does not by itself cause the resulting executable to be -- -- covered by the GNU General Public License. This exception does not -- -- however invalidate any other reasons why the executable file might be -- -- covered by the GNU Public License. -- -- -- -- GNAT was originally developed by the GNAT team at New York University. -- -- Extensive contributions were provided by Ada Core Technologies Inc. -- -- -- ------------------------------------------------------------------------------ with Debug; use Debug; with Output; use Output; with Unchecked_Conversion; package body Tree_IO is Debug_Flag_Tree : Boolean := False; -- Debug flag for debug output from tree read/write ------------------------------------------- -- Compression Scheme Used for Tree File -- ------------------------------------------- -- We don't just write the data directly, but instead do a mild form -- of compression, since we expect lots of compressible zeroes and -- blanks. The compression scheme is as follows: -- 00nnnnnn followed by nnnnnn bytes (non compressed data) -- 01nnnnnn indicates nnnnnn binary zero bytes -- 10nnnnnn indicates nnnnnn ASCII space bytes -- 11nnnnnn bbbbbbbb indicates nnnnnnnn occurrences of byte bbbbbbbb -- Since we expect many zeroes in trees, and many spaces in sources, -- this compression should be reasonably efficient. We can put in -- something better later on. -- Note that this compression applies to the Write_Tree_Data and -- Read_Tree_Data calls, not to the calls to read and write single -- scalar values, which are written in memory format without any -- compression. C_Noncomp : constant := 2#00_000000#; C_Zeros : constant := 2#01_000000#; C_Spaces : constant := 2#10_000000#; C_Repeat : constant := 2#11_000000#; -- Codes for compression sequences Max_Count : constant := 63; -- Maximum data length for one compression sequence Max_Comp : constant := Max_Count + 1; -- Maximum length of one compression sequence -- The above compression scheme applies only to data written with the -- Tree_Write routine and read with Tree_Read. Data written using the -- Tree_Write_Char or Tree_Write_Int routines and read using the -- corresponding input routines is not compressed. type Int_Bytes is array (1 .. 4) of Byte; for Int_Bytes'Size use 32; function To_Int_Bytes is new Unchecked_Conversion (Int, Int_Bytes); function To_Int is new Unchecked_Conversion (Int_Bytes, Int); ---------------------- -- Global Variables -- ---------------------- Tree_FD : File_Descriptor; -- File descriptor for tree Buflen : constant Int := 8_192; -- Length of buffer for read and write file data Buf : array (Pos range 1 .. Buflen) of Byte; -- Read/write file data buffer Bufn : Nat; -- Number of bytes read/written from/to buffer Buft : Nat; -- Total number of bytes in input buffer containing valid data. Used only -- for input operations. There is data left to be processed in the buffer -- if Buft > Bufn. A value of zero for Buft means that the buffer is empty. ----------------------- -- Local Subprograms -- ----------------------- procedure Read_Buffer; -- Reads data into buffer, setting Bufe appropriately function Read_Byte return Byte; pragma Inline (Read_Byte); -- Returns next byte from input file, raises Tree_Format_Error if none left procedure Write_Buffer; -- Writes out current buffer contents procedure Write_Byte (B : Byte); pragma Inline (Write_Byte); -- Write one byte to output buffer, checking for buffer-full condition ----------------- -- Read_Buffer -- ----------------- procedure Read_Buffer is begin Buft := Int (Read (Tree_FD, Buf (1)'Address, Integer (Buflen))); if Buft = 0 then raise Tree_Format_Error; else Bufn := 0; end if; end Read_Buffer; --------------- -- Read_Byte -- --------------- function Read_Byte return Byte is begin if Bufn = Buft then Read_Buffer; end if; Bufn := Bufn + 1; return Buf (Bufn); end Read_Byte; -------------------- -- Tree_Read_Bool -- -------------------- procedure Tree_Read_Bool (B : out Boolean) is begin B := Boolean'Val (Read_Byte); if Debug_Flag_Tree then if B then Write_Str ("True"); else Write_Str ("False"); end if; Write_Eol; end if; end Tree_Read_Bool; -------------------- -- Tree_Read_Char -- -------------------- procedure Tree_Read_Char (C : out Character) is begin C := Character'Val (Read_Byte); if Debug_Flag_Tree then Write_Str ("==> transmitting Character = "); Write_Char (C); Write_Eol; end if; end Tree_Read_Char; -------------------- -- Tree_Read_Data -- -------------------- procedure Tree_Read_Data (Addr : Address; Length : Int) is type S is array (Pos) of Byte; -- This is a big array, for which we have to suppress the warning type SP is access all S; function To_SP is new Unchecked_Conversion (Address, SP); Data : constant SP := To_SP (Addr); -- Data buffer to be read as an indexable array of bytes OP : Pos := 1; -- Pointer to next byte of data buffer to be read into B : Byte; C : Byte; L : Int; begin if Debug_Flag_Tree then Write_Str ("==> transmitting "); Write_Int (Length); Write_Str (" data bytes"); Write_Eol; end if; -- Verify data length Tree_Read_Int (L); if L /= Length then Write_Str ("==> transmitting, expected "); Write_Int (Length); Write_Str (" bytes, found length = "); Write_Int (L); Write_Eol; raise Tree_Format_Error; end if; -- Loop to read data while OP <= Length loop -- Get compression control character B := Read_Byte; C := B and 2#00_111111#; B := B and 2#11_000000#; -- Non-repeat case if B = C_Noncomp then if Debug_Flag_Tree then Write_Str ("==> uncompressed: "); Write_Int (Int (C)); Write_Str (", starting at "); Write_Int (OP); Write_Eol; end if; for J in 1 .. C loop Data (OP) := Read_Byte; OP := OP + 1; end loop; -- Repeated zeroes elsif B = C_Zeros then if Debug_Flag_Tree then Write_Str ("==> zeroes: "); Write_Int (Int (C)); Write_Str (", starting at "); Write_Int (OP); Write_Eol; end if; for J in 1 .. C loop Data (OP) := 0; OP := OP + 1; end loop; -- Repeated spaces elsif B = C_Spaces then if Debug_Flag_Tree then Write_Str ("==> spaces: "); Write_Int (Int (C)); Write_Str (", starting at "); Write_Int (OP); Write_Eol; end if; for J in 1 .. C loop Data (OP) := Character'Pos (' '); OP := OP + 1; end loop; -- Specified repeated character else -- B = C_Repeat B := Read_Byte; if Debug_Flag_Tree then Write_Str ("==> other char: "); Write_Int (Int (C)); Write_Str (" ("); Write_Int (Int (B)); Write_Char (')'); Write_Str (", starting at "); Write_Int (OP); Write_Eol; end if; for J in 1 .. C loop Data (OP) := B; OP := OP + 1; end loop; end if; end loop; -- At end of loop, data item must be exactly filled if OP /= Length + 1 then raise Tree_Format_Error; end if; end Tree_Read_Data; -------------------------- -- Tree_Read_Initialize -- -------------------------- procedure Tree_Read_Initialize (Desc : File_Descriptor) is begin Buft := 0; Bufn := 0; Tree_FD := Desc; Debug_Flag_Tree := Debug_Flag_5; end Tree_Read_Initialize; ------------------- -- Tree_Read_Int -- ------------------- procedure Tree_Read_Int (N : out Int) is N_Bytes : Int_Bytes; begin for J in 1 .. 4 loop N_Bytes (J) := Read_Byte; end loop; N := To_Int (N_Bytes); if Debug_Flag_Tree then Write_Str ("==> transmitting Int = "); Write_Int (N); Write_Eol; end if; end Tree_Read_Int; ------------------- -- Tree_Read_Str -- ------------------- procedure Tree_Read_Str (S : out String_Ptr) is N : Nat; begin Tree_Read_Int (N); S := new String (1 .. Natural (N)); Tree_Read_Data (S.all (1)'Address, N); end Tree_Read_Str; ------------------------- -- Tree_Read_Terminate -- ------------------------- procedure Tree_Read_Terminate is begin -- Must be at end of input buffer, so we should get Tree_Format_Error -- if we try to read one more byte, if not, we have a format error. declare B : Byte; begin B := Read_Byte; exception when Tree_Format_Error => return; end; raise Tree_Format_Error; end Tree_Read_Terminate; --------------------- -- Tree_Write_Bool -- --------------------- procedure Tree_Write_Bool (B : Boolean) is begin if Debug_Flag_Tree then Write_Str ("==> transmitting Boolean = "); if B then Write_Str ("True"); else Write_Str ("False"); end if; Write_Eol; end if; Write_Byte (Boolean'Pos (B)); end Tree_Write_Bool; --------------------- -- Tree_Write_Char -- --------------------- procedure Tree_Write_Char (C : Character) is begin if Debug_Flag_Tree then Write_Str ("==> transmitting Character = "); Write_Char (C); Write_Eol; end if; Write_Byte (Character'Pos (C)); end Tree_Write_Char; --------------------- -- Tree_Write_Data -- --------------------- procedure Tree_Write_Data (Addr : Address; Length : Int) is type S is array (Pos) of Byte; -- This is a big array, for which we have to suppress the warning type SP is access all S; function To_SP is new Unchecked_Conversion (Address, SP); Data : constant SP := To_SP (Addr); -- Pointer to data to be written, converted to array type IP : Pos := 1; -- Input buffer pointer, next byte to be processed NC : Nat range 0 .. Max_Count := 0; -- Number of bytes of non-compressible sequence C : Byte; procedure Write_Non_Compressed_Sequence; -- Output currently collected sequence of non-compressible data procedure Write_Non_Compressed_Sequence is begin if NC > 0 then Write_Byte (C_Noncomp + Byte (NC)); if Debug_Flag_Tree then Write_Str ("==> uncompressed: "); Write_Int (NC); Write_Str (", starting at "); Write_Int (IP - NC); Write_Eol; end if; for J in reverse 1 .. NC loop Write_Byte (Data (IP - J)); end loop; NC := 0; end if; end Write_Non_Compressed_Sequence; -- Start of processing for Tree_Write_Data begin if Debug_Flag_Tree then Write_Str ("==> transmitting "); Write_Int (Length); Write_Str (" data bytes"); Write_Eol; end if; -- We write the count at the start, so that we can check it on -- the corresponding read to make sure that reads and writes match Tree_Write_Int (Length); -- Conversion loop -- IP is index of next input character -- NC is number of non-compressible bytes saved up loop -- If input is completely processed, then we are all done if IP > Length then Write_Non_Compressed_Sequence; return; end if; -- Test for compressible sequence, must be at least three identical -- bytes in a row to be worthwhile compressing. if IP + 2 <= Length and then Data (IP) = Data (IP + 1) and then Data (IP) = Data (IP + 2) then Write_Non_Compressed_Sequence; -- Count length of new compression sequence C := 3; IP := IP + 3; while IP < Length and then Data (IP) = Data (IP - 1) and then C < Max_Count loop C := C + 1; IP := IP + 1; end loop; -- Output compression sequence if Data (IP - 1) = 0 then if Debug_Flag_Tree then Write_Str ("==> zeroes: "); Write_Int (Int (C)); Write_Str (", starting at "); Write_Int (IP - Int (C)); Write_Eol; end if; Write_Byte (C_Zeros + C); elsif Data (IP - 1) = Character'Pos (' ') then if Debug_Flag_Tree then Write_Str ("==> spaces: "); Write_Int (Int (C)); Write_Str (", starting at "); Write_Int (IP - Int (C)); Write_Eol; end if; Write_Byte (C_Spaces + C); else if Debug_Flag_Tree then Write_Str ("==> other char: "); Write_Int (Int (C)); Write_Str (" ("); Write_Int (Int (Data (IP - 1))); Write_Char (')'); Write_Str (", starting at "); Write_Int (IP - Int (C)); Write_Eol; end if; Write_Byte (C_Repeat + C); Write_Byte (Data (IP - 1)); end if; -- No compression possible here else -- Output non-compressed sequence if at maximum length if NC = Max_Count then Write_Non_Compressed_Sequence; end if; NC := NC + 1; IP := IP + 1; end if; end loop; end Tree_Write_Data; --------------------------- -- Tree_Write_Initialize -- --------------------------- procedure Tree_Write_Initialize (Desc : File_Descriptor) is begin Bufn := 0; Tree_FD := Desc; Set_Standard_Error; Debug_Flag_Tree := Debug_Flag_5; end Tree_Write_Initialize; -------------------- -- Tree_Write_Int -- -------------------- procedure Tree_Write_Int (N : Int) is N_Bytes : constant Int_Bytes := To_Int_Bytes (N); begin if Debug_Flag_Tree then Write_Str ("==> transmitting Int = "); Write_Int (N); Write_Eol; end if; for J in 1 .. 4 loop Write_Byte (N_Bytes (J)); end loop; end Tree_Write_Int; -------------------- -- Tree_Write_Str -- -------------------- procedure Tree_Write_Str (S : String_Ptr) is begin Tree_Write_Int (S'Length); Tree_Write_Data (S (1)'Address, S'Length); end Tree_Write_Str; -------------------------- -- Tree_Write_Terminate -- -------------------------- procedure Tree_Write_Terminate is begin if Bufn > 0 then Write_Buffer; end if; end Tree_Write_Terminate; ------------------ -- Write_Buffer -- ------------------ procedure Write_Buffer is begin if Integer (Bufn) = Write (Tree_FD, Buf'Address, Integer (Bufn)) then Bufn := 0; else Set_Standard_Error; Write_Str ("fatal error: disk full"); OS_Exit (2); end if; end Write_Buffer; ---------------- -- Write_Byte -- ---------------- procedure Write_Byte (B : Byte) is begin Bufn := Bufn + 1; Buf (Bufn) := B; if Bufn = Buflen then Write_Buffer; end if; end Write_Byte; end Tree_IO;
package body GL.Text.UTF8 is type Byte is mod 2**8; subtype Surrogate_Halves is UTF8_Code_Point range 16#D800# .. 16#DFFF#; procedure Read (Buffer : String; Position : in out Positive; Result : out UTF8_Code_Point) is Cur : Byte := Character'Pos (Buffer (Position)); Additional_Bytes : Positive; begin if (Cur and 2#10000000#) = 0 then Result := UTF8_Code_Point (Cur); Position := Position + 1; return; elsif (Cur and 2#01000000#) = 0 then raise Rendering_Error with "Encoding error at code point starting byte" & Position'Img; elsif (Cur and 2#00100000#) = 0 then Additional_Bytes := 1; Result := UTF8_Code_Point (Cur and 2#00011111#) * 2**6; elsif (Cur and 2#00010000#) = 0 then Additional_Bytes := 2; Result := UTF8_Code_Point (Cur and 2#00001111#) * 2**12; elsif (Cur and 2#00001000#) = 0 then Additional_Bytes := 3; Result := UTF8_Code_Point (Cur and 2#00000111#) * 2**18; else raise Rendering_Error with "Encoding error at code point starting byte" & Position'Img; end if; for Index in 1 .. Additional_Bytes loop Cur := Character'Pos (Buffer (Position + Index)); if (Cur and 2#11000000#) /= 2#10000000# then raise Rendering_Error with "Encoding error at code point continuation byte" & Positive'Image (Position + Index); end if; Result := Result + UTF8_Code_Point (Cur and 2#00111111#) * 2**(6 * (Additional_Bytes - Index)); end loop; if Result in Surrogate_Halves then raise Rendering_Error with "Surrogate half not valid in UTF-8 at position" & Position'Img; end if; Position := Position + Additional_Bytes + 1; end Read; end GL.Text.UTF8;
with Asis; with A_Nodes; with Dot; package Asis_Tool_2.Context is type Class is tagged limited private; procedure Process (This : in out Class; Tree_File_Name : in String; Outputs : in Outputs_Record); private type Class is tagged limited -- Initialized record Asis_Context : Asis.Context; -- Initialized end record; end Asis_Tool_2.Context;
------------------------------------------------------------------------------ -- -- -- Matreshka Project -- -- -- -- Localization, Internationalization, Globalization for Ada -- -- -- -- Runtime Library Component -- -- -- ------------------------------------------------------------------------------ -- -- -- Copyright © 2010-2011, Vadim Godunko <vgodunko@gmail.com> -- -- All rights reserved. -- -- -- -- Redistribution and use in source and binary forms, with or without -- -- modification, are permitted provided that the following conditions -- -- are met: -- -- -- -- * Redistributions of source code must retain the above copyright -- -- notice, this list of conditions and the following disclaimer. -- -- -- -- * Redistributions in binary form must reproduce the above copyright -- -- notice, this list of conditions and the following disclaimer in the -- -- documentation and/or other materials provided with the distribution. -- -- -- -- * Neither the name of the Vadim Godunko, IE nor the names of its -- -- contributors may be used to endorse or promote products derived from -- -- this software without specific prior written permission. -- -- -- -- THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS -- -- "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT -- -- LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR -- -- A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT -- -- HOLDER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, -- -- SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED -- -- TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR -- -- PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF -- -- LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING -- -- NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS -- -- SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. -- -- -- ------------------------------------------------------------------------------ -- $Revision$ $Date$ ------------------------------------------------------------------------------ -- The http://x0213.org/codetable/sjis-0213-2004-std.txt file was used to -- construct conversion tables: -- -- Shift_JIS-2004 (JIS X 0213:2004 Appendix 1) vs Unicode mapping table -- -- Date: 3 May 2009 -- License: -- Copyright (C) 2001 earthian@tama.or.jp, All Rights Reserved. -- Copyright (C) 2001 I'O, All Rights Reserved. -- Copyright (C) 2006, 2009 Project X0213, All Rights Reserved. -- You can use, modify, distribute this table freely. ------------------------------------------------------------------------------ with Matreshka.Internals.Strings.Configuration; with Matreshka.Internals.Text_Codecs.SHIFTJIS.Tables; with Matreshka.Internals.Utf16; package body Matreshka.Internals.Text_Codecs.SHIFTJIS is use Matreshka.Internals.Strings.Configuration; Accept_Single_State : constant SHIFTJIS_DFA_State := 0; Accept_Double_State : constant SHIFTJIS_DFA_State := 1; Reject_State : constant SHIFTJIS_DFA_State := 2; Transition : constant array (SHIFTJIS_DFA_State range 0 .. 31) of SHIFTJIS_DFA_State := (0, 0, 3, 3, 2, 2, 2, 2, 0, 0, 3, 3, 2, 2, 2, 2, 2, 2, 2, 2, 2, 2, 2, 2, 1, 2, 1, 2, 1, 2, 2, 2); ------------------- -- Decode_Append -- ------------------- overriding procedure Decode_Append (Self : in out SHIFTJIS_Decoder; Data : Ada.Streams.Stream_Element_Array; String : in out Matreshka.Internals.Strings.Shared_String_Access) is use type Matreshka.Internals.Unicode.Code_Point; use type Matreshka.Internals.Utf16.Utf16_String_Index; Current_State : SHIFTJIS_DFA_State := Self.State; Current_First : Ada.Streams.Stream_Element := Self.First; Current_Code : Matreshka.Internals.Unicode.Code_Unit_32; begin Matreshka.Internals.Strings.Mutate (String, String.Unused + Data'Length); for J in Data'Range loop declare M : constant SHIFTJIS_Meta_Class := Tables.Meta_Class (Data (J)); begin Current_State := Transition (Current_State * 8 + SHIFTJIS_DFA_State (M)); if Current_State = Accept_Single_State then Self.Unchecked_Append (Self, String, Tables.Decode_Single (Data (J))); elsif Current_State = Accept_Double_State then Current_Code := Tables.Decode_Double (Current_First) (Data (J)); if Current_Code = 16#0000# then Current_State := Reject_State; elsif Current_Code in Tables.Expansion'Range then Self.Unchecked_Append (Self, String, Tables.Expansion (Current_Code).First); Self.Unchecked_Append (Self, String, Tables.Expansion (Current_Code).Second); else Self.Unchecked_Append (Self, String, Current_Code); end if; else Current_First := Data (J); end if; end; end loop; Self.State := Current_State; Self.First := Current_First; String_Handler.Fill_Null_Terminator (String); end Decode_Append; ------------- -- Decoder -- ------------- function Decoder (Mode : Decoder_Mode) return Abstract_Decoder'Class is begin case Mode is when Raw => return SHIFTJIS_Decoder' (Skip_LF => False, Unchecked_Append => Unchecked_Append_Raw'Access, State => Accept_Single_State, First => 0); when XML_1_0 => return SHIFTJIS_Decoder' (Skip_LF => False, Unchecked_Append => Unchecked_Append_XML10'Access, State => Accept_Single_State, First => 0); when XML_1_1 => return SHIFTJIS_Decoder' (Skip_LF => False, Unchecked_Append => Unchecked_Append_XML11'Access, State => Accept_Single_State, First => 0); end case; end Decoder; -------------- -- Is_Error -- -------------- overriding function Is_Error (Self : SHIFTJIS_Decoder) return Boolean is begin return Self.State = Reject_State; end Is_Error; ------------------- -- Is_Mailformed -- ------------------- overriding function Is_Mailformed (Self : SHIFTJIS_Decoder) return Boolean is begin return Self.State not in Accept_Single_State .. Accept_Double_State; end Is_Mailformed; end Matreshka.Internals.Text_Codecs.SHIFTJIS;
with System; use System; package body Deferred_Const2_Pkg is procedure Dummy is begin null; end; begin if S'Address /= I'Address then raise Program_Error; end if; end Deferred_Const2_Pkg;
with System.Storage_Elements; package Array14_Pkg is package SSE renames System.Storage_Elements; function Parity_Byte_Count return SSE.Storage_Count; Length2 : constant SSE.Storage_Count := Parity_Byte_Count; subtype Encoded_Index_Type2 is SSE.Storage_Count range 1 .. Length2; subtype Encoded_Type2 is SSE.Storage_Array (Encoded_Index_Type2'Range); procedure Encode2 (Input : in Integer; Output : out Encoded_Type2); end Array14_Pkg;
-- -- Jan & Uwe R. Zimmer, Australia, July 2011 -- package Graphics_Setup is procedure Initialize_Graphics (Operations : access procedure); procedure Window_Resize (Size_x, Size_y : Integer); end Graphics_Setup;
--------------------------------------------------------------------------- -- package body QR_Symmetric_Eigen, QR based eigen-decomposition -- Copyright (C) 2018 Jonathan S. Parker -- -- Permission to use, copy, modify, and/or distribute this software for any -- purpose with or without fee is hereby granted, provided that the above -- copyright notice and this permission notice appear in all copies. -- THE SOFTWARE IS PROVIDED "AS IS" AND THE AUTHOR DISCLAIMS ALL WARRANTIES -- WITH REGARD TO THIS SOFTWARE INCLUDING ALL IMPLIED WARRANTIES OF -- MERCHANTABILITY AND FITNESS. IN NO EVENT SHALL THE AUTHOR BE LIABLE FOR -- ANY SPECIAL, DIRECT, INDIRECT, OR CONSEQUENTIAL DAMAGES OR ANY DAMAGES -- WHATSOEVER RESULTING FROM LOSS OF USE, DATA OR PROFITS, WHETHER IN AN -- ACTION OF CONTRACT, NEGLIGENCE OR OTHER TORTIOUS ACTION, ARISING OUT OF -- OR IN CONNECTION WITH THE USE OR PERFORMANCE OF THIS SOFTWARE. --------------------------------------------------------------------------- with Ada.numerics.Generic_Elementary_Functions; with Tridiagonal; with Hypot; package body QR_Symmetric_Eigen is package Maths is new Ada.numerics.Generic_Elementary_Functions(Real); use Maths; package Hypo is new Hypot (Real); package Tridi is new Tridiagonal (Real, Index, Matrix); Zero : constant Real := +0.0; One : constant Real := +1.0; Two : constant Real := +2.0; -- -- Matrix -- -- |a b| -- |b c| -- -- has eigenvals x satisfying: -- -- x^2 - (a + c) * x + a*c - b*b = 0 -- x^2 - (a + c) * x + a_0 = 0 -- -- Solution (x) is always real: -- -- x = (a + c)/2 +/- Sqrt (((a + c)/2)^2 - a_0) -- x = (a + c)/2 +/- Sqrt (((a - c)/2)^2 + b*b) -- -- Let y = x - c, and Beta = (a - c)/2. Then -- -- y = (a - c)/2 +/- Sqrt (((a - c)/2)^2 + b*b) -- y = Beta +/- Sqrt (Beta^2 + b*b) -- -- General Soln: -- -- Eig_Val - c = y = Beta * (1 +/- Sgn(Beta) * Sqrt (Beta^2 + b*b)) -- -- Use -- -- Sqrt (Beta^2 + b*b) - 1 = b^2 / (Beta^2 + |Beta| * Sqrt (Beta^2 + b*b)) -- -- and -- -- 1 + Sqrt (Beta^2 + b*b) = 2 + (Sqrt (Beta^2 + b*b) - 1) -- -- to get -- -- Eig_1 = a + Sgn(Beta) * b^2 / (|Beta| + Sqrt (Beta^2 + b*b)) -- Eig_2 = c - Sgn(Beta) * b^2 / (|Beta| + Sqrt (Beta^2 + b*b)) -- -- procedure Quadratic_Eigs (a, b, c : in Real; Eig_Val_1 : out Real; Eig_Val_2 : out Real) is Beta : constant Real := 0.5 * (a - c); begin if b = Zero then Eig_Val_1 := a; Eig_Val_2 := c; return; end if; if Beta = Zero then -- a = c Eig_Val_1 := a + Abs b; Eig_Val_2 := c - Abs b; return; end if; -- Hypot = Sqrt (Beta^2 + b^2); declare Hypot : constant Real := Hypo.Hypotenuse (b, Beta); Shift : Real := b * (b / (Hypot + Abs Beta)); begin Shift := Real'Copy_Sign (Shift, Beta); Eig_Val_1 := a + Shift; Eig_Val_2 := c - Shift; end; -- -- test using: x^2 - (a + c) * x + a_0 = 0 -- -- declare -- x, tst : Real; -- Min_R : Real := Min_Allowed_Real; -- a_0 : constant Real := a*c - b*b; -- begin -- x := Eig_Val_1; -- tst := ((x - a)*(x - c) - b*b) / (x*x + b*b + Abs a_0 + Min_R); -- if Abs tst > Real'Epsilon * 16.0 then -- new_line; put(Real'Image(tst)); new_line; -- null; -- end if; -- x := Eig_Val_2; -- tst := ((x - a)*(x - c) - b*b) / (x*x + b*b + Abs a_0 + Min_R); -- if Abs tst > Real'Epsilon * 16.0 then -- new_line; put(Real'Image(tst)); new_line; -- null; -- end if; -- end; end Quadratic_Eigs; procedure Swap (A, B : in out Real) is tmp : constant Real := A; begin A := B; B := tmp; end Swap; --------------- -- Sort_Eigs -- --------------- procedure Sort_Eigs (Eigenvals : in out Col_Vector; Q : in out Matrix; -- Columns are the eigvectors Start_Col : in Index := Index'First; Final_Col : in Index := Index'Last; Sort_Eigvecs_Also : in Boolean := False) is Max_Eig : Real; Max_id : Index; begin if Start_Col < Final_Col then for i in Start_Col .. Final_Col-1 loop Max_Eig := Eigenvals(i); Max_id := i; for j in i+1 .. Final_Col loop if Eigenvals(j) > Max_Eig then Max_Eig := Eigenvals(j); Max_id := j; end if; end loop; -- swap i with Max_id: Swap (Eigenvals(i), Eigenvals(Max_id)); if Sort_Eigvecs_Also then for r in Start_Col .. Final_Col loop Swap (Q(r, i), Q(r, Max_id)); end loop; end if; end loop; end if; end Sort_Eigs; ---------- -- Norm -- ---------- function Norm (Q : in Col_Vector; Starting_Col : in Index := Index'First; Final_Col : in Index := Index'Last) return Real is Max : Real := Zero; Sum, tst : Real := Zero; Scale_Factor : Real := One; Scaled : Boolean := False; Scale_Exp : Integer; Max_Exp : constant Integer := Real'Machine_Emax - 8; Sqrt_Max_Allowed_Real : constant Real := Two**(Max_Exp / 2); Min_Exp : constant Integer := Real'Machine_Emin + 8; Sqrt_Min_Allowed_Real : constant Real := Two**(Min_Exp / 2); begin for i in Starting_Col .. Final_Col loop tst := Abs (Q(i)); if tst > Max then Max := tst; end if; end loop; if Max > Sqrt_Max_Allowed_Real then Scale_Exp := Integer'Min (Real'Exponent (Max), Real'Machine_Emax-4); Scale_Factor := Two**(-Scale_Exp); Scaled := True; end if; if Max < Sqrt_Min_Allowed_Real then Scale_Exp := Integer'Max (Real'Exponent (Max), Real'Machine_Emin+4); Scale_Factor := Two**(-Scale_Exp); Scaled := True; end if; if Scaled then for k in Starting_Col .. Final_Col loop Sum := Sum + (Scale_Factor * Q(k))**2; end loop; else for k in Starting_Col .. Final_Col loop Sum := Sum + Q(k)**2; end loop; end if; if Scaled then return Sqrt (Abs Sum) * Two**Scale_Exp; else return Sqrt (Abs Sum); end if; end Norm; --------------------- -- Eigen_Decompose -- --------------------- procedure Eigen_Decompose (A : in out Matrix; Q : out Matrix; Eigenvals : out Col_Vector; Start_Col : in Index := Index'First; Final_Col : in Index := Index'Last; Eigenvectors_Desired : in Boolean := False) is Shift, e1, e2 : Real; N : constant Integer := Integer (Final_Col) - Integer (Start_Col) + 1; Min_Exp : constant Integer := Real'Machine_Emin; Min_Allowed_Real : constant Real := 2.0 ** (Min_Exp - Min_Exp/32); begin -- Q starts as Identity; is rotated into set of Eigenvectors of A. Q := (others => (others => Zero)); for j in Index loop Q(j,j) := One; end loop; Eigenvals := (others => Zero); -- A_tridiag = Q_tr * A_true * Q. -- -- A_true = Q * A_tridiag * Q_tr Tridi.Tridiagonalize (A => A, -- A = A_true is replaced with: A_tridiag Q => Q, -- A_true = Q * A_tridiag * Q_tr Starting_Col => Start_Col, Final_Col => Final_Col, Initial_Q => Q, Q_Matrix_Desired => Eigenvectors_Desired); -- A is now in Upper_Hessenberg form, thanks to Q: -- -- A_true = Q A Q' = Q A_tridiag Q' -- -- Procedure Upper_Hessenberg initialized "out" parameter Q as the new Z_r. -- for i in reverse Start_Col+1 .. Final_Col loop Iterate: for iter_id in 0 .. 30 + N / 4 loop -- 15 iters is very rare if Abs A(i,i-1) < Min_Allowed_Real then A(i,i-1) := Zero; A(i-1,i) := Zero; end if; --if Abs A(i,i-1) = Zero then -- text_io.put(integer'image(iter_id)); exit; --end if; exit Iterate when Abs A(i,i-1) = Zero; Quadratic_Eigs (a => A(i-1,i-1), b => A(i,i-1), c => A(i,i), Eig_Val_1 => e1, Eig_Val_2 => e2); if Abs(e2-A(i,i))<Abs(e1-A(i,i)) then Shift:=e2; else Shift:=e1; end if; Tridi.Lower_Diagonal_QR_Iteration (A => A, Q => Q, Shift => Shift, --Final_Shift_Col => Final_Col, Final_Shift_Col => i, -- short cut, hardly matters Starting_Col => Start_Col, Final_Col => Final_Col, Q_Matrix_Desired => Eigenvectors_Desired); end loop iterate; end loop; -- Eigenvectors of A are returned as the Columns of matrix Q. -- -- so Q_tr * A * Q = D = Diagonal_Eigs -- -- so Q * D * Q_tr = A = Original Matrix for i in Index range Start_Col .. Final_Col loop Eigenvals(i) := A(i,i); end loop; end Eigen_Decompose; end QR_Symmetric_Eigen;
with Ada.Text_Io; with Ada.Strings.Unbounded; use Ada.Strings.Unbounded; procedure Sort_Composite is type Composite_Record is record Name : Unbounded_String; Value : Unbounded_String; end record; type Pairs_Array is array(Positive range <>) of Composite_Record; procedure Swap(Left, Right : in out Composite_Record) is Temp : Composite_Record := Left; begin Left := Right; Right := Temp; end Swap; -- Sort_Names uses a bubble sort procedure Sort_Name(Pairs : in out Pairs_Array) is Swap_Performed : Boolean := True; begin while Swap_Performed loop Swap_Performed := False; for I in Pairs'First..(Pairs'Last - 1) loop if Pairs(I).Name > Pairs(I + 1).Name then Swap (Pairs(I), Pairs(I + 1)); Swap_Performed := True; end if; end loop; end loop; end Sort_Name; procedure Print(Item : Pairs_Array) is begin for I in Item'range loop Ada.Text_Io.Put_Line(To_String(Item(I).Name) & ", " & to_String(Item(I).Value)); end loop; end Print; type Names is (Fred, Barney, Wilma, Betty, Pebbles); type Values is (Home, Work, Cook, Eat, Bowl); My_Pairs : Pairs_Array(1..5); begin for I in My_Pairs'range loop My_Pairs(I).Name := To_Unbounded_String(Names'Image(Names'Val(Integer(I - 1)))); My_Pairs(I).Value := To_Unbounded_String(Values'Image(Values'Val(Integer(I - 1)))); end loop; Print(My_Pairs); Ada.Text_Io.Put_Line("========================="); Sort_Name(My_Pairs); Print(My_Pairs); end Sort_Composite;
with Ada.Text_IO, Ada.Numerics.Discrete_Random; -- can play human-human, human-computer, computer-human or computer-computer -- the computer isn't very clever: it just chooses a legal random move procedure Tic_Tac_Toe is type The_Range is range 1 .. 3; type Board_Type is array (The_Range, The_Range) of Character; package Rand is new Ada.Numerics.Discrete_Random(The_Range); Gen: Rand.Generator; -- required for the random moves procedure Show_Board(Board: Board_Type) is use Ada.Text_IO; begin for Row in The_Range loop for Column in The_Range loop Put(Board(Row, Column)); end loop; Put_Line(""); end loop; Put_Line(""); end Show_Board; function Find_Winner(Board: Board_Type) return Character is -- if 'x' or 'o' wins, it returns that, else it returns ' ' function Three_Equal(A,B,C: Character) return Boolean is begin return (A=B) and (A=C); end Three_Equal; begin -- Find_Winner for I in The_Range loop if Three_Equal(Board(I,1), Board(I,2), Board(I,3)) then return Board(I,1); elsif Three_Equal(Board(1,I), Board(2,I), Board(3,I)) then return Board(1,I); end if; end loop; if Three_Equal(Board(1,1), Board(2,2), Board (3,3)) or Three_Equal(Board(3,1), Board(2,2), Board (1,3)) then return Board(2,2); end if; return ' '; end Find_Winner; procedure Do_Move(Board: in out Board_Type; New_Char: Character; Computer_Move: Boolean) is Done: Boolean := False; C: Character; use Ada.Text_IO; procedure Do_C_Move(Board: in out Board_Type; New_Char: Character) is Found: Boolean := False; X,Y: The_Range; begin while not Found loop X := Rand.Random(Gen); Y := Rand.Random(Gen); if (Board(X,Y) /= 'x') and (Board(X,Y) /= 'o') then Found := True; Board(X,Y) := New_Char; end if; end loop; end Do_C_Move; begin if Computer_Move then Do_C_Move(Board, New_Char); else -- read move; Put_Line("Choose your move, " & New_Char); while not Done loop Get(C); for Row in The_Range loop for Col in The_Range loop if Board(Row, Col) = C then Board(Row, Col) := New_Char; Done := True; end if; end loop; end loop; end loop; end if; end Do_Move; The_Board : Board_Type := (('1','2','3'), ('4','5','6'), ('7','8','9')); Cnt_Moves: Natural := 0; Players: array(0 .. 1) of Character := ('x', 'o'); -- 'x' begins C_Player: array(0 .. 1) of Boolean := (False, False); Reply: Character; begin -- Tic_Tac_Toe -- firstly, ask whether the computer shall take over either player for I in Players'Range loop Ada.Text_IO.Put_Line("Shall " & Players(I) & " be run by the computer? (y=yes)"); Ada.Text_IO.Get(Reply); if Reply='y' or Reply='Y' then C_Player(I) := True; Ada.Text_IO.Put_Line("Yes!"); else Ada.Text_IO.Put_Line("No!"); end if; end loop; Rand.Reset(Gen); -- to initalize the random generator -- now run the game while (Find_Winner(The_Board) = ' ') and (Cnt_Moves < 9) loop Show_Board(The_Board); Do_Move(The_Board, Players(Cnt_Moves mod 2), C_Player(Cnt_Moves mod 2)); Cnt_Moves := Cnt_Moves + 1; end loop; Ada.Text_IO.Put_Line("This is the end!"); -- finally, output the outcome Show_Board (The_Board); if Find_Winner(The_Board) = ' ' then Ada.Text_IO.Put_Line("Draw"); else Ada.Text_IO.Put_Line("The winner is: " & Find_Winner(The_Board)); end if; end Tic_Tac_Toe;
------------------------------------------------------------------------------ -- -- -- GNU ADA RUN-TIME LIBRARY (GNARL) COMPONENTS -- -- -- -- S Y S T E M . T A S K I N G . P R O T E C T E D _ O B J E C T S . -- -- O P E R A T I O N S -- -- -- -- B o d y -- -- -- -- $Revision$ -- -- -- Copyright (C) 1991-2001, Florida State University -- -- -- -- GNARL is free software; you can redistribute it and/or modify it under -- -- terms of the GNU General Public License as published by the Free Soft- -- -- ware Foundation; either version 2, or (at your option) any later ver- -- -- sion. GNARL is distributed in the hope that it will be useful, but WITH- -- -- OUT ANY WARRANTY; without even the implied warranty of MERCHANTABILITY -- -- or FITNESS FOR A PARTICULAR PURPOSE. See the GNU General Public License -- -- for more details. You should have received a copy of the GNU General -- -- Public License distributed with GNARL; see file COPYING. If not, write -- -- to the Free Software Foundation, 59 Temple Place - Suite 330, Boston, -- -- MA 02111-1307, USA. -- -- -- -- As a special exception, if other files instantiate generics from this -- -- unit, or you link this unit with other files to produce an executable, -- -- this unit does not by itself cause the resulting executable to be -- -- covered by the GNU General Public License. This exception does not -- -- however invalidate any other reasons why the executable file might be -- -- covered by the GNU Public License. -- -- -- -- GNARL was developed by the GNARL team at Florida State University. It is -- -- now maintained by Ada Core Technologies Inc. in cooperation with Florida -- -- State University (http://www.gnat.com). -- -- -- ------------------------------------------------------------------------------ -- This package contains all the extended primitives related to -- Protected_Objects with entries. -- The handling of protected objects with no entries is done in -- System.Tasking.Protected_Objects, the simple routines for protected -- objects with entries in System.Tasking.Protected_Objects.Entries. -- The split between Entries and Operations is needed to break circular -- dependencies inside the run time. -- This package contains all primitives related to Protected_Objects. -- Note: the compiler generates direct calls to this interface, via Rtsfind. with Ada.Exceptions; -- Used for Exception_ID -- Null_Id -- Raise_Exception with System.Task_Primitives.Operations; -- used for Initialize_Lock -- Write_Lock -- Unlock -- Get_Priority -- Wakeup with System.Tasking.Entry_Calls; -- used for Wait_For_Completion -- Wait_Until_Abortable with System.Tasking.Initialization; -- Used for Defer_Abort, -- Undefer_Abort, -- Change_Base_Priority pragma Elaborate_All (System.Tasking.Initialization); -- This insures that tasking is initialized if any protected objects are -- created. with System.Tasking.Queuing; -- used for Enqueue -- Broadcast_Program_Error -- Select_Protected_Entry_Call -- Onqueue -- Count_Waiting with System.Tasking.Rendezvous; -- used for Task_Do_Or_Queue with System.Tasking.Debug; -- used for Trace package body System.Tasking.Protected_Objects.Operations is package STPO renames System.Task_Primitives.Operations; use Task_Primitives; use Tasking; use Ada.Exceptions; use Entries; ----------------------- -- Local Subprograms -- ----------------------- procedure Update_For_Queue_To_PO (Entry_Call : Entry_Call_Link; With_Abort : Boolean); pragma Inline (Update_For_Queue_To_PO); -- Update the state of an existing entry call to reflect -- the fact that it is being enqueued, based on -- whether the current queuing action is with or without abort. -- Call this only while holding the PO's lock. -- It returns with the PO's lock still held. --------------------------------- -- Cancel_Protected_Entry_Call -- --------------------------------- -- Compiler interface only. Do not call from within the RTS. -- This should have analogous effect to Cancel_Task_Entry_Call, -- setting the value of Block.Cancelled instead of returning -- the parameter value Cancelled. -- The effect should be idempotent, since the call may already -- have been dequeued. -- source code: -- select r.e; -- ...A... -- then abort -- ...B... -- end select; -- expanded code: -- declare -- X : protected_entry_index := 1; -- B80b : communication_block; -- _init_proc (B80b); -- begin -- begin -- A79b : label -- A79b : declare -- procedure _clean is -- begin -- if enqueued (B80b) then -- cancel_protected_entry_call (B80b); -- end if; -- return; -- end _clean; -- begin -- protected_entry_call (rTV!(r)._object'unchecked_access, X, -- null_address, asynchronous_call, B80b, objectF => 0); -- if enqueued (B80b) then -- ...B... -- end if; -- at end -- _clean; -- end A79b; -- exception -- when _abort_signal => -- abort_undefer.all; -- null; -- end; -- if not cancelled (B80b) then -- x := ...A... -- end if; -- end; -- If the entry call completes after we get into the abortable part, -- Abort_Signal should be raised and ATC will take us to the at-end -- handler, which will call _clean. -- If the entry call returns with the call already completed, -- we can skip this, and use the "if enqueued()" to go past -- the at-end handler, but we will still call _clean. -- If the abortable part completes before the entry call is Done, -- it will call _clean. -- If the entry call or the abortable part raises an exception, -- we will still call _clean, but the value of Cancelled should not matter. -- Whoever calls _clean first gets to decide whether the call -- has been "cancelled". -- Enqueued should be true if there is any chance that the call -- is still on a queue. It seems to be safe to make it True if -- the call was Onqueue at some point before return from -- Protected_Entry_Call. -- Cancelled should be true iff the abortable part completed -- and succeeded in cancelling the entry call before it completed. -- ????? -- The need for Enqueued is less obvious. -- The "if enqueued()" tests are not necessary, since both -- Cancel_Protected_Entry_Call and Protected_Entry_Call must -- do the same test internally, with locking. The one that -- makes cancellation conditional may be a useful heuristic -- since at least 1/2 the time the call should be off-queue -- by that point. The other one seems totally useless, since -- Protected_Entry_Call must do the same check and then -- possibly wait for the call to be abortable, internally. -- We can check Call.State here without locking the caller's mutex, -- since the call must be over after returning from Wait_For_Completion. -- No other task can access the call record at this point. procedure Cancel_Protected_Entry_Call (Block : in out Communication_Block) is begin Entry_Calls.Try_To_Cancel_Entry_Call (Block.Cancelled); end Cancel_Protected_Entry_Call; --------------- -- Cancelled -- --------------- function Cancelled (Block : Communication_Block) return Boolean is begin return Block.Cancelled; end Cancelled; ------------------------- -- Complete_Entry_Body -- ------------------------- procedure Complete_Entry_Body (Object : Protection_Entries_Access) is begin Exceptional_Complete_Entry_Body (Object, Ada.Exceptions.Null_Id); end Complete_Entry_Body; -------------- -- Enqueued -- -------------- function Enqueued (Block : Communication_Block) return Boolean is begin return Block.Enqueued; end Enqueued; ------------------------------------- -- Exceptional_Complete_Entry_Body -- ------------------------------------- procedure Exceptional_Complete_Entry_Body (Object : Protection_Entries_Access; Ex : Ada.Exceptions.Exception_Id) is Entry_Call : constant Entry_Call_Link := Object.Call_In_Progress; begin pragma Debug (Debug.Trace (STPO.Self, "Exceptional_Complete_Entry_Body", 'P')); -- We must have abort deferred, since we are inside -- a protected operation. if Entry_Call /= null then -- The call was not requeued. Entry_Call.Exception_To_Raise := Ex; -- ????? -- The caller should do the following, after return from this -- procedure, if Call_In_Progress /= null -- Write_Lock (Entry_Call.Self); -- Initialization.Wakeup_Entry_Caller (STPO.Self, Entry_Call, Done); -- Unlock (Entry_Call.Self); end if; end Exceptional_Complete_Entry_Body; -------------------- -- PO_Do_Or_Queue -- -------------------- procedure PO_Do_Or_Queue (Self_ID : Task_ID; Object : Protection_Entries_Access; Entry_Call : Entry_Call_Link; With_Abort : Boolean) is E : Protected_Entry_Index := Protected_Entry_Index (Entry_Call.E); New_Object : Protection_Entries_Access; Ceiling_Violation : Boolean; Barrier_Value : Boolean; begin -- When the Action procedure for an entry body returns, it is either -- completed (having called [Exceptional_]Complete_Entry_Body) or it -- is queued, having executed a requeue statement. Barrier_Value := Object.Entry_Bodies ( Object.Find_Body_Index (Object.Compiler_Info, E)). Barrier (Object.Compiler_Info, E); if Barrier_Value then -- Not abortable while service is in progress. if Entry_Call.State = Now_Abortable then Entry_Call.State := Was_Abortable; end if; Object.Call_In_Progress := Entry_Call; pragma Debug (Debug.Trace (Self_ID, "PODOQ: start entry body", 'P')); Object.Entry_Bodies ( Object.Find_Body_Index (Object.Compiler_Info, E)).Action ( Object.Compiler_Info, Entry_Call.Uninterpreted_Data, E); if Object.Call_In_Progress /= null then -- Body of current entry served call to completion Object.Call_In_Progress := null; Initialization.Wakeup_Entry_Caller (Self_ID, Entry_Call, Done); else -- Body of current entry requeued the call New_Object := To_Protection (Entry_Call.Called_PO); if New_Object = null then -- Call was requeued to a task if not Rendezvous.Task_Do_Or_Queue (Self_ID, Entry_Call, With_Abort => Entry_Call.Requeue_With_Abort) then Queuing.Broadcast_Program_Error (Self_ID, Object, Entry_Call); end if; return; end if; if Object /= New_Object then -- Requeue is on a different object Lock_Entries (New_Object, Ceiling_Violation); if Ceiling_Violation then Object.Call_In_Progress := null; Queuing.Broadcast_Program_Error (Self_ID, Object, Entry_Call); else PO_Do_Or_Queue (Self_ID, New_Object, Entry_Call, With_Abort); PO_Service_Entries (Self_ID, New_Object); Unlock_Entries (New_Object); end if; else -- Requeue is on same protected object if Entry_Call.Requeue_With_Abort and then Entry_Call.Cancellation_Attempted then -- If this is a requeue with abort and someone tried -- to cancel this call, cancel it at this point. Entry_Call.State := Cancelled; return; end if; if not With_Abort or else Entry_Call.Mode /= Conditional_Call then E := Protected_Entry_Index (Entry_Call.E); Queuing.Enqueue (New_Object.Entry_Queues (E), Entry_Call); Update_For_Queue_To_PO (Entry_Call, With_Abort); else -- ????? -- Can we convert this recursion to a loop? PO_Do_Or_Queue (Self_ID, New_Object, Entry_Call, With_Abort); end if; end if; end if; elsif Entry_Call.Mode /= Conditional_Call or else not With_Abort then Queuing.Enqueue (Object.Entry_Queues (E), Entry_Call); Update_For_Queue_To_PO (Entry_Call, With_Abort); else -- Conditional_Call and With_Abort STPO.Write_Lock (Entry_Call.Self); pragma Assert (Entry_Call.State >= Was_Abortable); Initialization.Wakeup_Entry_Caller (Self_ID, Entry_Call, Cancelled); STPO.Unlock (Entry_Call.Self); end if; exception when others => Queuing.Broadcast_Program_Error (Self_ID, Object, Entry_Call); end PO_Do_Or_Queue; ------------------------ -- PO_Service_Entries -- ------------------------ procedure PO_Service_Entries (Self_ID : Task_ID; Object : Protection_Entries_Access) is Entry_Call : Entry_Call_Link; E : Protected_Entry_Index; Caller : Task_ID; New_Object : Protection_Entries_Access; Ceiling_Violation : Boolean; begin loop Queuing.Select_Protected_Entry_Call (Self_ID, Object, Entry_Call); if Entry_Call /= null then E := Protected_Entry_Index (Entry_Call.E); -- Not abortable while service is in progress. if Entry_Call.State = Now_Abortable then Entry_Call.State := Was_Abortable; end if; Object.Call_In_Progress := Entry_Call; begin pragma Debug (Debug.Trace (Self_ID, "POSE: start entry body", 'P')); Object.Entry_Bodies ( Object.Find_Body_Index (Object.Compiler_Info, E)).Action ( Object.Compiler_Info, Entry_Call.Uninterpreted_Data, E); exception when others => Queuing.Broadcast_Program_Error (Self_ID, Object, Entry_Call); end; if Object.Call_In_Progress /= null then Object.Call_In_Progress := null; Caller := Entry_Call.Self; STPO.Write_Lock (Caller); Initialization.Wakeup_Entry_Caller (Self_ID, Entry_Call, Done); STPO.Unlock (Caller); else -- Call needs to be requeued New_Object := To_Protection (Entry_Call.Called_PO); if New_Object = null then -- Call is to be requeued to a task entry if not Rendezvous.Task_Do_Or_Queue (Self_ID, Entry_Call, With_Abort => Entry_Call.Requeue_With_Abort) then Queuing.Broadcast_Program_Error (Self_ID, Object, Entry_Call); end if; else -- Call should be requeued to a PO if Object /= New_Object then -- Requeue is to different PO Lock_Entries (New_Object, Ceiling_Violation); if Ceiling_Violation then Object.Call_In_Progress := null; Queuing.Broadcast_Program_Error (Self_ID, Object, Entry_Call); else PO_Do_Or_Queue (Self_ID, New_Object, Entry_Call, Entry_Call.Requeue_With_Abort); PO_Service_Entries (Self_ID, New_Object); Unlock_Entries (New_Object); end if; else -- Requeue is to same protected object -- ??? Try to compensate apparent failure of the -- scheduler on some OS (e.g VxWorks) to give higher -- priority tasks a chance to run (see CXD6002). STPO.Yield (False); if Entry_Call.Requeue_With_Abort and then Entry_Call.Cancellation_Attempted then -- If this is a requeue with abort and someone tried -- to cancel this call, cancel it at this point. Entry_Call.State := Cancelled; exit; end if; if not Entry_Call.Requeue_With_Abort or else Entry_Call.Mode /= Conditional_Call then E := Protected_Entry_Index (Entry_Call.E); Queuing.Enqueue (New_Object.Entry_Queues (E), Entry_Call); Update_For_Queue_To_PO (Entry_Call, Entry_Call.Requeue_With_Abort); else PO_Do_Or_Queue (Self_ID, New_Object, Entry_Call, Entry_Call.Requeue_With_Abort); end if; end if; end if; end if; else exit; end if; end loop; end PO_Service_Entries; --------------------- -- Protected_Count -- --------------------- function Protected_Count (Object : Protection_Entries'Class; E : Protected_Entry_Index) return Natural is begin return Queuing.Count_Waiting (Object.Entry_Queues (E)); end Protected_Count; -------------------------- -- Protected_Entry_Call -- -------------------------- -- Compiler interface only. Do not call from within the RTS. -- select r.e; -- ...A... -- else -- ...B... -- end select; -- declare -- X : protected_entry_index := 1; -- B85b : communication_block; -- _init_proc (B85b); -- begin -- protected_entry_call (rTV!(r)._object'unchecked_access, X, -- null_address, conditional_call, B85b, objectF => 0); -- if cancelled (B85b) then -- ...B... -- else -- ...A... -- end if; -- end; -- See also Cancel_Protected_Entry_Call for code expansion of -- asynchronous entry call. -- The initial part of this procedure does not need to lock the -- the calling task's ATCB, up to the point where the call record -- first may be queued (PO_Do_Or_Queue), since before that no -- other task will have access to the record. -- If this is a call made inside of an abort deferred region, -- the call should be never abortable. -- If the call was not queued abortably, we need to wait -- until it is before proceeding with the abortable part. -- There are some heuristics here, just to save time for -- frequently occurring cases. For example, we check -- Initially_Abortable to try to avoid calling the procedure -- Wait_Until_Abortable, since the normal case for async. -- entry calls is to be queued abortably. -- Another heuristic uses the Block.Enqueued to try to avoid -- calling Cancel_Protected_Entry_Call if the call can be -- served immediately. procedure Protected_Entry_Call (Object : Protection_Entries_Access; E : Protected_Entry_Index; Uninterpreted_Data : System.Address; Mode : Call_Modes; Block : out Communication_Block) is Self_ID : Task_ID := STPO.Self; Entry_Call : Entry_Call_Link; Initially_Abortable : Boolean; Ceiling_Violation : Boolean; begin pragma Debug (Debug.Trace (Self_ID, "Protected_Entry_Call", 'P')); if Self_ID.ATC_Nesting_Level = ATC_Level'Last then Raise_Exception (Storage_Error'Identity, "not enough ATC nesting levels"); end if; Initialization.Defer_Abort (Self_ID); Lock_Entries (Object, Ceiling_Violation); if Ceiling_Violation then -- Failed ceiling check Initialization.Undefer_Abort (Self_ID); raise Program_Error; end if; Block.Self := Self_ID; Self_ID.ATC_Nesting_Level := Self_ID.ATC_Nesting_Level + 1; pragma Debug (Debug.Trace (Self_ID, "PEC: entered ATC level: " & ATC_Level'Image (Self_ID.ATC_Nesting_Level), 'A')); Entry_Call := Self_ID.Entry_Calls (Self_ID.ATC_Nesting_Level)'Access; Entry_Call.Next := null; Entry_Call.Mode := Mode; Entry_Call.Cancellation_Attempted := False; if Self_ID.Deferral_Level > 1 then Entry_Call.State := Never_Abortable; else Entry_Call.State := Now_Abortable; end if; Entry_Call.E := Entry_Index (E); Entry_Call.Prio := STPO.Get_Priority (Self_ID); Entry_Call.Uninterpreted_Data := Uninterpreted_Data; Entry_Call.Called_PO := To_Address (Object); Entry_Call.Called_Task := null; Entry_Call.Exception_To_Raise := Ada.Exceptions.Null_Id; PO_Do_Or_Queue (Self_ID, Object, Entry_Call, With_Abort => True); Initially_Abortable := Entry_Call.State = Now_Abortable; PO_Service_Entries (Self_ID, Object); Unlock_Entries (Object); -- Try to prevent waiting later (in Cancel_Protected_Entry_Call) -- for completed or cancelled calls. (This is a heuristic, only.) if Entry_Call.State >= Done then -- Once State >= Done it will not change any more. Self_ID.ATC_Nesting_Level := Self_ID.ATC_Nesting_Level - 1; pragma Debug (Debug.Trace (Self_ID, "PEC: exited to ATC level: " & ATC_Level'Image (Self_ID.ATC_Nesting_Level), 'A')); Block.Enqueued := False; Block.Cancelled := Entry_Call.State = Cancelled; Initialization.Undefer_Abort (Self_ID); Entry_Calls.Check_Exception (Self_ID, Entry_Call); return; else -- In this case we cannot conclude anything, -- since State can change concurrently. null; end if; -- Now for the general case. if Mode = Asynchronous_Call then -- Try to avoid an expensive call. if not Initially_Abortable then Entry_Calls.Wait_Until_Abortable (Self_ID, Entry_Call); end if; elsif Mode < Asynchronous_Call then -- Simple_Call or Conditional_Call STPO.Write_Lock (Self_ID); Entry_Calls.Wait_For_Completion (Self_ID, Entry_Call); STPO.Unlock (Self_ID); Block.Cancelled := Entry_Call.State = Cancelled; else pragma Assert (False); null; end if; Initialization.Undefer_Abort (Self_ID); Entry_Calls.Check_Exception (Self_ID, Entry_Call); end Protected_Entry_Call; ---------------------------- -- Protected_Entry_Caller -- ---------------------------- function Protected_Entry_Caller (Object : Protection_Entries'Class) return Task_ID is begin return Object.Call_In_Progress.Self; end Protected_Entry_Caller; ----------------------------- -- Requeue_Protected_Entry -- ----------------------------- -- Compiler interface only. Do not call from within the RTS. -- entry e when b is -- begin -- b := false; -- ...A... -- requeue e2; -- end e; -- procedure rPT__E10b (O : address; P : address; E : -- protected_entry_index) is -- type rTVP is access rTV; -- freeze rTVP [] -- _object : rTVP := rTVP!(O); -- begin -- declare -- rR : protection renames _object._object; -- vP : integer renames _object.v; -- bP : boolean renames _object.b; -- begin -- b := false; -- ...A... -- requeue_protected_entry (rR'unchecked_access, rR' -- unchecked_access, 2, false, objectF => 0, new_objectF => -- 0); -- return; -- end; -- complete_entry_body (_object._object'unchecked_access, objectF => -- 0); -- return; -- exception -- when others => -- abort_undefer.all; -- exceptional_complete_entry_body (_object._object' -- unchecked_access, current_exception, objectF => 0); -- return; -- end rPT__E10b; procedure Requeue_Protected_Entry (Object : Protection_Entries_Access; New_Object : Protection_Entries_Access; E : Protected_Entry_Index; With_Abort : Boolean) is Entry_Call : constant Entry_Call_Link := Object.Call_In_Progress; begin pragma Debug (Debug.Trace (STPO.Self, "Requeue_Protected_Entry", 'P')); pragma Assert (STPO.Self.Deferral_Level > 0); Entry_Call.E := Entry_Index (E); Entry_Call.Called_PO := To_Address (New_Object); Entry_Call.Called_Task := null; Entry_Call.Requeue_With_Abort := With_Abort; Object.Call_In_Progress := null; end Requeue_Protected_Entry; ------------------------------------- -- Requeue_Task_To_Protected_Entry -- ------------------------------------- -- Compiler interface only. -- accept e1 do -- ...A... -- requeue r.e2; -- end e1; -- A79b : address; -- L78b : label -- begin -- accept_call (1, A79b); -- ...A... -- requeue_task_to_protected_entry (rTV!(r)._object' -- unchecked_access, 2, false, new_objectF => 0); -- goto L78b; -- <<L78b>> -- complete_rendezvous; -- exception -- when all others => -- exceptional_complete_rendezvous (get_gnat_exception); -- end; procedure Requeue_Task_To_Protected_Entry (New_Object : Protection_Entries_Access; E : Protected_Entry_Index; With_Abort : Boolean) is Self_ID : constant Task_ID := STPO.Self; Entry_Call : constant Entry_Call_Link := Self_ID.Common.Call; begin Initialization.Defer_Abort (Self_ID); STPO.Write_Lock (Self_ID); Entry_Call.Needs_Requeue := True; Entry_Call.Requeue_With_Abort := With_Abort; Entry_Call.Called_PO := To_Address (New_Object); Entry_Call.Called_Task := null; STPO.Unlock (Self_ID); Entry_Call.E := Entry_Index (E); Initialization.Undefer_Abort (Self_ID); end Requeue_Task_To_Protected_Entry; -- ?????? -- Do we really need to lock Self_ID above? -- Might the caller be trying to cancel? -- If so, it should fail, since the call state should not be -- abortable while the call is in service. --------------------- -- Service_Entries -- --------------------- procedure Service_Entries (Object : Protection_Entries_Access) is Self_ID : constant Task_ID := STPO.Self; begin PO_Service_Entries (Self_ID, Object); end Service_Entries; -------------------------------- -- Timed_Protected_Entry_Call -- -------------------------------- -- Compiler interface only. Do not call from within the RTS. procedure Timed_Protected_Entry_Call (Object : Protection_Entries_Access; E : Protected_Entry_Index; Uninterpreted_Data : System.Address; Timeout : Duration; Mode : Delay_Modes; Entry_Call_Successful : out Boolean) is Self_ID : Task_ID := STPO.Self; Entry_Call : Entry_Call_Link; Ceiling_Violation : Boolean; begin if Self_ID.ATC_Nesting_Level = ATC_Level'Last then Raise_Exception (Storage_Error'Identity, "not enough ATC nesting levels"); end if; Initialization.Defer_Abort (Self_ID); Lock_Entries (Object, Ceiling_Violation); if Ceiling_Violation then Initialization.Undefer_Abort (Self_ID); raise Program_Error; end if; Self_ID.ATC_Nesting_Level := Self_ID.ATC_Nesting_Level + 1; pragma Debug (Debug.Trace (Self_ID, "TPEC: exited to ATC level: " & ATC_Level'Image (Self_ID.ATC_Nesting_Level), 'A')); Entry_Call := Self_ID.Entry_Calls (Self_ID.ATC_Nesting_Level)'Access; Entry_Call.Next := null; Entry_Call.Mode := Timed_Call; Entry_Call.Cancellation_Attempted := False; if Self_ID.Deferral_Level > 1 then Entry_Call.State := Never_Abortable; else Entry_Call.State := Now_Abortable; end if; Entry_Call.E := Entry_Index (E); Entry_Call.Prio := STPO.Get_Priority (Self_ID); Entry_Call.Uninterpreted_Data := Uninterpreted_Data; Entry_Call.Called_PO := To_Address (Object); Entry_Call.Called_Task := null; Entry_Call.Exception_To_Raise := Ada.Exceptions.Null_Id; PO_Do_Or_Queue (Self_ID, Object, Entry_Call, With_Abort => True); PO_Service_Entries (Self_ID, Object); Unlock_Entries (Object); -- Try to avoid waiting for completed or cancelled calls. if Entry_Call.State >= Done then Self_ID.ATC_Nesting_Level := Self_ID.ATC_Nesting_Level - 1; pragma Debug (Debug.Trace (Self_ID, "TPEC: exited to ATC level: " & ATC_Level'Image (Self_ID.ATC_Nesting_Level), 'A')); Entry_Call_Successful := Entry_Call.State = Done; Initialization.Undefer_Abort (Self_ID); Entry_Calls.Check_Exception (Self_ID, Entry_Call); return; end if; Entry_Calls.Wait_For_Completion_With_Timeout (Self_ID, Entry_Call, Timeout, Mode); Initialization.Undefer_Abort (Self_ID); Entry_Call_Successful := Entry_Call.State = Done; Entry_Calls.Check_Exception (Self_ID, Entry_Call); end Timed_Protected_Entry_Call; ---------------------------- -- Update_For_Queue_To_PO -- ---------------------------- -- Update the state of an existing entry call, based on -- whether the current queuing action is with or without abort. -- Call this only while holding the server's lock. -- It returns with the server's lock released. New_State : constant array (Boolean, Entry_Call_State) of Entry_Call_State := (True => (Never_Abortable => Never_Abortable, Not_Yet_Abortable => Now_Abortable, Was_Abortable => Now_Abortable, Now_Abortable => Now_Abortable, Done => Done, Cancelled => Cancelled), False => (Never_Abortable => Never_Abortable, Not_Yet_Abortable => Not_Yet_Abortable, Was_Abortable => Was_Abortable, Now_Abortable => Now_Abortable, Done => Done, Cancelled => Cancelled) ); procedure Update_For_Queue_To_PO (Entry_Call : Entry_Call_Link; With_Abort : Boolean) is Old : Entry_Call_State := Entry_Call.State; begin pragma Assert (Old < Done); Entry_Call.State := New_State (With_Abort, Entry_Call.State); if Entry_Call.Mode = Asynchronous_Call then if Old < Was_Abortable and then Entry_Call.State = Now_Abortable then STPO.Write_Lock (Entry_Call.Self); if Entry_Call.Self.Common.State = Async_Select_Sleep then STPO.Wakeup (Entry_Call.Self, Async_Select_Sleep); end if; STPO.Unlock (Entry_Call.Self); end if; elsif Entry_Call.Mode = Conditional_Call then pragma Assert (Entry_Call.State < Was_Abortable); null; end if; end Update_For_Queue_To_PO; end System.Tasking.Protected_Objects.Operations;
-- C32107A.ADA -- Grant of Unlimited Rights -- -- Under contracts F33600-87-D-0337, F33600-84-D-0280, MDA903-79-C-0687, -- F08630-91-C-0015, and DCA100-97-D-0025, the U.S. Government obtained -- unlimited rights in the software and documentation contained herein. -- Unlimited rights are defined in DFAR 252.227-7013(a)(19). By making -- this public release, the Government intends to confer upon all -- recipients unlimited rights equal to those held by the Government. -- These rights include rights to use, duplicate, release or disclose the -- released technical data and computer software in whole or in part, in -- any manner and for any purpose whatsoever, and to have or permit others -- to do so. -- -- DISCLAIMER -- -- ALL MATERIALS OR INFORMATION HEREIN RELEASED, MADE AVAILABLE OR -- DISCLOSED ARE AS IS. THE GOVERNMENT MAKES NO EXPRESS OR IMPLIED -- WARRANTY AS TO ANY MATTER WHATSOEVER, INCLUDING THE CONDITIONS OF THE -- SOFTWARE, DOCUMENTATION OR OTHER INFORMATION RELEASED, MADE AVAILABLE -- OR DISCLOSED, OR THE OWNERSHIP, MERCHANTABILITY, OR FITNESS FOR A -- PARTICULAR PURPOSE OF SAID MATERIAL. --* -- CHECK THAT OBJECT DECLARATIONS ARE ELABORATED IN THE ORDER OF THEIR -- OCCURRENCE, I.E., THAT EXPRESSIONS ASSOCIATED WITH ONE DECLARATION -- (INCLUDING DEFAULT EXPRESSIONS, IF APPROPRIATE) ARE EVALUATED BEFORE -- ANY EXPRESSION BELONGING TO THE NEXT DECLARATION. ALSO, CHECK THAT -- EXPRESSIONS IN THE SUBTYPE INDICATION OR THE CONSTRAINED ARRAY -- DEFINITION ARE EVALUATED BEFORE ANY INITIALIZATION EXPRESSIONS ARE -- EVALUATED. -- R.WILLIAMS 9/24/86 WITH REPORT; USE REPORT; PROCEDURE C32107A IS BUMP : INTEGER := 0; ORDER_CHECK : INTEGER; G1, H1, I1 : INTEGER; FIRST_CALL : BOOLEAN := TRUE; TYPE ARR1 IS ARRAY (POSITIVE RANGE <>) OF INTEGER; TYPE ARR1_NAME IS ACCESS ARR1; TYPE ARR2 IS ARRAY (POSITIVE RANGE <>, POSITIVE RANGE <>) OF INTEGER; TYPE REC (D : INTEGER) IS RECORD COMP : INTEGER; END RECORD; TYPE REC_NAME IS ACCESS REC; FUNCTION F RETURN INTEGER IS BEGIN BUMP := BUMP + 1; RETURN BUMP; END F; FUNCTION G RETURN INTEGER IS BEGIN BUMP := BUMP + 1; G1 := BUMP; RETURN BUMP; END G; FUNCTION H RETURN INTEGER IS BEGIN BUMP := BUMP + 1; H1 := BUMP; RETURN BUMP; END H; FUNCTION I RETURN INTEGER IS BEGIN IF FIRST_CALL THEN BUMP := BUMP + 1; I1 := BUMP; FIRST_CALL := FALSE; END IF; RETURN I1; END I; BEGIN TEST ( "C32107A", "CHECK THAT OBJECT DECLARATIONS ARE " & "ELABORATED IN THE ORDER OF THEIR " & "OCCURRENCE, I.E., THAT EXPRESSIONS " & "ASSOCIATED WITH ONE DECLARATION (INCLUDING " & "DEFAULT EXPRESSIONS, IF APPROPRIATE) ARE " & "EVALUATED BEFORE ANY EXPRESSION BELONGING " & "TO THE NEXT DECLARATION. ALSO, CHECK THAT " & "EXPRESSIONS IN THE SUBTYPE INDICATION OR " & "THE CONSTRAINED ARRAY DEFINITION ARE " & "EVALUATED BEFORE ANY INITIALIZATION " & "EXPRESSIONS ARE EVALUATED" ); DECLARE -- (A). I1 : INTEGER := 10000 * F; A1 : CONSTANT ARRAY (1 .. H) OF REC (G * 100) := (1 .. H1 => (G1 * 100, I * 10)); I2 : CONSTANT INTEGER := F * 1000; BEGIN ORDER_CHECK := I1 + I2 + A1'LAST + A1 (1).D + A1 (1).COMP; IF ORDER_CHECK = 15243 OR ORDER_CHECK = 15342 THEN COMMENT ( "ORDER_CHECK HAS VALUE " & INTEGER'IMAGE (ORDER_CHECK) & " - (A)" ); ELSE FAILED ( "OBJECTS NOT ELABORATED IN PROPER ORDER " & "VALUE OF ORDER_CHECK SHOULD BE 15343 OR " & "15242 -- ACTUAL VALUE IS " & INTEGER'IMAGE (ORDER_CHECK) & " - (A)" ); END IF; END; -- (A). BUMP := 0; DECLARE -- (B). A : ARR2 (1 .. F, 1 .. F * 10); R : REC (G * 100) := (G1 * 100, F * 1000); I : INTEGER RANGE 1 .. H; S : REC (F * 10); BEGIN ORDER_CHECK := A'LAST (1) + A'LAST (2) + R.D + R.COMP; IF (H1 + S.D = 65) AND (ORDER_CHECK = 4321 OR ORDER_CHECK = 4312) THEN COMMENT ( "ORDER_CHECK HAS VALUE 65 " & INTEGER'IMAGE (ORDER_CHECK) & " - (B)" ); ELSE FAILED ( "OBJECTS NOT ELABORATED IN PROPER ORDER " & "VALUE OF ORDER_CHECK SHOULD BE 65 4321 OR " & "65 4312 -- ACTUAL VALUE IS " & INTEGER'IMAGE (H1 + S.D) & INTEGER'IMAGE (ORDER_CHECK) & " - (B)" ); END IF; END; -- (B). BUMP := 0; DECLARE -- (C). I1 : CONSTANT INTEGER RANGE 1 .. G * 10 := F; A1 : ARRAY (1 .. F * 100) OF INTEGER RANGE 1 .. H * 1000; BEGIN ORDER_CHECK := I1 + (G1 * 10) + A1'LAST + (H1 * 1000); IF ORDER_CHECK = 4312 OR ORDER_CHECK = 3412 THEN COMMENT ( "ORDER_CHECK HAS VALUE " & INTEGER'IMAGE (ORDER_CHECK) & " - (C)" ); ELSE FAILED ( "OBJECTS NOT ELABORATED IN PROPER ORDER " & "VALUE OF ORDER_CHECK SHOULD BE 4312 OR " & "3412 -- ACTUAL VALUE IS " & INTEGER'IMAGE (ORDER_CHECK) & " - (C)" ); END IF; END; -- (C). BUMP := 0; FIRST_CALL := TRUE; DECLARE -- (D). A1 : ARRAY (1 .. G) OF REC (H * 10000) := (1 .. G1 => (H1 * 10000, I * 100)); R1 : CONSTANT REC := (F * 1000, F * 10); BEGIN ORDER_CHECK := A1'LAST + A1 (1).D + A1 (1).COMP + R1.D + R1.COMP; IF ORDER_CHECK = 25341 OR ORDER_CHECK = 24351 OR ORDER_CHECK = 15342 OR ORDER_CHECK = 14352 THEN COMMENT ( "ORDER_CHECK HAS VALUE " & INTEGER'IMAGE (ORDER_CHECK) & " - (D)" ); ELSE FAILED ( "OBJECTS NOT ELABORATED IN PROPER ORDER " & "VALUE OF ORDER_CHECK SHOULD BE 25341, " & "24351, 15342 OR 14352 -- ACTUAL VALUE IS " & INTEGER'IMAGE (ORDER_CHECK) & " - (D)" ); END IF; END; -- (D). BUMP := 0; DECLARE -- (E). A1 : CONSTANT ARR1_NAME := NEW ARR1' (1 .. F => F * 10); R1 : REC_NAME (H * 100) := NEW REC'(H1 * 100, F * 1000); BEGIN ORDER_CHECK := A1.ALL'LAST + A1.ALL (1) + R1.D + R1.COMP; IF ORDER_CHECK /= 4321 THEN FAILED ( "OBJECTS NOT ELABORATED IN PROPER ORDER " & "VALUE OF ORDER_CHECK SHOULD BE 4321 " & "-- ACTUAL VALUE IS " & INTEGER'IMAGE (ORDER_CHECK) & " - (E)" ); END IF; END; -- (E). BUMP := 0; FIRST_CALL := TRUE; DECLARE -- (F). A1 : CONSTANT ARRAY (1 .. G) OF INTEGER RANGE 1 .. H * 100 := (1 .. G1 => I * 10); A2 : ARR1 (1 .. F * 1000); BEGIN ORDER_CHECK := A1'LAST + (H1 * 100) + A1 (1) + A2'LAST; IF ORDER_CHECK = 4231 OR ORDER_CHECK = 4132 THEN COMMENT ( "ORDER_CHECK HAS VALUE " & INTEGER'IMAGE (ORDER_CHECK) & " - (F)" ); ELSE FAILED ( "OBJECTS NOT ELABORATED IN PROPER ORDER " & "VALUE OF ORDER_CHECK SHOULD BE 4231 OR " & "4132 -- ACTUAL VALUE IS " & INTEGER'IMAGE (ORDER_CHECK) & " - (F)" ); END IF; END; -- (F). BUMP := 0; DECLARE -- (G). A1 : ARR1_NAME (1 .. G) := NEW ARR1 (1 .. G1); R1 : CONSTANT REC_NAME (H * 10) := NEW REC'(H1 * 10, F * 100); BEGIN ORDER_CHECK := A1.ALL'LAST + R1.D + R1.COMP; IF ORDER_CHECK /= 321 THEN FAILED ( "OBJECTS NOT ELABORATED IN PROPER ORDER " & "VALUE OF ORDER_CHECK SHOULD BE 321 OR " & "-- ACTUAL VALUE IS " & INTEGER'IMAGE (ORDER_CHECK) & " - (G)" ); END IF; END; -- (G). BUMP := 0; DECLARE -- (H). TYPE REC (D : INTEGER := F) IS RECORD COMP : INTEGER := F * 10; END RECORD; R1 : REC; R2 : REC (G * 100) := (G1 * 100, F * 1000); BEGIN ORDER_CHECK := R1.D + R1.COMP + R2.D + R2.COMP; IF ORDER_CHECK = 4321 OR ORDER_CHECK = 4312 OR ORDER_CHECK = 3421 OR ORDER_CHECK = 3412 THEN COMMENT ( "ORDER_CHECK HAS VALUE " & INTEGER'IMAGE (ORDER_CHECK) & " - (H)" ); ELSE FAILED ( "OBJECTS NOT ELABORATED IN PROPER ORDER " & "VALUE OF ORDER_CHECK SHOULD BE 4321, " & "4312, 3421, OR 3412 -- ACTUAL VALUE IS " & INTEGER'IMAGE (ORDER_CHECK) & " - (H)" ); END IF; END; -- (H). BUMP := 0; DECLARE -- (I). TYPE REC2 (D1, D2 : INTEGER) IS RECORD COMP : INTEGER; END RECORD; R1 : REC2 (G * 1000, H * 10000) := (G1 * 1000, H1 * 10000, F * 100); R2 : REC2 (F, F * 10); BEGIN ORDER_CHECK := R1.D1 + R1.D2 + R1.COMP + R2.D1 + R2.D2; IF ORDER_CHECK = 21354 OR ORDER_CHECK = 21345 OR ORDER_CHECK = 12345 OR ORDER_CHECK = 12354 THEN COMMENT ( "ORDER_CHECK HAS VALUE " & INTEGER'IMAGE (ORDER_CHECK) & " - (I)" ); ELSE FAILED ( "OBJECTS NOT ELABORATED IN PROPER ORDER " & "VALUE OF ORDER_CHECK SHOULD BE 21354, " & "21345, 12354, OR 12345 -- ACTUAL VALUE IS " & INTEGER'IMAGE (ORDER_CHECK) & " - (I)" ); END IF; END; -- (I). BUMP := 0; DECLARE -- (J). PACKAGE P IS TYPE PRIV (D : INTEGER) IS PRIVATE; P1 : CONSTANT PRIV; P2 : CONSTANT PRIV; FUNCTION GET_A (P : PRIV) RETURN INTEGER; PRIVATE TYPE PRIV (D : INTEGER) IS RECORD COMP : INTEGER; END RECORD; P1 : CONSTANT PRIV := (F , F * 10); P2 : CONSTANT PRIV := (F * 100, F * 1000); END P; PACKAGE BODY P IS FUNCTION GET_A (P : PRIV) RETURN INTEGER IS BEGIN RETURN P.COMP; END GET_A; END P; USE P; BEGIN ORDER_CHECK := P1.D + GET_A (P1) + P2.D + GET_A (P2); IF ORDER_CHECK = 4321 OR ORDER_CHECK = 4312 OR ORDER_CHECK = 3412 OR ORDER_CHECK = 3421 THEN COMMENT ( "ORDER_CHECK HAS VALUE " & INTEGER'IMAGE (ORDER_CHECK) & " - (J)" ); ELSE FAILED ( "OBJECTS NOT ELABORATED IN PROPER ORDER " & "VALUE OF ORDER_CHECK SHOULD BE 4321, " & "4312, 3421, OR 3412 -- ACTUAL VALUE IS " & INTEGER'IMAGE (ORDER_CHECK) & " - (J)" ); END IF; END; -- (J). BUMP := 0; DECLARE -- (K). PACKAGE P IS TYPE PRIV (D1, D2 : INTEGER) IS PRIVATE; PRIVATE TYPE PRIV (D1, D2 : INTEGER) IS RECORD NULL; END RECORD; END P; USE P; P1 : PRIV (F, F * 10); P2 : PRIV (F * 100, F * 1000); BEGIN ORDER_CHECK := P1.D1 + P1.D2 + P2.D1 + P2.D2; IF ORDER_CHECK = 4321 OR ORDER_CHECK = 4312 OR ORDER_CHECK = 3412 OR ORDER_CHECK = 3421 THEN COMMENT ( "ORDER_CHECK HAS VALUE " & INTEGER'IMAGE (ORDER_CHECK) & " - (K)" ); ELSE FAILED ( "OBJECTS NOT ELABORATED IN PROPER ORDER " & "VALUE OF ORDER_CHECK SHOULD BE 4321, 4312, " & "3421, OR 3412 -- ACTUAL VALUE IS " & INTEGER'IMAGE (ORDER_CHECK) & " - (K)" ); END IF; END; -- (K). RESULT; END C32107A;
-- { dg-do compile } with Limited_With4_Pkg; package body Limited_With4 is procedure Proc1 (A : Limited_With4_Pkg.Rec12 ; I : Integer) is begin if A.R.I /= I then raise Program_Error; end if; end; function Func1 (I : Integer) return Limited_With4_Pkg.Rec12 is begin return (I => I, R => (I => I)); end; procedure Proc2 (A : Limited_With4_Pkg.Rec22 ; I : Integer) is begin if A.R.I /= I then raise Program_Error; end if; end; function Func2 (I : Integer) return Limited_With4_Pkg.Rec22 is begin return (I => I, R => (I => I)); end; procedure Proc3 (A : Limited_With4_Pkg.Rec12 ; B : Limited_With4_Pkg.Rec22) is begin if A.R.I /= B.R.I then raise Program_Error; end if; end; function Func3 (A : Limited_With4_Pkg.Rec12) return Limited_With4_Pkg.Rec22 is begin return (I => A.R.I, R => (I => A.R.I)); end; end Limited_With4;
------------------------------------------------------------------------------- -- Copyright (c) 2019, Daniel King -- All rights reserved. -- -- Redistribution and use in source and binary forms, with or without -- modification, are permitted provided that the following conditions are met: -- * Redistributions of source code must retain the above copyright -- notice, this list of conditions and the following disclaimer. -- * Redistributions in binary form must reproduce the above copyright -- notice, this list of conditions and the following disclaimer in the -- documentation and/or other materials provided with the distribution. -- * The name of the copyright holder may not be used to endorse or promote -- Products derived from this software without specific prior written -- permission. -- -- THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS "AS IS" -- AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE -- IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE -- ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT HOLDER BE LIABLE FOR ANY -- DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES -- (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; -- LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND -- ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT -- (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF -- THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. ------------------------------------------------------------------------------- with Ada.Containers.Doubly_Linked_Lists; with Ada.Containers.Indefinite_Doubly_Linked_Lists; with Ada.Containers.Indefinite_Hashed_Maps; with Ada.Containers.Hashed_Maps; with Ada.Finalization; use Ada.Finalization; with Ada.Strings.Unbounded; use Ada.Strings.Unbounded; with Ada.Strings.Unbounded.Hash; with Keccak.Types; package Test_Vectors is type Byte_Array_Access is access Keccak.Types.Byte_Array; type Value_Type is (String_Type, Integer_Type, Hex_Array_Type); type Value_Choice (VType : Value_Type) is new Ada.Finalization.Controlled with record case VType is when String_Type => Str : Unbounded_String; when Integer_Type => Int : Integer; when Hex_Array_Type => Hex : Byte_Array_Access; end case; end record; procedure Initialize (Object : in out Value_Choice); procedure Adjust (Object : in out Value_Choice); procedure Finalize (Object : in out Value_Choice); package Value_Choice_Lists is new Ada.Containers.Indefinite_Doubly_Linked_Lists (Element_Type => Value_Choice, "=" => "="); type Schema_Entry is record VType : Value_Type := Integer_Type; Required : Boolean := True; Is_List : Boolean := False; end record; package Schema_Maps is new Ada.Containers.Hashed_Maps (Key_Type => Unbounded_String, Element_Type => Schema_Entry, Hash => Ada.Strings.Unbounded.Hash, Equivalent_Keys => "=", "=" => "="); -- Maps test vector keys to their required types. package Test_Vector_Maps is new Ada.Containers.Indefinite_Hashed_Maps (Key_Type => Unbounded_String, Element_Type => Value_Choice_Lists.List, Hash => Ada.Strings.Unbounded.Hash, Equivalent_Keys => "=", "=" => Value_Choice_Lists."="); -- Stores all information relating to a single test vector. -- For example, the line: MD = 00112233 from the test vector file -- will be stored in the map with the key "MD" and the value "00112233" -- as a byte array or string (depending on the schema). package Lists is new Ada.Containers.Doubly_Linked_Lists (Element_Type => Test_Vector_Maps.Map, "=" => Test_Vector_Maps."="); -- A list of test vectors. function Hex_String_To_Byte_Array (Str : in String) return Byte_Array_Access; -- Convert a string of hex characters to a byte array. -- -- E.g. a string "01afBC" is converted to the array (16#01#, 16#AF#, 16#BC#) function String_To_Byte_Array (Str : in String) return Byte_Array_Access; -- Convert a string to its byte array representation. -- -- This is just a conversion of each Character to its Byte representation. function Byte_Array_To_String (Data : in Keccak.Types.Byte_Array) return String; -- Convert a byte array to a hex string representation. procedure Load (File_Name : in String; Schema : in Schema_Maps.Map; Vectors_List : out Lists.List); -- Load test vectors from a file. -- -- A test vector is in the form: Key = Value where the Value may optionally -- have quotes " around it. -- -- For example: -- Len = 17 -- Msg = 4FF400 -- MD = 94D5B162A324674454BBADB377375DA15C3BE74225D346010AE557A9 -- -- Test vectors should be separated by a blank line, but is not mandatory -- provided that each test vector has the same keys. -- -- Comments appear on their own line and start with the '#' character. -- -- The schema defines which Keys are expected, the required type of the -- corresponding Value. Schema_Error : exception; end Test_Vectors;
------------------------------------------------------------------------------ -- -- -- Ada User Repository Annex (AURA) -- -- ANNEXI-STRAYLINE Reference Implementation -- -- -- -- ------------------------------------------------------------------------ -- -- -- -- Copyright (C) 2020, ANNEXI-STRAYLINE Trans-Human Ltd. -- -- All rights reserved. -- -- -- -- Original Contributors: -- -- * Richard Wai (ANNEXI-STRAYLINE) -- -- -- -- Redistribution and use in source and binary forms, with or without -- -- modification, are permitted provided that the following conditions are -- -- met: -- -- -- -- * Redistributions of source code must retain the above copyright -- -- notice, this list of conditions and the following disclaimer. -- -- -- -- * Redistributions in binary form must reproduce the above copyright -- -- notice, this list of conditions and the following disclaimer in -- -- the documentation and/or other materials provided with the -- -- distribution. -- -- -- -- * Neither the name of the copyright holder nor the names of its -- -- contributors may be used to endorse or promote products derived -- -- from this software without specific prior written permission. -- -- -- -- THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS -- -- "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT -- -- LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A -- -- PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT -- -- OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, -- -- SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT -- -- LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, -- -- DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY -- -- THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT -- -- (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE -- -- OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. -- -- -- ------------------------------------------------------------------------------ with Ada.Strings; with Ada.Strings.Unbounded; with Ada.Containers.Vectors; with Ada.Exceptions; with Ada.Environment_Variables; with Ada.Directories; package body Child_Processes.Path_Searching is procedure Not_Found_Error (Program: String) with Inline, No_Return is begin raise Not_In_Path with "Program """ & Program & """ was not found in PATH."; end; ----------------- -- Search_Path -- ----------------- function Search_Path (Program: String) return String is use Ada.Strings.Unbounded; package ENV renames Ada.Environment_Variables; package Path_Vectors is new Ada.Containers.Vectors (Index_Type => Positive, Element_Type => Unbounded_String); Path_List: Path_Vectors.Vector; begin -- Parse the PATH environment varaible - a colon-separated list declare use Ada.Strings; PATH: Unbounded_String; First: Positive := 1; Last : Natural := 1; begin if not ENV.Exists ("PATH") then raise Not_In_Path with "PATH environment variable not set."; end if; Set_Unbounded_String (Target => PATH, Source => ENV.Value ("PATH")); while First <= Length (PATH) loop Last := Index (Source => PATH, Pattern => ":", From => First); if Last < First then Last := Length (PATH); elsif Last = First then raise Not_In_Path with "PATH format error."; else Last := Last - 1; end if; Path_List.Append (Unbounded_Slice (Source => PATH, Low => First, High => Last)); First := Last + 2; end loop; end; declare use Ada.Directories; Ordinary_Files: constant Filter_Type := (Ordinary_File => True, others => False); Search: Search_Type; Match : Directory_Entry_Type; begin -- Search through the paths in order for Path of Path_List loop -- We don't want an exception raised if the indiciated path of -- the PATH environment variable is not a valid path, we just -- want to skip it if Exists (To_String (Path)) then Start_Search (Search => Search, Directory => To_String (Path), Pattern => Program, Filter => Ordinary_Files); if More_Entries (Search) then -- We have a match Get_Next_Entry (Search => Search, Directory_Entry => Match); return Full_Name (Match); end if; -- Otherwise try the next directory end if; end loop; end; -- If we get here, we didn't find it Not_Found_Error (Program); exception when Not_In_Path => raise; when e: others => raise Not_In_Path with "Unable to execute path search due to an exception: " & Ada.Exceptions.Exception_Information (e); end Search_Path; -- -- Elaboration_Path_Search -- ---------------- -- Initialize -- ---------------- function Initialize (Program: aliased String) return Elaboration_Path_Search is use Image_Path_Strings; begin return Search: Elaboration_Path_Search (Program'Access) do Search.Result := To_Bounded_String (Search_Path (Program)); exception when Ada.Directories.Name_Error => Search.Result := Null_Bounded_String; when Ada.Strings.Length_Error => raise Ada.Strings.Length_Error with "Full path for program""" & Program & """ is too long. Child_Processes.Path_Searching must " & "be modified."; end return; end Initialize; ----------- -- Found -- ----------- function Found (Search: Elaboration_Path_Search) return Boolean is use Image_Path_Strings; begin return Length (Search.Result) > 0; end; ---------------- -- Image_Path -- ---------------- function Image_Path (Search: Elaboration_Path_Search) return String is use Image_Path_Strings; begin if not Found (Search) then Not_Found_Error (Search.Program.all); else return To_String (Search.Result); end if; end Image_Path; end Child_Processes.Path_Searching;
-- ----------------------------------------------------------------- -- -- -- -- This is free software; you can redistribute it and/or -- -- modify it under the terms of the GNU General Public -- -- License as published by the Free Software Foundation; either -- -- version 2 of the License, or (at your option) any later version. -- -- -- -- This software is distributed in the hope that it will be useful, -- -- but WITHOUT ANY WARRANTY; without even the implied warranty of -- -- MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU -- -- General Public License for more details. -- -- -- -- You should have received a copy of the GNU General Public -- -- License along with this library; if not, write to the -- -- Free Software Foundation, Inc., 59 Temple Place - Suite 330, -- -- Boston, MA 02111-1307, USA. -- -- -- -- ----------------------------------------------------------------- -- -- ----------------------------------------------------------------- -- -- This is a translation, to the Ada programming language, of the -- -- original C test files written by Sam Lantinga - www.libsdl.org -- -- translation made by Antonio F. Vargas - www.adapower.net/~avargas -- -- ----------------------------------------------------------------- -- with Ada.Text_IO; use Ada.Text_IO; with SDL.Active; with SDL.Mouse; with SDL.Keysym; with SDL_Framebuffer; package body Testwm_Sprogs is package It renames Interfaces; package A renames SDL.Active; use type A.Active_State; package Ks renames SDL.Keysym; use type Ks.Key; use type Ks.SDLMod; use type C.int; use type V.Surface_Flags; use type V.Surface_ptr; use type V.Palette_ptr; use type V.GrabMode; package Fb renames SDL_Framebuffer; package M renames SDL.Mouse; use type M.Mouse_Button_State; visible : C.int := 1; -- ============================================= procedure LoadIconSurface ( file : in string; maskp : in out Icon_Mask_Array_Access; icon : out V.Surface_ptr) is use type Interfaces.Unsigned_8; mlen : C.int; i : Integer; pixels : Fb.Framebuffer_8bPointer; use V.Color_PtrOps; begin -- Load the icon surface icon := V.LoadBMP (file); if icon = null then Put_Line ("Couldn't load " & file & Er.Get_Error); return; end if; -- Check width and height if icon.w mod 8 /= 0 then Put_Line ("Icon width must be a multiple of 8!"); V.FreeSurface (icon); icon := null; return; end if; if icon.format.palette = null then Put_Line ("Icon must have a palette!"); V.FreeSurface (icon); icon := null; return; end if; -- Set the colorkey V.SetColorKey (icon, V.SRCCOLORKEY, Fb.Get_Framebuffer (icon).all); -- Create the mask pixels := Fb.Get_Framebuffer (icon); Put_Line ("Transparent pixel: (" & Uint8'Image (Fb.Get_Palette_Red (icon, pixels.all)) & "," & Uint8'Image (Fb.Get_Palette_Green (icon, pixels.all)) & "," & Uint8'Image (Fb.Get_Palette_Blue (icon, pixels.all)) & ")"); mlen := icon.w * icon.h; maskp := new V.Icon_Mask_Array(0 .. Integer(mlen/8 - 1)); maskp.all := (others => 0); i := 0; while i < Integer (mlen) loop if Fb.Go_Right_Unchecked (pixels, i).all /= pixels.all then maskp (i / 8) := Uint8 ( It.Unsigned_8 (maskp (i / 8)) or 16#01#); end if; i := i + 1; if i mod 8 /= 0 then maskp (i / 8) := Shift_Left (maskp (i / 8), 1); end if; end loop; end LoadIconSurface; -- ============================================= procedure HotKey_ToggleFullScreen is screen : V.Surface_ptr; begin screen := V.GetVideoSurface; if V.WM_ToggleFullScreen (screen) /= 0 then Put ("Toggled fullscreen mode - now "); if (screen.flags and V.FULLSCREEN) /= 0 then Put_Line ("fullscreen"); else Put_Line ("windowed"); end if; else Put_Line ("Unable to toggle fullscreen mode"); end if; end HotKey_ToggleFullScreen; -- ============================================= procedure HotKey_ToggleGrab is mode : V.GrabMode; begin Put_Line ("Ctrl-G: toggling input grab!"); mode := V.WM_GrabInput (V.GRAB_QUERY); if mode = V.GRAB_ON then Put_Line ("Grab was on"); else Put_Line ("Grab was off"); end if; if mode /= 0 then mode := 0; else mode := 1; end if; mode := V.WM_GrabInput (mode); if mode = V.GRAB_ON then Put_Line ("Grab is now on"); else Put_Line ("Grab is now off"); end if; end HotKey_ToggleGrab; -- ============================================= procedure HotKey_Iconify is begin Put_Line ("Ctrl-Z: iconifying window!"); V.WM_IconifyWindow; end HotKey_Iconify; -- ============================================= procedure HotKey_Quit is event : Ev.Event; begin Put_Line ("Posting internal quit request"); event.the_type := Ev.ISUSEREVENT; Ev.PushEvent (event); end HotKey_Quit; -- ============================================= reallyquit : C.int := 0; function FilterEvents (event : Ev.Event_ptr) return C.int is begin case event.the_type is when Ev.ISACTIVEEVENT => -- See what happened Put("App "); if event.active.gain /= 0 then Put ("gained "); else Put ("lost "); end if; if (event.active.state and A.APPACTIVE) /= 0 then Put ("active "); end if; if (event.active.state and A.APPMOUSEFOCUS) /= 0 then Put ("mouse "); end if; Put_Line ("focus"); -- See if we are iconified or restored if (event.active.state and A.APPACTIVE) /= 0 then Put ("App has been "); if event.active.gain /= 0 then Put_Line ("restored"); else Put_Line ("iconified"); end if; end if; return 0; -- We want to toggle visibility on buttonpress when Ev.MOUSEBUTTONDOWN | Ev.MOUSEBUTTONUP => if event.button.state = M.PRESSED then if visible /= 0 then visible := 0; else visible := 1; end if; M.ShowCursor (visible); end if; Put ("Mouse button " & Uint8'Image (event.button.button) & " has been"); if event.button.state = M.PRESSED then Put_Line (" pressed"); else Put_Line (" released"); end if; return 0; -- Show relative mouse motion when Ev.MOUSEMOTION => Put_Line ("Mouse relative motion: {" & Sint16'Image (event.motion.xrel) & ", " & Sint16'Image (event.motion.yrel) & "}"); return 0; when Ev.KEYDOWN => if event.key.keysym.sym = Ks.K_ESCAPE then HotKey_Quit; end if; if (event.key.keysym.sym = Ks.K_g) and ((event.key.keysym.the_mod and Ks.KMOD_CTRL) /= 0) then HotKey_ToggleGrab; end if; if (event.key.keysym.sym = Ks.K_z) and ((event.key.keysym.the_mod and Ks.KMOD_CTRL) /= 0) then HotKey_Iconify; end if; if (event.key.keysym.sym = Ks.K_RETURN) and ((event.key.keysym.the_mod and Ks.KMOD_ALT) /= 0) then HotKey_ToggleFullScreen; end if; return 0; -- this is important! Queue it if we want to quit. when Ev.QUIT => if reallyquit = 0 then reallyquit := 1; Put_Line ("Quit requested"); return 0; end if; Put_Line ("Quit demanded"); return 1; -- This will never happen because events queued directly -- to the event queue are not filtred. when Ev.ISUSEREVENT => return 1; -- Drop all other events when others => return 0; end case; end FilterEvents; end Testwm_Sprogs;
package body any_Math.any_Geometry is function Image (Self : in Triangle) return String is begin return "(" & Vertex_Id'Image (Self (1)) & "," & Vertex_Id'Image (Self (2)) & "," & Vertex_Id'Image (Self (3)) & ")"; end Image; function Image (Self : in Triangles) return String is Result : String (1 .. 1024); Last : Standard.Natural := 0; begin for Each in Self'Range loop declare Id_Image : constant String := Image (Self (Each)); begin Result (Last + 1 .. Last + Id_Image'Length) := Id_Image; Last := Last + Id_Image'Length; end; end loop; return Result (1 .. Last); exception when Constraint_Error => declare Ellipsis : constant String := " ..."; begin Result (Result'Last - ellipsis'Length + 1 .. Result'Last) := ellipsis; return Result (1 .. Last); end; end Image; function Image (Self : in Model) return String is begin return Self.Triangles.Image; end Image; function Image (Self : in Model_Triangles) return String is begin return "Triangle_Count =>" & standard.Positive'Image (Self.Triangle_Count) & Image (Self.Triangles); end Image; end any_Math.any_Geometry;
with any_Math.any_Analysis; package float_Math.Analysis is new float_Math.any_Analysis; pragma Pure (float_Math.Analysis);
with Ada.Numerics.Discrete_Random; function lanzar_dado (dado: in out Integer) return Integer is subtype rango is Integer range 1..6; package miRango is new Ada.Numerics.Discrete_Random(rango); semilla : miRango.generator; begin miRango.reset(semilla); dado:= miRango.random(semilla); return dado; end lanzar_dado;
-- Copyright (c) 2019 Maxim Reznik <reznikmm@gmail.com> -- -- SPDX-License-Identifier: MIT -- License-Filename: LICENSE ------------------------------------------------------------- with Program.Elements.Access_Types; with Program.Lexical_Elements; with Program.Elements.Subtype_Indications; package Program.Elements.Object_Access_Types is pragma Pure (Program.Elements.Object_Access_Types); type Object_Access_Type is limited interface and Program.Elements.Access_Types.Access_Type; type Object_Access_Type_Access is access all Object_Access_Type'Class with Storage_Size => 0; not overriding function Subtype_Indication (Self : Object_Access_Type) return not null Program.Elements.Subtype_Indications .Subtype_Indication_Access is abstract; not overriding function Has_Not_Null (Self : Object_Access_Type) return Boolean is abstract; not overriding function Has_All (Self : Object_Access_Type) return Boolean is abstract; not overriding function Has_Constant (Self : Object_Access_Type) return Boolean is abstract; type Object_Access_Type_Text is limited interface; type Object_Access_Type_Text_Access is access all Object_Access_Type_Text'Class with Storage_Size => 0; not overriding function To_Object_Access_Type_Text (Self : aliased in out Object_Access_Type) return Object_Access_Type_Text_Access is abstract; not overriding function Not_Token (Self : Object_Access_Type_Text) return Program.Lexical_Elements.Lexical_Element_Access is abstract; not overriding function Null_Token (Self : Object_Access_Type_Text) return Program.Lexical_Elements.Lexical_Element_Access is abstract; not overriding function Access_Token (Self : Object_Access_Type_Text) return not null Program.Lexical_Elements.Lexical_Element_Access is abstract; not overriding function All_Token (Self : Object_Access_Type_Text) return Program.Lexical_Elements.Lexical_Element_Access is abstract; not overriding function Constant_Token (Self : Object_Access_Type_Text) return Program.Lexical_Elements.Lexical_Element_Access is abstract; end Program.Elements.Object_Access_Types;
------------------------------------------------------------------------------ -- -- -- J E W L . M E S S A G E _ H A N D L I N G -- -- -- -- The body of a private package which defines the message-handling task -- -- required by JEWL.Windows, the protected record used to communicate -- -- with it, and related operations. -- -- -- -- Copyright (C) John English 2000. Contact address: je@brighton.ac.uk -- -- This software is released under the terms of the GNU General Public -- -- License and is intended primarily for educational use. Please contact -- -- the author to report bugs, suggestions and modifications. -- -- -- ------------------------------------------------------------------------------ -- $Id: jewl-message_handling.adb 1.7 2007/01/08 17:00:00 JE Exp $ ------------------------------------------------------------------------------ -- -- $Log: jewl-message_handling.adb $ -- Revision 1.7 2007/01/08 17:00:00 JE -- * Fixed linker options in JEWL.Win32_Interface to accommodate changes to GNAT -- GPL 2006 compiler (thanks to John McCormick for this) -- * Added delay in message loop to avoid the appearance of hogging 100% of CPU -- time -- -- Revision 1.6 2001/11/02 16:00:00 JE -- * Fixed canvas bug when saving an empty canvas -- * Restore with no prior save now acts as erase -- * Removed redundant variable declaration in Image function -- -- Revision 1.5 2001/08/22 15:00:00 JE -- * Minor bugfix to Get_Text for combo boxes -- * Minor changes to documentation (including new example involving dialogs) -- -- Revision 1.4 2001/01/25 09:00:00 je -- Changes visible to the user: -- -- * Added support for drawing bitmaps on canvases (Draw_Image operations -- and new type Image_Type) -- * Added Play_Sound -- * Added several new operations on all windows: Get_Origin, Get_Width, -- Get_Height, Set_Origin, Set_Size and Focus -- * Added several functions giving screen and window dimensions: Screen_Width, -- Screen_Height, Frame_Width, Frame_Height, Dialog_Width, Dialog_Height and -- Menu_Height -- * Canvases can now handle keyboard events: new constructor and Key_Code added -- * Added procedure Play_Sound -- * Operations "+" and "-" added for Point_Type -- * Pens can now be zero pixels wide -- * The absolute origin of a frame can now have be specified when the frame -- is created -- * Added new File_Dialog operations Add_Filter and Set_Directory -- * Added Get_Line renames to JEWL.IO for compatibility with Ada.Text_IO -- * Added all the Get(File,Item) operations mentioned in documentation but -- unaccountably missing :-( -- * Documentation updated to reflect the above changes -- * HTML versions of public package specifications added with links from -- main documentation pages -- -- Other internal changes: -- -- * Canvas fonts, pens etc. now use JEWL.Reference_Counted_Type rather than -- reinventing this particular wheel, as do images -- * Various minor code formatting changes: some code reordered for clarity, -- some comments added or amended, -- * Changes introduced in 1.2 to support GNAT 3.10 have been reversed, since -- GNAT 3.10 still couldn't compile this code correctly... ;-( -- -- Outstanding issues: -- -- * Optimisation breaks the code (workaround: don't optimise) -- -- Revision 1.3 2000/07/07 12:00:00 je -- * JEWL.Simple_Windows added; JEWL.IO modified to use JEWL.Simple_Windows. -- * JEWL.IO bug fix: Put_Line to file wrote newline to standard output -- instead of to the file (thanks to Jeff Carter for pointing this out). -- * Panels fixed so that mouse clicks are passed on correctly to subwindows. -- * Memos fixed so that tabs are handled properly. -- * Password feature added to editboxes. -- * Minor typos fixed in comments within the package sources. -- * Documentation corrected and updated following comments from Moti Ben-Ari -- and Don Overheu. -- -- Revision 1.2 2000/04/18 20:00:00 je -- * Minor code changes to enable compilation by GNAT 3.10 -- * Minor documentation errors corrected -- * Some redundant "with" clauses removed -- -- Revision 1.1 2000/04/09 21:00:00 je -- Initial revision -- ------------------------------------------------------------------------------ with Ada.Unchecked_Conversion; package body JEWL.Message_Handling is use JEWL.Window_Implementation; use JEWL.Win32_Interface; use Ada.Exceptions; use type System.Address; use type Win32_BOOL, Win32_DWORD, Win32_LONG, Win32_UINT; ----------------------------------------------------------------------------- -- Type conversions (needed below) ----------------------------------------------------------------------------- function To_Window_Ptr is new Ada.Unchecked_Conversion (Win32_LONG,Window_Ptr); function To_LONG is new Ada.Unchecked_Conversion (Window_Ptr,Win32_LONG); ---------------------------------------------------------------------------- -- -- W I N D O W _ I N F O -- ---------------------------------------------------------------------------- protected body Window_Info is -------------------------------------------------------------------------- -- -- Get_Command: block until a command is available (or the message loop -- has failed) and then return it. The command is also reset. -- Program_Error is raised if the message loop has failed. -- entry Get_Command (Cmd : out Natural) when Command /= 0 or Task_Failed is begin if Task_Failed then Raise_Exception (Program_Error'Identity, "caused by " & Exception_Name(Failure_Info) & ": " & Exception_Message(Failure_Info)); end if; Cmd := Command - WM_USER; Command := 0; end Get_Command; -------------------------------------------------------------------------- -- -- Test_Command: test if a command is pending. Program_Error is raised -- if the message loop task has failed. -- function Test_Command return Boolean is begin if Task_Failed then Raise_Exception (Program_Error'Identity, "caused by " & Exception_Name(Failure_Info) & ": " & Exception_Message(Failure_Info)); end if; return Command /= 0; end Test_Command; -------------------------------------------------------------------------- -- -- Set_Command: store the code for an available command. This is a -- procedure, not an entry, so the the message loop won't -- stall. If commands aren't handled in time, they'll be -- overwritten by the next one that comes along. -- procedure Set_Command (Cmd : in Natural) is begin Command := Cmd; end Set_Command; -------------------------------------------------------------------------- -- -- Get_Dialog: swap the handle of the current active window with the -- parameter (i.e. record the new handle and return the -- old one). -- procedure Get_Dialog (Dlg : in out Win32_HWND) is D : Win32_HWND := Dialog; begin Dialog := Dlg; Dlg := D; end Get_Dialog; -------------------------------------------------------------------------- -- -- Active_Window: get the handle of the current active window. -- function Active_Window return Win32_HWND is begin return Dialog; end Active_Window; -------------------------------------------------------------------------- -- -- Record_Error : record the occurrence of an exception which aborted -- the message loop task. -- procedure Record_Error (Err : in Ada.Exceptions.Exception_Occurrence) is begin Task_Failed := True; Ada.Exceptions.Save_Occurrence (Failure_Info, Err); end Record_Error; end Window_Info; ---------------------------------------------------------------------------- -- -- U T I L I T Y F U N C T I O N S -- ---------------------------------------------------------------------------- -- -- Get_Actual_Bounds: check if any bounds supplied are non-positive -- (i.e. relative to parent size) and recalculate -- the bounds if so. Resize is set True if any -- bounds have been updated. -- procedure Get_Actual_Bounds (Parent : in Win32_HWND; Top : in out Integer; Left : in out Integer; Width : in out Integer; Height : in out Integer; Resize : out Boolean) is R : aliased Win32_RECT; begin -- Do any bounds need recalculationg? Resize := Top < 0 or Left < 0 or Width <= 0 or Height <= 0; if Resize then -- Top-level windows take their bounds from the screen, child windows -- take them from their parent if Parent = System.Null_Address then R := (0, 0, Win32_LONG(GetSystemMetrics(SM_CXSCREEN)), Win32_LONG(GetSystemMetrics(SM_CYSCREEN))); else Bool_Dummy := GetClientRect (Parent, R'Unchecked_Access); end if; -- Recalculate left side relative to parent bounds if necessary if Left < 0 then Left := Left + Integer(R.Right); end if; -- Recalculate top relative to parent bounds if necessary if Top < 0 then Top := Top + Integer(R.Bottom); end if; -- Recalculate width relative to parent bounds if necessary if Width <= 0 then Width := Width + Integer(R.Right); end if; -- Recalculate height relative to parent bounds if necessary if Height <= 0 then Height := Height + Integer(R.Bottom); end if; end if; end Get_Actual_Bounds; ---------------------------------------------------------------------------- -- -- Build_Window: construct a top-level window of the specified class, -- with extended and normal styles as specified, and -- make the window visible or invisible as requested. -- procedure Build_Window (Window : in Main_Window_Ptr; Class : in Win32_String; Title : in Win32_String; XStyle : in Win32_DWORD; Style : in Win32_DWORD; Show : in Boolean) is S : Win32_DWORD := Style; begin -- Add the VISIBLE style if the window is to be shown if Show then S := S or WS_VISIBLE; end if; -- Create the window using the supplied parameters Window.Handle := CreateWindowEx (XStyle, To_LPCSTR(Class), To_LPCSTR(Title), S, Win32_INT(Window.Left), Win32_INT(Window.Top), Win32_INT(Window.Width), Win32_INT(Window.Height), System.Null_Address, System.Null_Address, Get_hInstance, Window.all'Address); -- Store a pointer to the Window_Internals in the user data area -- so that the message loop can find it Long_Dummy := SendMessage (Window.Handle, WM_SETFONT, To_WPARAM(Window.Font),0); -- Show or hide the window as requested if Show then Bool_Dummy := ShowWindow (Window.Handle, SW_SHOWNORMAL); else Bool_Dummy := ShowWindow (Window.Handle, SW_HIDE); end if; -- Mark the window for repainting Bool_Dummy := UpdateWindow (Window.Handle); end Build_Window; ---------------------------------------------------------------------------- -- -- Build_Child: build a child window attached to the specified parent -- belonging to the specified class, using the specified -- title (caption text) as appropriate. Use the specified -- extended styles and normal styles, and set the window -- dimensions (relative to the parent's client area). -- procedure Build_Child (Window : in Window_Ptr; Parent : in Container_Ptr; Class : in Win32_String; Title : in Win32_String; XStyle : in Win32_DWORD; Style : in Win32_DWORD; Top : in Integer; Left : in Integer; Width : in Integer; Height : in Integer) is W : Window_Ptr := Window; H : Win32_HWND; S : Win32_DWORD := Style; begin -- The parent window's Group flag determines whether the WS_GROUP style -- should be applied to the child control in case it isn't already set. if Parent.Group then S := S or WS_GROUP; end if; -- All child windows except radiobuttons have WS_GROUP set anyway; the -- first radiobutton in a group also needs it set, so record if it was -- already set in the requested style to ensure that it will be applied -- to the next control regardless. Parent.Group := (Style and WS_GROUP) /= 0; -- Create the window using the supplied parameters Window.Handle := CreateWindowEx (XStyle, To_LPCSTR(Class), To_LPCSTR(Title), S or WS_CHILD or WS_VISIBLE, Win32_INT(Left), Win32_INT(Top), Win32_INT(Width), Win32_INT(Height), Parent.Handle, To_Handle(Window.Action), Get_hInstance, System.Null_Address); -- Store a pointer to the Window_Internals in the user data area -- so that the message loop can find it Long_Dummy := SetWindowLong (Window.Handle, GWL_USERDATA, To_LONG(Window)); -- Scan the parent chain until a font is found if there isn't one -- for this window (i.e. Parent_Font has been used) while W.Font = System.Null_Address and W.Parent /= null loop W := Window_Ptr(W.Parent); end loop; -- If a font was found, select it if W.Font /= System.Null_Address then Long_Dummy := SendMessage (Window.Handle, WM_SETFONT, To_WPARAM(W.Font),0); end if; -- If this is a tabstop control (i.e. the tab key will activate it), -- find the top-level parent and check if it's the first tabstop in -- the window. If it is, give it the keyboard focus. The WM_ACTIVATE -- message handler will track it once it's been set. Don't explicitly -- set the focus unless the control is visible. if (Style and WS_TABSTOP) /= 0 then while W.Parent /= null loop W := Window_Ptr(W.Parent); -- climb the parent chain end loop; if Main_Window_Ptr(W).Focus = System.Null_Address then -- At this point, we know that this is the first tabstop control -- to be attached to the top-level window W. Record the fact, and -- focus on this window if it's visible. Main_Window_Ptr(W).Focus := Window.Handle; if IsWindowVisible(W.Handle) /= 0 then H := SetFocus (Window.Handle); -- set focus if visible end if; end if; end if; end Build_Child; ---------------------------------------------------------------------------- -- -- M E S S A G E _ L O O P -- -- This task drives the Windows message loop, and starts as soon as the -- package body is elaborated. It uses a global variable Frames to keep -- track of the number of top-level windows to allow it to terminate if -- there are no top-level windows open. The repetition of entry handlers -- is required because we need a terminate alternative (which rules out -- having an else part) and we also need to handle Windows messages (which -- must be done by the task that creates the windows, i.e. this one) which -- can only be done by checking for messages in an else part. -- ---------------------------------------------------------------------------- Frames : Integer := 0; -- a global variable used by the message loop -- to record the number of top-level windows. task body Message_Loop is M : aliased Win32_MSG; H : Win32_HWND; begin loop -- The following select statement is executed when there are no -- top level windows. The alternatives are to create a window, -- destroy a window, show a common dialog or to terminate. The -- destroy alternative is needed because the main window cleanup -- operation will call it if the window handle is still valid -- when the internal window structure is being finalized. select accept Create_Window (Window : in Main_Window_Ptr; Class : in Win32_String; Title : in Win32_String; XStyle : in Win32_DWORD; Style : in Win32_DWORD; Show : in Boolean) do Build_Window (Window, Class, Title, XStyle, Style, Show); Frames := Frames + 1; end Create_Window; or accept Destroy_Window (Handle : in Win32_HWND) do Bool_Dummy := DestroyWindow (Handle); end Destroy_Window; or accept Show_Dialog (Dialog : in Common_Dialog_Ptr; Result : out Boolean) do Result := Show_Dialog(Dialog); end Show_Dialog; or terminate; end select; -- Once the first top-level window has been created, this inner loop -- will accept requests to create top-level or child windows, to show -- common dialogs or to destroy windows. When there are no pending -- requests it will look to see if there is a pending Windows message -- and process it if so. The loop ends when the last top-level window -- is destroyed, which then takes us back to the top of the outer loop -- to wait for a top-level window to be created or destroyed, or a -- termination request. while Frames > 0 loop select accept Create_Child (Window : in Window_Ptr; Parent : in Container_Ptr; Class : in Win32_String; Title : in Win32_String; XStyle : in Win32_DWORD; Style : in Win32_DWORD; Top : in Integer; Left : in Integer; Width : in Integer; Height : in Integer) do Build_Child (Window, Parent, Class, Title, XStyle, Style, Top, Left, Width, Height); end Create_Child; or accept Create_Window (Window : in Main_Window_Ptr; Class : in Win32_String; Title : in Win32_String; XStyle : in Win32_DWORD; Style : in Win32_DWORD; Show : in Boolean) do Build_Window (Window, Class, Title, XStyle, Style, Show); Frames := Frames + 1; end Create_Window; or accept Set_Focus (Window : in Win32_HWND) do Long_Dummy := To_LONG (SetFocus(Window)); end Set_Focus; or accept Destroy_Window (Handle : in Win32_HWND) do Bool_Dummy := DestroyWindow (Handle); end Destroy_Window; or accept Show_Dialog (Dialog : in Common_Dialog_Ptr; Result : out Boolean) do Result := Show_Dialog(Dialog); end Show_Dialog; else -- If nothing else appeals: there is at least one window in -- existence, so try to pump any pending Windows messages while PeekMessage(M'Unchecked_Access, System.Null_Address, 0, 0, PM_REMOVE) /= 0 loop -- A message is pending, so find the top-level parent of the -- window it's aimed at H := M.hwnd; while GetParent(H) /= System.Null_Address loop H := GetParent(H); end loop; -- Now dispatch it in the classic Windows fashion, using the -- top-level window handle to ensure that dialog messages -- (TAB and other navigation keys) are translated before -- any other processing if IsDialogMessage (H, M'Unchecked_Access) = 0 then Bool_Dummy := TranslateMessage(M'Unchecked_Access); Long_Dummy := DispatchMessage(M'Unchecked_Access); end if; end loop; delay 0.001; -- to avoid hogging the CPU end select; end loop; end loop; exception when E : others => -- task failure Window_Info.Record_Error (E); end Message_Loop; ---------------------------------------------------------------------------- -- -- C A L L B A C K F U N C T I O N S -- -- These functions are called from the Windows message handler callbacks. -- -- Enable (Window, Active): enable or disable the specified window -- Resize (Window, unused): recalculate the size of the specified window -- ---------------------------------------------------------------------------- function Enable (Window : Win32_HWND; Active : Win32_LPARAM) return Win32_BOOL; pragma Convention(StdCall, Enable); function Resize (Window : Win32_HWND; unused : Win32_LPARAM) return Win32_BOOL; pragma Convention(StdCall, Resize); ---------------------------------------------------------------------------- -- -- Enable Window to the opposite of its current state -- function Enable (Window : Win32_HWND; Active : Win32_LPARAM) return Win32_BOOL is begin if Window /= Window_Info.Active_Window then Bool_Dummy := EnableWindow (Window, Boolean'Pos(Active=0)); end if; return 1; -- continue with next window end Enable; ---------------------------------------------------------------------------- -- -- Resize Window if necessary by reference to the size of its parent. -- function Resize (Window : Win32_HWND; unused : Win32_LPARAM) return Win32_BOOL is P : Window_Ptr; T : Integer; L : Integer; W : Integer; H : Integer; B : Boolean; X : Win32_LONG := GetWindowLong(Window,GWL_USERDATA); begin -- Not all windows will have been created by this library, but all that -- haven't will have their user data (now in X) set to zero. if X /= 0 then -- X is really a Window_Ptr if we reach this point P := To_Window_Ptr(X); -- Copy the original (relative) coordinates T := P.Top; L := P.Left; W := P.Width; H := P.Height; -- Convert them to absolute (parent-based) coordinates Get_Actual_Bounds (GetParent(Window), T, L, W, H, B); -- B will have been set true if any of T/L/W/H are relative coordinates -- and T/L/W/H will have been set to absolute (parent-based) values, so -- resize the window if necessary if B then Bool_Dummy := SetWindowPos(Window, System.Null_Address, Win32_INT(L), Win32_INT(T), Win32_INT(W), Win32_INT(H), SWP_NOZORDER); end if; end if; return 1; -- continue with next window end Resize; ---------------------------------------------------------------------------- -- -- F R A M E _ P R O C -- -- The Windows message handler callback for Frame_Type windows. -- ---------------------------------------------------------------------------- function Frame_Proc (hwnd : Win32_HWND; msg : Win32_UINT; wParam : Win32_WPARAM; lParam : Win32_LPARAM) return Win32_LONG is L : Win32_LONG := GetWindowLong(hwnd,GWL_USERDATA); P : Main_Window_Ptr := Main_Window_Ptr(To_Window_Ptr(L)); H : Win32_HWND; N : Natural; begin case msg is -- Frame creation: a pointer to the Window_Internals is passed -- in the CREATESTRUCT pointed to by lParam, so save this for -- later use in the user data area of the Windows data structure -- (retrieved into P, above, which will be zero until initialised). when WM_CREATE => L := To_LONG(To_CREATESTRUCT(lParam).lpCreateParams); Long_Dummy := SetWindowLong (hwnd, GWL_USERDATA, L); -- Frame activation or deactivation: save or restore the focused -- control for the next activation when WM_ACTIVATE => if (wParam and 16#FFFF#) /= 0 then -- activation H := SetFocus (P.Focus); elsif GetFocus /= System.Null_Address then -- deactivation P.Focus := GetFocus; end if; return 0; -- don't do anything else -- Frame closing: issue the command for this frame when WM_CLOSE => Window_Info.Set_Command (P.Action + WM_USER); -- Frame being destroyed: decrement the frame count and clear the -- window handle when WM_DESTROY => Frames := Frames - 1; -- Frame resized: resize all the child windows which have relative -- sizes or positions when WM_SIZE => Bool_Dummy := EnumChildWindows (hwnd, Resize'Access, 0); -- An action has occurred (command code in low 16 bits of wParam); -- issue a command code if it's in the appropriate range, or ignore -- it if not when WM_COMMAND => N := Natural(wParam and 16#FFFF#); if N in WM_USER .. 16#7FFF# then Window_Info.Set_Command (N); return 0; -- don't do anything else end if; -- Ignore all other messages when others => null; end case; -- Perform the default action for any messages that don't return before -- this point return DefWindowProc(hwnd, msg, wParam, lParam); end Frame_Proc; ---------------------------------------------------------------------------- -- -- D I A L O G _ P R O C -- -- The Windows message handler callback for Dialog_Type windows. -- ---------------------------------------------------------------------------- function Dialog_Proc (hwnd : Win32_HWND; msg : Win32_UINT; wParam : Win32_WPARAM; lParam : Win32_LPARAM) return Win32_LONG is P : Window_Ptr := To_Window_Ptr(GetWindowLong(hwnd,GWL_USERDATA)); H : Win32_HWND; begin case msg is -- Dialog deactivation: don't do anything more so that the current -- focused control isn't saved, and so the first control will get -- the focus the next time the dialog is activated when WM_ACTIVATE => if (wParam and 16#FFFF#) = 0 then return 0; -- don't do anything else end if; -- Dialog being shown/hidden: disable/enable all the other windows -- for this thread (i.e. this application), and set a new active -- window if the dialog is being hidden when WM_SHOWWINDOW => Bool_Dummy := EnumThreadWindows (GetCurrentThreadID, Enable'Access, Win32_LONG(wParam)); if wParam = 0 then H := SetActiveWindow(GetWindow(P.Handle,GW_HWNDNEXT)); end if; -- Dialog closing: don't close, just hide when WM_CLOSE => Bool_Dummy := ShowWindow (hwnd, SW_HIDE); Window_Info.Set_Command (P.Action + WM_USER); return 0; -- don't do anything else -- Ignore all other messages when others => null; end case; -- If nothing else has happened yet, treat this the same way as a -- Frame_Type top-level window return Frame_Proc(hwnd, msg, wParam, lParam); end Dialog_Proc; ---------------------------------------------------------------------------- -- -- C A N V A S _ P R O C -- -- The Windows message handler callback for Canvas_Type windows. -- ---------------------------------------------------------------------------- function Canvas_Proc (hwnd : Win32_HWND; msg : Win32_UINT; wParam : Win32_WPARAM; lParam : Win32_LPARAM) return Win32_LONG is C : Canvas_Ptr := Canvas_Ptr(To_Window_Ptr(GetWindowLong(hwnd,GWL_USERDATA))); H : Win32_HWND; M : Win32_POINTS; begin case msg is -- Canvas background being erased: get the client area rectangle and -- fill it with the chosen background colour (from the canvas monitor) when WM_ERASEBKGND => declare R : aliased Win32_RECT; I : Win32_INT; begin Bool_Dummy := GetClientRect(hwnd,R'Unchecked_Access); I := FillRect (To_HDC(wParam), R'Unchecked_Access, C.Monitor.Background); end; return 1; -- result of this message must be 1, not 0 -- Canvas being painted: ask the monitor to draw all the objects in the -- drawing list when WM_PAINT => C.Monitor.Draw (hwnd, C.Font); -- Mouse button down (ignored if this canvas does not generate a -- command): capture the mouse and ask the canvas monitor to record -- the mouse position and button state, then issue the command when WM_LBUTTONDOWN => if C.Action >= 0 then H := SetCapture(hwnd); M := MakePoint (lParam); C.Monitor.Set_Start (Integer(M.X), Integer(M.Y)); C.Monitor.Set_Button (True); Window_Info.Set_Command (C.Action + WM_USER); return 0; -- don't do anything else end if; -- Mouse button up (ignored if this canvas does not generate a -- a command): release the mouse and ask the canvas monitor to -- record the current position and button state when WM_LBUTTONUP => if C.Action >= 0 then Bool_Dummy := ReleaseCapture; M := MakePoint (lParam); C.Monitor.Set_End (Integer(M.X), Integer(M.Y)); C.Monitor.Set_Button (False); return 0; -- don't do anything else end if; -- Mouse has moved (ignored if this canvas does not generate -- a command or the mouse button isn't down): ask the canvas -- monitor to record the current mouse position when WM_MOUSEMOVE => if C.Action >= 0 and C.Monitor.Mouse_Down then M := MakePoint (lParam); C.Monitor.Set_End (Integer(M.X), Integer(M.Y)); return 0; -- don't do anything else end if; -- Key pressed (ignored if this canvas does not generate a keypress -- command): capture the mouse and ask the canvas monitor to record -- the mouse position and button state, then issue the command when WM_CHAR => if C.Keypress >= 0 then C.Monitor.Set_Key (Character'Val(wParam and 16#FF#)); Window_Info.Set_Command (C.Keypress + WM_USER); return 0; -- don't do anything else end if; -- Because messages are processed by IsDialogMessage, WM_CHAR messages -- won't be seen unless they are asked for in response to WM_GETDLCODE when WM_GETDLGCODE => return DLGC_WANTMESSAGE; -- request WM_CHAR for all keyboard input -- Ignore all other messages when others => null; end case; -- Perform the default action for any messages that don't return before -- this point return DefWindowProc(hwnd, msg, wParam, lParam); end Canvas_Proc; ---------------------------------------------------------------------------- -- -- P A N E L _ P R O C -- -- The Windows message handler callback for Panel_Type windows. Command -- messages are sent to the parent window, all others are processed in -- the normal way. -- ---------------------------------------------------------------------------- function Panel_Proc (hwnd : Win32_HWND; msg : Win32_UINT; wParam : Win32_WPARAM; lParam : Win32_LPARAM) return Win32_LONG is W : Window_Ptr := To_Window_Ptr(GetWindowLong(hwnd,GWL_USERDATA)); begin case msg is when WM_COMMAND => Long_Dummy := SendMessage (GetParent(hwnd), msg, wParam, lParam); when others => null; end case; return CallWindowProc (W.WndProc, hwnd, msg, wParam, lParam); end Panel_Proc; ---------------------------------------------------------------------------- -- -- M E M O _ P R O C -- -- The Windows message handler callback for Memo_Type windows. Tab keys -- cause a tab to be inserted, all other messages are processed in the -- normal way. -- ---------------------------------------------------------------------------- function Memo_Proc (hwnd : Win32_HWND; msg : Win32_UINT; wParam : Win32_WPARAM; lParam : Win32_LPARAM) return Win32_LONG is W : Window_Ptr := To_Window_Ptr(GetWindowLong(hwnd,GWL_USERDATA)); S : aliased Win32_String := To_Array (ASCII.HT & ASCII.NUL); begin case msg is when WM_KEYDOWN => if wParam = Character'Pos(ASCII.HT) then Long_Dummy := SendMessage (hwnd, EM_REPLACESEL, 1, To_LPARAM(S)); end if; when others => null; end case; return CallWindowProc (W.WndProc, hwnd, msg, wParam, lParam); end Memo_Proc; end JEWL.Message_Handling;
with Gtk.Widget; package aIDE.Style is procedure define; procedure apply_CSS (Widget : not null access Gtk.Widget.Gtk_Widget_Record'Class); end aIDE.Style;
with Ada.Exception_Identification.From_Here; with Ada.Exceptions.Finally; with System.Formatting; with System.UTF_Conversions; package body Ada.Text_IO.Formatting is use Exception_Identification.From_Here; use type System.Long_Long_Integer_Types.Word_Integer; use type System.Long_Long_Integer_Types.Word_Unsigned; use type System.Long_Long_Integer_Types.Long_Long_Unsigned; subtype Word_Integer is System.Long_Long_Integer_Types.Word_Integer; subtype Word_Unsigned is System.Long_Long_Integer_Types.Word_Unsigned; subtype Long_Long_Unsigned is System.Long_Long_Integer_Types.Long_Long_Unsigned; procedure Skip_Spaces ( File : File_Type); -- Input_File_Type procedure Skip_Spaces ( File : File_Type) is Item : Character; End_Of_Line : Boolean; begin loop Look_Ahead (File, Item, End_Of_Line); -- checking the predicate exit when not End_Of_Line and then Item /= ' ' and then Item /= Character'Val (9); Skip_Ahead (File); end loop; end Skip_Spaces; procedure Adjust ( File : File_Type; -- Output_File_Type Width : Field); procedure Adjust ( File : File_Type; Width : Field) is Line : constant Count := Line_Length (File); -- checking the predicate begin if Line > 0 then if Count (Width) > Line then Raise_Exception (Layout_Error'Identity); elsif Col (File) + Count (Width) - 1 > Line then New_Line (File); end if; end if; end Adjust; procedure Add ( Buffer : in out String_Access; Last : in out Natural; Item : Character); procedure Add ( Buffer : in out String_Access; Last : in out Natural; Item : Character) is begin Last := Last + 1; if Last > Buffer'Last then Reallocate (Buffer, 1, String_Grow (Buffer'Last)); -- Buffer'First = 1 end if; Buffer (Last) := Item; end Add; procedure Get_Num ( File : File_Type; -- Input_File_Type Buffer : in out String_Access; Last : in out Natural; Based : Boolean); procedure Get_Num ( File : File_Type; Buffer : in out String_Access; Last : in out Natural; Based : Boolean) is Start : constant Natural := Last; Item : Character; End_Of_Line : Boolean; begin Look_Ahead (File, Item, End_Of_Line); -- checking the predicate loop if Item = '_' then exit when Last = Start; Add (Buffer, Last, Item); Skip_Ahead (File); Look_Ahead (File, Item, End_Of_Line); end if; exit when Item not in '0' .. '9' and then ( not Based or else ( Item not in 'A' .. 'F' and then Item not in 'a' .. 'f')); Add (Buffer, Last, Item); Skip_Ahead (File); Look_Ahead (File, Item, End_Of_Line); end loop; end Get_Num; procedure Get_Numeric_Literal_To_Buffer ( File : File_Type; -- Input_File_Type Buffer : in out String_Access; Last : in out Natural; Real : Boolean); procedure Get_Numeric_Literal_To_Buffer ( File : File_Type; -- Input_File_Type Buffer : in out String_Access; Last : in out Natural; Real : Boolean) is Prev_Last : Natural; Mark : Character; Item : Character; End_Of_Line : Boolean; begin Look_Ahead (File, Item, End_Of_Line); if Item = '+' or else Item = '-' then Add (Buffer, Last, Item); Skip_Ahead (File); Look_Ahead (File, Item, End_Of_Line); end if; Prev_Last := Last; Get_Num (File, Buffer, Last, Based => False); if Last > Prev_Last then Look_Ahead (File, Item, End_Of_Line); if Item = '#' or else Item = ':' then Mark := Item; Add (Buffer, Last, Item); Skip_Ahead (File); Get_Num (File, Buffer, Last, Based => True); Look_Ahead (File, Item, End_Of_Line); if Item = '.' and then Real then Add (Buffer, Last, Item); Skip_Ahead (File); Get_Num (File, Buffer, Last, Based => False); Look_Ahead (File, Item, End_Of_Line); end if; if Item = Mark then Add (Buffer, Last, Item); Skip_Ahead (File); Look_Ahead (File, Item, End_Of_Line); end if; elsif Item = '.' and then Real then Add (Buffer, Last, Item); Skip_Ahead (File); Get_Num (File, Buffer, Last, Based => False); Look_Ahead (File, Item, End_Of_Line); end if; if Item = 'E' or else Item = 'e' then Add (Buffer, Last, Item); Skip_Ahead (File); Look_Ahead (File, Item, End_Of_Line); if Item = '+' or else Item = '-' then Add (Buffer, Last, Item); Skip_Ahead (File); Look_Ahead (File, Item, End_Of_Line); end if; Get_Num (File, Buffer, Last, Based => False); end if; end if; end Get_Numeric_Literal_To_Buffer; -- implementation procedure Integer_Image ( To : out String; Last : out Natural; Item : System.Long_Long_Integer_Types.Word_Integer; Base : Number_Base) is Unsigned_Item : Word_Unsigned; begin Last := To'First - 1; if Item < 0 then Last := Last + 1; To (Last) := '-'; Unsigned_Item := -Word_Unsigned'Mod (Item); else Unsigned_Item := Word_Unsigned (Item); end if; Modular_Image (To (Last + 1 .. To'Last), Last, Unsigned_Item, Base); end Integer_Image; procedure Integer_Image ( To : out String; Last : out Natural; Item : Long_Long_Integer; Base : Number_Base) is begin if Standard'Word_Size < Long_Long_Unsigned'Size then -- optimized for 32bit declare Unsigned_Item : Long_Long_Unsigned; begin Last := To'First - 1; if Item < 0 then Last := Last + 1; To (Last) := '-'; Unsigned_Item := -Long_Long_Unsigned'Mod (Item); else Unsigned_Item := Long_Long_Unsigned (Item); end if; Modular_Image ( To (Last + 1 .. To'Last), Last, Unsigned_Item, Base); end; else -- optimized for 64bit Integer_Image (To, Last, Word_Integer (Item), Base); end if; end Integer_Image; procedure Modular_Image ( To : out String; Last : out Natural; Item : System.Long_Long_Integer_Types.Word_Unsigned; Base : Number_Base) is Error : Boolean; begin Last := To'First - 1; if Base /= 10 then System.Formatting.Image ( Word_Unsigned (Base), To (Last + 1 .. To'Last), Last, Error => Error); if Error then Raise_Exception (Layout_Error'Identity); end if; Last := Last + 1; if Last > To'Last then Raise_Exception (Layout_Error'Identity); end if; To (Last) := '#'; end if; System.Formatting.Image ( Item, To (Last + 1 .. To'Last), Last, Base => Base, Error => Error); if Error then Raise_Exception (Layout_Error'Identity); end if; if Base /= 10 then Last := Last + 1; if Last > To'Last then Raise_Exception (Layout_Error'Identity); end if; To (Last) := '#'; end if; end Modular_Image; procedure Modular_Image ( To : out String; Last : out Natural; Item : System.Long_Long_Integer_Types.Long_Long_Unsigned; Base : Number_Base) is begin if Standard'Word_Size < Long_Long_Unsigned'Size then -- optimized for 32bit declare Error : Boolean; begin Last := To'First - 1; if Base /= 10 then System.Formatting.Image ( Word_Unsigned (Base), To (Last + 1 .. To'Last), Last, Error => Error); if Error then Raise_Exception (Layout_Error'Identity); end if; Last := Last + 1; if Last > To'Last then Raise_Exception (Layout_Error'Identity); end if; To (Last) := '#'; end if; System.Formatting.Image ( Item, To (Last + 1 .. To'Last), Last, Base => Base, Error => Error); if Error then Raise_Exception (Layout_Error'Identity); end if; if Base /= 10 then Last := Last + 1; if Last > To'Last then Raise_Exception (Layout_Error'Identity); end if; To (Last) := '#'; end if; end; else -- optimized for 64bit Modular_Image (To, Last, Word_Unsigned (Item), Base); end if; end Modular_Image; function Get_Numeric_Literal ( File : File_Type; Real : Boolean) return String is begin Skip_Spaces (File); -- checking the predicate declare Buffer : aliased String_Access := new String (1 .. 256); Last : Natural := 0; package Holder is new Exceptions.Finally.Scoped_Holder (String_Access, Free); begin Holder.Assign (Buffer); Get_Numeric_Literal_To_Buffer (File, Buffer, Last, Real => Real); return Buffer (1 .. Last); end; end Get_Numeric_Literal; function Get_Complex_Literal ( File : File_Type) return String is begin Skip_Spaces (File); -- checking the predicate declare Buffer : aliased String_Access := new String (1 .. 256); Last : Natural := 0; package Holder is new Exceptions.Finally.Scoped_Holder (String_Access, Free); begin Holder.Assign (Buffer); declare Item : Character; End_Of_Line : Boolean; Paren : Boolean; begin Look_Ahead (File, Item, End_Of_Line); Paren := Item = '('; if Paren then Add (Buffer, Last, Item); Skip_Ahead (File); Skip_Spaces (File); end if; Get_Numeric_Literal_To_Buffer (File, Buffer, Last, Real => True); Skip_Spaces (File); Look_Ahead (File, Item, End_Of_Line); if Item = ',' then Add (Buffer, Last, Item); Skip_Ahead (File); Skip_Spaces (File); else Add (Buffer, Last, ' '); end if; Get_Numeric_Literal_To_Buffer (File, Buffer, Last, Real => True); if Paren then Skip_Spaces (File); Look_Ahead (File, Item, End_Of_Line); if Item = ')' then Add (Buffer, Last, Item); Skip_Ahead (File); else Raise_Exception (Data_Error'Identity); end if; end if; end; return Buffer (1 .. Last); end; end Get_Complex_Literal; function Get_Enum_Literal ( File : File_Type) return String is begin Skip_Spaces (File); -- checking the predicate declare Buffer : aliased String_Access := new String (1 .. 256); Last : Natural := 0; package Holder is new Exceptions.Finally.Scoped_Holder (String_Access, Free); begin Holder.Assign (Buffer); declare Item : Character; End_Of_Line : Boolean; begin Look_Ahead (File, Item, End_Of_Line); if Item = ''' then Add (Buffer, Last, Item); Skip_Ahead (File); Look_Ahead (File, Item, End_Of_Line); if not End_Of_Line then declare Length : Natural; Sequence_Status : System.UTF_Conversions.Sequence_Status_Type; -- ignore begin System.UTF_Conversions.UTF_8_Sequence ( Item, Length, Sequence_Status); Add (Buffer, Last, Item); Skip_Ahead (File); for I in 2 .. Length loop Look_Ahead (File, Item, End_Of_Line); exit when End_Of_Line; Add (Buffer, Last, Item); Skip_Ahead (File); end loop; end; Look_Ahead (File, Item, End_Of_Line); if Item = ''' then Add (Buffer, Last, Item); Skip_Ahead (File); end if; end if; elsif Item in 'A' .. 'Z' or else Item in 'a' .. 'z' or else Item >= Character'Val (16#80#) then while not End_Of_Line and then Item /= ' ' and then Item /= Character'Val (9) loop if Item = '_' then Add (Buffer, Last, Item); Skip_Ahead (File); Look_Ahead (File, Item, End_Of_Line); end if; exit when not ( Item in 'A' .. 'Z' or else Item in 'a' .. 'z' or else Item in '0' .. '9' or else Item >= Character'Val (16#80#)); Add (Buffer, Last, Item); Skip_Ahead (File); Look_Ahead (File, Item, End_Of_Line); end loop; end if; end; return Buffer (1 .. Last); end; end Get_Enum_Literal; procedure Get_Field ( File : File_Type; Item : out String; Last : out Natural) is pragma Check (Dynamic_Predicate, Check => Is_Open (File) or else raise Status_Error); pragma Check (Dynamic_Predicate, Check => Mode (File) = In_File or else raise Mode_Error); Has_Data : Boolean := False; End_Of_Line : Boolean; begin Last := Item'First - 1; for I in Item'Range loop Look_Ahead (File, Item (I), End_Of_Line); exit when End_Of_Line; Skip_Ahead (File); if Item (I) = Character'Val (9) then Item (I) := ' '; -- treat tab as space, RM A.10.6(5/2) elsif Item (I) /= ' ' then Has_Data := True; end if; Last := I; end loop; if not Has_Data then if End_Of_File (File) then Raise_Exception (End_Error'Identity); else Raise_Exception (Data_Error'Identity); end if; end if; end Get_Field; procedure Head ( File : File_Type; Item : String; Width : Field) is begin Adjust (File, Field'Max (Width, Item'Last)); -- checking the predicate Put (File, Item); for I in Item'Length + 1 .. Width loop Put (File, ' '); end loop; end Head; procedure Tail ( File : File_Type; Item : String; Width : Field) is begin Adjust (File, Field'Max (Width, Item'Last)); -- checking the predicate for I in Item'Length + 1 .. Width loop Put (File, ' '); end loop; Put (File, Item); end Tail; procedure Get_Head ( Item : String; First : out Positive; Last : out Natural) is begin Get_Tail (Item, First); -- skip first spaces Last := First; while Last < Item'Last and then Item (Last + 1) /= ' ' and then Item (Last + 1) /= Character'Val (9) loop Last := Last + 1; end loop; end Get_Head; procedure Get_Tail (Item : String; First : out Positive) is begin First := Item'First; loop if First > Item'Last then Raise_Exception (End_Error'Identity); end if; exit when Item (First) /= ' ' and then Item (First) /= Character'Val (9); First := First + 1; end loop; end Get_Tail; procedure Head (Target : out String; Source : String) is Source_Length : constant Natural := Source'Length; begin if Target'Length < Source_Length then Raise_Exception (Layout_Error'Identity); end if; Target (Target'First .. Target'First + Source_Length - 1) := Source; System.Formatting.Fill_Padding ( Target (Target'First + Source_Length .. Target'Last), ' '); end Head; procedure Tail (Target : out String; Source : String) is Source_Length : constant Natural := Source'Length; begin if Target'Length < Source_Length then Raise_Exception (Layout_Error'Identity); end if; Target (Target'Last - Source_Length + 1 .. Target'Last) := Source; System.Formatting.Fill_Padding ( Target (Target'First .. Target'Last - Source_Length), ' '); end Tail; procedure Tail (Target : out Wide_String; Source : Wide_String) is Source_Length : constant Natural := Source'Length; begin if Target'Length < Source_Length then Raise_Exception (Layout_Error'Identity); end if; for I in Target'First .. Target'Last - Source_Length loop Target (I) := ' '; end loop; Target (Target'Last - Source_Length + 1 .. Target'Last) := Source; end Tail; procedure Tail (Target : out Wide_Wide_String; Source : Wide_Wide_String) is Source_Length : constant Natural := Source'Length; begin if Target'Length < Source_Length then Raise_Exception (Layout_Error'Identity); end if; for I in Target'First .. Target'Last - Source_Length loop Target (I) := ' '; end loop; Target (Target'Last - Source_Length + 1 .. Target'Last) := Source; end Tail; end Ada.Text_IO.Formatting;
-- SPDX-License-Identifier: Apache-2.0 -- -- Copyright (c) 2020 onox <denkpadje@gmail.com> -- -- Licensed under the Apache License, Version 2.0 (the "License"); -- you may not use this file except in compliance with the License. -- You may obtain a copy of the License at -- -- http://www.apache.org/licenses/LICENSE-2.0 -- -- Unless required by applicable law or agreed to in writing, software -- distributed under the License is distributed on an "AS IS" BASIS, -- WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. -- See the License for the specific language governing permissions and -- limitations under the License. with Ada.Text_IO; with EGL.Objects.Displays; with EGL.Objects.Devices; with EGL.Errors; procedure Orka_EGL_Info is use Ada.Text_IO; Devices : constant EGL.Objects.Devices.Device_List := EGL.Objects.Devices.Devices; begin Put_Line ("Client extensions:"); for Extension of EGL.Objects.Displays.Client_Extensions loop Put_Line (" " & EGL.SU.To_String (Extension)); end loop; Put_Line (""); Put_Line ("Platforms:"); for Platform in EGL.Objects.Displays.Platform_Kind'Range loop Put_Line (""); begin declare Display : constant EGL.Objects.Displays.Display := EGL.Objects.Displays.Create_Display (Platform); begin Put_Line (Display.Platform'Image & ":"); Put_Line (" vendor: " & Display.Vendor); Put_Line (" version: " & Display.Version); Put_Line (" extensions:"); for Extension of Display.Extensions loop Put_Line (" " & EGL.SU.To_String (Extension)); end loop; end; exception when EGL.Errors.Not_Initialized_Error => Put_Line (Platform'Image & ": not supported"); when EGL.Errors.Invalid_Value_Error => Put_Line (Platform'Image & ": creating display failed"); end; end loop; Put_Line (""); Put_Line ("Devices:"); for Device of Devices loop Put_Line (""); declare Name : constant String := Device.Name; begin Put_Line (if Name /= "" then Device.Name else "unknown"); end; Put_Line (" extensions:"); for Extension of Device.Extensions loop Put_Line (" " & EGL.SU.To_String (Extension)); end loop; end loop; end Orka_EGL_Info;
with Ada.Real_Time; use Ada.Real_Time; with System; use System; package pulse_interrupt is --------------------------------------------------------------------- ------ declaracion de procedimientos de acceso a DISPOSITIVOS E/S -- --------------------------------------------------------------------- Interr_1: constant Time_Span := To_Time_Span (0.5); Interr_2: constant Time_Span := To_Time_Span (0.5); Interr_3: constant Time_Span := To_Time_Span (0.7); Interr_4: constant Time_Span := To_Time_Span (0.9); Interr_5: constant Time_Span := To_Time_Span (0.9); Interr_6: constant Time_Span := To_Time_Span (0.8); Interr_7: constant Time_Span := To_Time_Span (0.7); Interr_8: constant Time_Span := To_Time_Span (0.7); Interr_9: constant Time_Span := To_Time_Span (0.6); Interr_10: constant Time_Span := To_Time_Span (0.6); -------------------------------------------------------------------------- -- Tarea que fuerza la interrupcion externa 2 en los instantes indicados -- -------------------------------------------------------------------------- Priority_Of_External_Interrupts_2 : constant System.Interrupt_Priority := System.Interrupt_Priority'First + 9; task Interrupt is pragma Priority (Priority_Of_External_Interrupts_2); end Interrupt; end pulse_interrupt;
with System.Long_Long_Elementary_Functions; with System.Long_Long_Integer_Types; package body Ada.Numerics.Distributions is use type System.Long_Long_Integer_Types.Long_Long_Unsigned; subtype Long_Long_Unsigned is System.Long_Long_Integer_Types.Long_Long_Unsigned; function popcountll (x : Long_Long_Unsigned) return Integer with Import, Convention => Intrinsic, External_Name => "__builtin_popcountll"; -- Simple distributions function Linear_Discrete (X : Source) return Target is Source_W : constant Long_Long_Unsigned := Source'Pos (Source'Last) - Source'Pos (Source'First); Target_W : constant Long_Long_Unsigned := Target'Pos (Target'Last) - Target'Pos (Target'First); begin if Source_W = 0 or else Target_W = 0 then -- 0 bit value return Target'First; elsif Source_W = Target_W then -- 1:1 mapping return Target'Val ( Long_Long_Unsigned (X) + Target'Pos (Target'First)); elsif Long_Long_Unsigned'Max (Source_W, Target_W) < Long_Long_Unsigned'Last and then (Source_W + 1) * (Target_W + 1) >= Source_W and then (Source_W + 1) * (Target_W + 1) >= Target_W then -- no overflow return Target'Val ( Long_Long_Unsigned (X) * (Target_W + 1) / (Source_W + 1) + Target'Pos (Target'First)); else -- use Long_Long_Float declare function To_Float is new Linear_Float_0_To_Less_Than_1 ( Source, Long_Long_Float); begin return Target'Val ( Long_Long_Unsigned ( Long_Long_Float'Floor ( To_Float (X) * (Long_Long_Float (Target_W) + 1.0))) + Target'Pos (Target'First)); end; end if; end Linear_Discrete; function Linear_Float_0_To_1 (X : Source) return Target'Base is begin return Target'Base (X) * Target'Base (1.0 / (Source'Modulus - 1)); end Linear_Float_0_To_1; function Linear_Float_0_To_Less_Than_1 (X : Source) return Target'Base is begin return Target'Base (X) * Target'Base (1.0 / Source'Modulus); end Linear_Float_0_To_Less_Than_1; function Linear_Float_Greater_Than_0_To_Less_Than_1 (X : Source) return Target'Base is begin return (Target'Base (X) + 0.5) * Target'Base (1.0 / Source'Modulus); end Linear_Float_Greater_Than_0_To_Less_Than_1; function Exponentially_Float (X : Source) return Target'Base is subtype Float_Type is Target; function Fast_Log (X : Float_Type'Base) return Float_Type'Base; function Fast_Log (X : Float_Type'Base) return Float_Type'Base is begin if Float_Type'Digits <= Float'Digits then declare function logf (A1 : Float) return Float with Import, Convention => Intrinsic, External_Name => "__builtin_logf"; begin return Float_Type'Base (logf (Float (X))); end; elsif Float_Type'Digits <= Long_Float'Digits then declare function log (A1 : Long_Float) return Long_Float with Import, Convention => Intrinsic, External_Name => "__builtin_log"; begin return Float_Type'Base (log (Long_Float (X))); end; else return Float_Type'Base ( System.Long_Long_Elementary_Functions.Fast_Log ( Long_Long_Float (X))); end if; end Fast_Log; function Float_0_To_Less_Than_1 is new Linear_Float_0_To_Less_Than_1 (Source, Target'Base); Y : constant Target'Base := Float_0_To_Less_Than_1 (X); -- [0,1) Z : constant Target'Base := 1.0 - Y; -- (0,1] begin return -Fast_Log (Z); end Exponentially_Float; -- Simple distributions for random number function Linear_Discrete_Random (Gen : aliased in out Generator) return Target is begin if Target'First > Target'Last then raise Constraint_Error; end if; declare function To_Target is new Linear_Discrete (Source, Target); begin return To_Target (Get (Gen)); end; end Linear_Discrete_Random; -- Strict uniform distributions for random number function Uniform_Discrete_Random (Gen : aliased in out Generator) return Target is begin if Target'First > Target'Last then raise Constraint_Error; end if; declare Source_W : constant Long_Long_Unsigned := Source'Pos (Source'Last) - Source'Pos (Source'First); Target_W : constant Long_Long_Unsigned := Target'Pos (Target'Last) - Target'Pos (Target'First); begin if Source_W = 0 or else Target_W = 0 then -- 0 bit value return Target'First; elsif Source_W = Target_W then -- 1:1 mapping declare X : constant Long_Long_Unsigned := Long_Long_Unsigned (Get (Gen)); begin return Target'Val (X + Target'Pos (Target'First)); end; elsif Source_W > Target_W and then ( Source_W = Long_Long_Unsigned'Last or else popcountll (Source_W + 1) = 1) and then popcountll (Target_W + 1) = 1 then -- narrow, and 2 ** n declare X : constant Long_Long_Unsigned := Long_Long_Unsigned (Get (Gen)); begin return Target'Val ( X / (Source_W / (Target_W + 1) + 1) + Target'Pos (Target'First)); end; else loop declare Max : Long_Long_Unsigned; X : Long_Long_Unsigned; begin if Source_W > Target_W then -- narrow Max := Source_W; X := Long_Long_Unsigned (Get (Gen)); else -- wide Max := 0; X := 0; loop declare Old_Max : constant Long_Long_Unsigned := Max; begin Max := (Max * (Source_W + 1)) + Source_W; X := (X * (Source_W + 1)) + Long_Long_Unsigned (Get (Gen)); exit when Max >= Target_W or else Max <= Old_Max; -- overflow end; end loop; end if; if Target_W = Long_Long_Unsigned'Last then -- Source'Range_Length < -- Target'Range_Length = -- Long_Long_Unsigned'Range_Length return Target'Val (X + Target'Pos (Target'First)); else declare -- (Max + 1) mod (Target_W + 1) R : constant Long_Long_Unsigned := (Max mod (Target_W + 1) + 1) mod (Target_W + 1); begin -- (Max - R + 1) mod (Target_W + 1) = 0 if R = 0 or else X <= Max - R then return Target'Val ( X mod (Target_W + 1) + Target'Pos (Target'First)); end if; end; end if; end; end loop; end if; end; end Uniform_Discrete_Random; function Uniform_Float_Random_0_To_1 (Gen : aliased in out Generator) return Target is begin if Target'Machine_Mantissa <= 24 then -- Float'Machine_Mantissa declare type Unsigned_24_plus_1 is range 0 .. 2 ** 24; function Unsigned_24_plus_1_Random is new Uniform_Discrete_Random ( Source, Unsigned_24_plus_1, Generator, Get); X : constant Unsigned_24_plus_1 := Unsigned_24_plus_1_Random (Gen); begin return Target'Base (X) * Target'Base (1.0 / 2 ** 24); end; elsif Target'Machine_Mantissa <= 53 then -- Long_Float'Machine_Mantissa declare type Unsigned_53_plus_1 is range 0 .. 2 ** 53; function Unsigned_53_plus_1_Random is new Uniform_Discrete_Random ( Source, Unsigned_53_plus_1, Generator, Get); X : constant Unsigned_53_plus_1 := Unsigned_53_plus_1_Random (Gen); begin return Target'Base (X) * Target'Base (1.0 / 2 ** 53); end; else declare type Unsigned_1 is mod 2; -- high 1 bit type Unsigned_64 is mod 2 ** 64; -- low bits function Unsigned_1_Random is new Uniform_Discrete_Random ( Source, Unsigned_1, Generator, Get); function Unsigned_64_Random is new Uniform_Discrete_Random ( Source, Unsigned_64, Generator, Get); begin loop declare X : constant Unsigned_64 := Unsigned_64_Random (Gen); begin if Unsigned_1_Random (Gen) = 1 then if X = 0 then -- a 128 bit random value = 2 ** 64 return 1.0; end if; else return Target'Base (X) * Target'Base (1.0 / 2 ** 64); end if; end; end loop; end; end if; end Uniform_Float_Random_0_To_1; function Uniform_Float_Random_0_To_Less_Than_1 ( Gen : aliased in out Generator) return Target is begin if Target'Machine_Mantissa <= 24 then -- Float'Machine_Mantissa declare type Unsigned_24 is mod 2 ** 24; function Unsigned_24_Random is new Uniform_Discrete_Random ( Source, Unsigned_24, Generator, Get); function Float_0_To_Less_Than_1 is new Linear_Float_0_To_Less_Than_1 (Unsigned_24, Target); begin return Float_0_To_Less_Than_1 (Unsigned_24_Random (Gen)); end; elsif Target'Machine_Mantissa <= 53 then -- Long_Float'Machine_Mantissa declare type Unsigned_53 is mod 2 ** 53; function Unsigned_53_Random is new Uniform_Discrete_Random ( Source, Unsigned_53, Generator, Get); function Float_0_To_Less_Than_1 is new Linear_Float_0_To_Less_Than_1 (Unsigned_53, Target); begin return Float_0_To_Less_Than_1 (Unsigned_53_Random (Gen)); end; else declare type Unsigned_64 is mod 2 ** 64; function Unsigned_64_Random is new Uniform_Discrete_Random ( Source, Unsigned_64, Generator, Get); function Float_0_To_Less_Than_1 is new Linear_Float_0_To_Less_Than_1 (Unsigned_64, Target); begin return Float_0_To_Less_Than_1 (Unsigned_64_Random (Gen)); end; end if; end Uniform_Float_Random_0_To_Less_Than_1; function Uniform_Float_Random_Greater_Than_0_To_Less_Than_1 ( Gen : aliased in out Generator) return Target is begin if Target'Machine_Mantissa <= 24 then -- Float'Machine_Mantissa declare type Unsigned_24 is mod 2 ** 24; subtype Repr is Unsigned_24 range 1 .. Unsigned_24'Last; function Unsigned_24_Random is new Uniform_Discrete_Random (Source, Repr, Generator, Get); function Float_0_To_Less_Than_1 is new Linear_Float_0_To_Less_Than_1 (Unsigned_24, Target); begin return Float_0_To_Less_Than_1 (Unsigned_24_Random (Gen)); end; elsif Target'Machine_Mantissa <= 53 then -- Long_Float'Machine_Mantissa declare type Unsigned_53 is mod 2 ** 53; subtype Repr is Unsigned_53 range 1 .. Unsigned_53'Last; function Unsigned_53_Random is new Uniform_Discrete_Random (Source, Repr, Generator, Get); function Float_0_To_Less_Than_1 is new Linear_Float_0_To_Less_Than_1 (Unsigned_53, Target); begin return Float_0_To_Less_Than_1 (Unsigned_53_Random (Gen)); end; else declare type Unsigned_64 is mod 2 ** 64; subtype Repr is Unsigned_64 range 1 .. Unsigned_64'Last; function Unsigned_64_Random is new Uniform_Discrete_Random (Source, Repr, Generator, Get); function Float_0_To_Less_Than_1 is new Linear_Float_0_To_Less_Than_1 (Unsigned_64, Target); begin return Float_0_To_Less_Than_1 (Unsigned_64_Random (Gen)); end; end if; end Uniform_Float_Random_Greater_Than_0_To_Less_Than_1; end Ada.Numerics.Distributions;
----------------------------------------------------------------------- -- ADO Statements -- Database statements -- Copyright (C) 2009, 2010, 2011, 2012, 2013, 2015, 2018, 2019 Stephane Carrez -- Written by Stephane Carrez (Stephane.Carrez@gmail.com) -- -- Licensed under the Apache License, Version 2.0 (the "License"); -- you may not use this file except in compliance with the License. -- You may obtain a copy of the License at -- -- http://www.apache.org/licenses/LICENSE-2.0 -- -- Unless required by applicable law or agreed to in writing, software -- distributed under the License is distributed on an "AS IS" BASIS, -- WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. -- See the License for the specific language governing permissions and -- limitations under the License. ----------------------------------------------------------------------- with Ada.Calendar.Formatting; with Util.Log; with Util.Log.Loggers; with System.Storage_Elements; with Ada.Unchecked_Deallocation; package body ADO.Statements is use System.Storage_Elements; Log : constant Util.Log.Loggers.Logger := Util.Log.Loggers.Create ("ADO.Statements"); function Get_Query (Query : Statement) return ADO.SQL.Query_Access is begin return Query.Query; end Get_Query; procedure Add_Parameter (Query : in out Statement; Param : in ADO.Parameters.Parameter) is begin Query.Query.Add_Parameter (Param); end Add_Parameter; procedure Set_Parameters (Query : in out Statement; From : in ADO.Parameters.Abstract_List'Class) is begin Query.Query.Set_Parameters (From); end Set_Parameters; -- ------------------------------ -- Return the number of parameters in the list. -- ------------------------------ function Length (Query : in Statement) return Natural is begin return Query.Query.Length; end Length; -- ------------------------------ -- Return the parameter at the given position -- ------------------------------ function Element (Query : in Statement; Position : in Natural) return ADO.Parameters.Parameter is begin return Query.Query.Element (Position); end Element; -- ------------------------------ -- Execute the <b>Process</b> procedure with the given parameter as argument. -- ------------------------------ procedure Query_Element (Query : in Statement; Position : in Natural; Process : not null access procedure (Element : in ADO.Parameters.Parameter)) is begin Query.Query.Query_Element (Position, Process); end Query_Element; -- ------------------------------ -- Clear the list of parameters. -- ------------------------------ procedure Clear (Query : in out Statement) is begin Query.Query.Clear; end Clear; procedure Add_Param (Params : in out Statement; Value : in ADO.Objects.Object_Key) is begin case Value.Of_Type is when ADO.Objects.KEY_INTEGER => declare V : constant Identifier := Objects.Get_Value (Value); begin Params.Query.Add_Param (V); end; when ADO.Objects.KEY_STRING => declare V : constant Unbounded_String := Objects.Get_Value (Value); begin Params.Query.Add_Param (V); end; end case; end Add_Param; -- ------------------------------ -- Add the parameter by using the primary key of the object. -- Use null if the object is a null reference. -- ------------------------------ procedure Add_Param (Params : in out Statement; Value : in ADO.Objects.Object_Ref'Class) is begin if Value.Is_Null then Params.Query.Add_Null_Param; else Params.Add_Param (Value.Get_Key); end if; end Add_Param; procedure Append (Query : in out Statement; SQL : in String) is begin ADO.SQL.Append (Target => Query.Query.SQL, SQL => SQL); end Append; procedure Append (Query : in out Statement; Value : in Integer) is begin ADO.SQL.Append_Value (Target => Query.Query.SQL, Value => Long_Integer (Value)); end Append; procedure Append (Query : in out Statement; Value : in Long_Integer) is begin ADO.SQL.Append_Value (Target => Query.Query.SQL, Value => Value); end Append; procedure Append (Query : in out Statement; SQL : in Unbounded_String) is begin ADO.SQL.Append_Value (Target => Query.Query.SQL, Value => To_String (SQL)); end Append; procedure Set_Filter (Query : in out Statement; Filter : in String) is begin Query.Query.Set_Filter (Filter); end Set_Filter; -- ------------------------------ -- Get the filter condition or the empty string -- ------------------------------ -- function Get_Filter (Parameters : in Statement) return String is -- begin -- return Parameters.Query.Get_Filter; -- end Get_Filter; procedure Execute (Query : in out Statement; SQL : in Unbounded_String; Params : in ADO.Parameters.Abstract_List'Class) is begin null; end Execute; -- ------------------------------ -- Append the value to the SQL query string. -- ------------------------------ procedure Append_Escape (Query : in out Statement; Value : in String) is begin ADO.SQL.Append_Value (Query.Query.SQL, Value); end Append_Escape; -- ------------------------------ -- Append the value to the SQL query string. -- ------------------------------ procedure Append_Escape (Query : in out Statement; Value : in Unbounded_String) is begin ADO.SQL.Append_Value (Query.Query.SQL, To_String (Value)); end Append_Escape; function "+" (Left : chars_ptr; Right : Size_T) return chars_ptr is begin return To_Chars_Ptr (To_Address (Left) + Storage_Offset (Right)); end "+"; -- ------------------------------ -- Get the query result as an integer -- ------------------------------ function Get_Result_Integer (Query : Query_Statement) return Integer is begin if not Query_Statement'Class (Query).Has_Elements then return 0; end if; if Query_Statement'Class (Query).Is_Null (0) then return 0; end if; return Query_Statement'Class (Query).Get_Integer (0); end Get_Result_Integer; -- ------------------------------ -- Get the query result as a blob -- ------------------------------ function Get_Result_Blob (Query : in Query_Statement) return ADO.Blob_Ref is begin if not Query_Statement'Class (Query).Has_Elements then return Null_Blob; end if; return Query_Statement'Class (Query).Get_Blob (0); end Get_Result_Blob; -- ------------------------------ -- Get an unsigned 64-bit number from a C string terminated by \0 -- ------------------------------ function Get_Uint64 (Str : chars_ptr) return unsigned_long is C : Character; P : chars_ptr := Str; Result : unsigned_long := 0; begin loop C := P.all; if C /= ' ' then exit; end if; P := P + 1; end loop; while C >= '0' and C <= '9' loop Result := Result * 10 + unsigned_long (Character'Pos (C) - Character'Pos ('0')); P := P + 1; C := P.all; end loop; if C /= ASCII.NUL then raise Invalid_Type with "Invalid integer value"; end if; return Result; end Get_Uint64; -- ------------------------------ -- Get a signed 64-bit number from a C string terminated by \0 -- ------------------------------ function Get_Int64 (Str : chars_ptr) return Int64 is C : Character; P : chars_ptr := Str; begin if P = null then return 0; end if; loop C := P.all; if C /= ' ' then exit; end if; P := P + 1; end loop; if C = '+' then P := P + 1; return Int64 (Get_Uint64 (P)); elsif C = '-' then P := P + 1; return -Int64 (Get_Uint64 (P)); else return Int64 (Get_Uint64 (P)); end if; end Get_Int64; -- ------------------------------ -- Get a double number from a C string terminated by \0 -- ------------------------------ function Get_Double (Str : chars_ptr) return Long_Float is C : Character; P : chars_ptr := Str; begin if P = null then return 0.0; end if; loop C := P.all; if C /= ' ' then exit; end if; P := P + 1; end loop; declare S : String (1 .. 100); begin for I in S'Range loop C := P.all; S (I) := C; if C = ASCII.NUL then return Long_Float'Value (S (S'First .. I - 1)); end if; P := P + 1; end loop; raise Invalid_Type with "Invalid floating point value"; end; end Get_Double; -- ------------------------------ -- Get a time from the C string passed in <b>Value</b>. -- Raises <b>Invalid_Type</b> if the value cannot be converted. -- Raises <b>Invalid_Column</b> if the column does not exist. -- ------------------------------ function Get_Time (Value : in chars_ptr) return Ada.Calendar.Time is use Ada.Calendar; Year : Year_Number := Year_Number'First; Month : Month_Number := Month_Number'First; Day : Day_Number := Day_Number'First; Hours : Natural := 0; Mins : Natural := 0; Secs : Natural := 0; Dt : Duration := 0.0; Field : chars_ptr := Value; function Get_Number (P : in chars_ptr; Nb_Digits : in Positive) return Natural; -- ------------------------------ -- Get a number composed of N digits -- ------------------------------ function Get_Number (P : in chars_ptr; Nb_Digits : in Positive) return Natural is Ptr : chars_ptr := P; Result : Natural := 0; C : Character; begin for I in 1 .. Nb_Digits loop C := Ptr.all; if not (C >= '0' and C <= '9') then raise Invalid_Type with "Invalid date format"; end if; Result := Result * 10 + Character'Pos (C) - Character'Pos ('0'); Ptr := Ptr + 1; end loop; return Result; end Get_Number; begin if Field /= null then declare C : Character; N : Natural; begin N := Get_Number (Field, 4); if N /= 0 then Year := Year_Number (N); end if; Field := Field + 4; C := Field.all; if C /= '-' then raise Invalid_Type with "Invalid date format"; end if; Field := Field + 1; N := Get_Number (Field, 2); if N /= 0 then Month := Month_Number (N); end if; Field := Field + 2; C := Field.all; if C /= '-' then raise Invalid_Type with "Invalid date format"; end if; Field := Field + 1; N := Get_Number (Field, 2); if N /= 0 then Day := Day_Number (N); end if; Field := Field + 2; C := Field.all; if C /= ASCII.NUL then if C /= ' ' then raise Invalid_Type with "Invalid date format"; end if; Field := Field + 1; Hours := Get_Number (Field, 2); Field := Field + 2; C := Field.all; if C /= ':' then raise Invalid_Type with "Invalid date format"; end if; Field := Field + 1; Mins := Get_Number (Field, 2); Field := Field + 2; C := Field.all; if C /= ':' then raise Invalid_Type with "Invalid date format"; end if; Field := Field + 1; Secs := Get_Number (Field, 2); Field := Field + 2; C := Field.all; if C /= '.' and C /= ASCII.NUL then raise Invalid_Type with "Invalid date format"; end if; Dt := Duration (Hours * 3600) + Duration (Mins * 60) + Duration (Secs); end if; end; end if; return Ada.Calendar.Formatting.Time_Of (Year, Month, Day, Dt, False, 0); end Get_Time; -- ------------------------------ -- Create a blob initialized with the given data buffer pointed to by <b>Data</b> -- and which contains <b>Size</b> bytes. -- ------------------------------ function Get_Blob (Data : in chars_ptr; Size : in Natural) return Blob_Ref is use Util.Refs; use Ada.Streams; B : constant Blob_Access := new Blob '(Ref_Entity with Len => Stream_Element_Offset (Size), others => <>); P : chars_ptr := Data; begin for I in 1 .. Stream_Element_Offset (Size) loop B.Data (I) := Character'Pos (P.all); P := P + 1; end loop; return Blob_References.Create (B); end Get_Blob; -- ------------------------------ -- Execute the query -- ------------------------------ overriding procedure Execute (Query : in out Query_Statement) is begin if Query.Proxy = null then raise Invalid_Statement with "Query statement is not initialized"; end if; Query.Proxy.Execute; end Execute; -- ------------------------------ -- Get the number of rows returned by the query -- ------------------------------ function Get_Row_Count (Query : in Query_Statement) return Natural is begin if Query.Proxy = null then return 0; else return Query.Proxy.Get_Row_Count; end if; end Get_Row_Count; -- ------------------------------ -- Returns True if there is more data (row) to fetch -- ------------------------------ function Has_Elements (Query : in Query_Statement) return Boolean is begin if Query.Proxy = null then return False; else return Query.Proxy.Has_Elements; end if; end Has_Elements; -- ------------------------------ -- Fetch the next row -- ------------------------------ procedure Next (Query : in out Query_Statement) is begin if Query.Proxy = null then raise Invalid_Statement with "Query statement is not initialized"; end if; Query.Proxy.Next; end Next; -- ------------------------------ -- Returns true if the column <b>Column</b> is null. -- ------------------------------ function Is_Null (Query : in Query_Statement; Column : in Natural) return Boolean is begin if Query.Proxy = null then raise Invalid_Statement with "Query statement is not initialized"; end if; return Query.Proxy.Is_Null (Column); end Is_Null; -- ------------------------------ -- Get the column value at position <b>Column</b> and -- return it as an <b>Int64</b>. -- Raises <b>Invalid_Type</b> if the value cannot be converted. -- Raises <b>Invalid_Column</b> if the column does not exist. -- ------------------------------ function Get_Int64 (Query : Query_Statement; Column : Natural) return Int64 is begin if Query.Proxy = null then raise Invalid_Statement with "Int64 is not supported by database driver"; end if; return Query.Proxy.Get_Int64 (Column); end Get_Int64; -- ------------------------------ -- Get the column value at position <b>Column</b> and -- return it as an <b>Integer</b>. -- Raises <b>Invalid_Type</b> if the value cannot be converted. -- Raises <b>Invalid_Column</b> if the column does not exist. -- ------------------------------ function Get_Integer (Query : Query_Statement; Column : Natural) return Integer is begin if Query.Proxy = null then return Integer (Query_Statement'Class (Query).Get_Int64 (Column)); else return Query.Proxy.Get_Integer (Column); end if; end Get_Integer; -- ------------------------------ -- Get the column value at position <b>Column</b> and -- return it as an <b>Integer</b>. -- Raises <b>Invalid_Type</b> if the value cannot be converted. -- Raises <b>Invalid_Column</b> if the column does not exist. -- ------------------------------ function Get_Natural (Query : in Query_Statement; Column : in Natural) return Natural is begin return Natural (Query.Get_Integer (Column)); end Get_Natural; -- ------------------------------ -- Get the column value at position <b>Column</b> and -- return it as an <b>Nullable_Integer</b>. -- Raises <b>Invalid_Type</b> if the value cannot be converted. -- Raises <b>Invalid_Column</b> if the column does not exist. -- ------------------------------ function Get_Nullable_Integer (Query : Query_Statement; Column : Natural) return Nullable_Integer is begin if Query.Proxy = null then return Result : Nullable_Integer do Result.Is_Null := Query_Statement'Class (Query).Is_Null (Column); if not Result.Is_Null then Result.Value := Integer (Query_Statement'Class (Query).Get_Int64 (Column)); end if; end return; else return Query.Proxy.Get_Nullable_Integer (Column); end if; end Get_Nullable_Integer; -- ------------------------------ -- Get the column value at position <b>Column</b> and -- return it as an <b>Float</b>. -- Raises <b>Invalid_Type</b> if the value cannot be converted. -- Raises <b>Invalid_Column</b> if the column does not exist. -- ------------------------------ function Get_Float (Query : Query_Statement; Column : Natural) return Float is begin if Query.Proxy = null then return Float (Query_Statement'Class (Query).Get_Double (Column)); else return Query.Proxy.Get_Float (Column); end if; end Get_Float; -- ------------------------------ -- Get the column value at position <b>Column</b> and -- return it as an <b>Long_Float</b>. -- Raises <b>Invalid_Type</b> if the value cannot be converted. -- Raises <b>Invalid_Column</b> if the column does not exist. -- ------------------------------ function Get_Double (Query : Query_Statement; Column : Natural) return Long_Float is begin if Query.Proxy = null then raise Invalid_Statement with "Double is not supported by database driver"; else return Query.Proxy.Get_Double (Column); end if; end Get_Double; -- ------------------------------ -- Get the column value at position <b>Column</b> and -- return it as an <b>Boolean</b>. -- Raises <b>Invalid_Type</b> if the value cannot be converted. -- Raises <b>Invalid_Column</b> if the column does not exist. -- ------------------------------ function Get_Boolean (Query : Query_Statement; Column : Natural) return Boolean is begin if Query.Proxy = null then return Query_Statement'Class (Query).Get_Integer (Column) /= 0; else return Query.Proxy.Get_Boolean (Column); end if; end Get_Boolean; -- ------------------------------ -- Get the column value at position <b>Column</b> and -- return it as a <b>Nullable_Boolean</b>. -- Raises <b>Invalid_Type</b> if the value cannot be converted. -- Raises <b>Invalid_Column</b> if the column does not exist. -- ------------------------------ function Get_Nullable_Boolean (Query : Query_Statement; Column : Natural) return Nullable_Boolean is begin if Query.Proxy = null then if Query_Statement'Class (Query).Is_Null (Column) then return ADO.Null_Boolean; else return (Is_Null => False, Value => Query_Statement'Class (Query).Get_Boolean (Column)); end if; else if Query.Is_Null (Column) then return ADO.Null_Boolean; end if; return (Is_Null => False, Value => Query.Proxy.Get_Boolean (Column)); end if; end Get_Nullable_Boolean; -- ------------------------------ -- Get the column value at position <b>Column</b> and -- return it as an <b>Identifier</b>. -- Raises <b>Invalid_Type</b> if the value cannot be converted. -- Raises <b>Invalid_Column</b> if the column does not exist. -- ------------------------------ function Get_Identifier (Query : Query_Statement; Column : Natural) return Identifier is begin if Query.Proxy = null then if Query_Statement'Class (Query).Is_Null (Column) then return ADO.NO_IDENTIFIER; else return Identifier (Query_Statement'Class (Query).Get_Int64 (Column)); end if; else if Query.Is_Null (Column) then return ADO.NO_IDENTIFIER; end if; return Query.Proxy.Get_Identifier (Column); end if; end Get_Identifier; -- ------------------------------ -- Get the column value at position <b>Column</b> and -- return it as an <b>Unbounded_String</b>. -- Raises <b>Invalid_Type</b> if the value cannot be converted. -- Raises <b>Invalid_Column</b> if the column does not exist. -- ------------------------------ function Get_Unbounded_String (Query : Query_Statement; Column : Natural) return Unbounded_String is begin if Query.Proxy = null then raise Invalid_Statement with "Query statement is not initialized"; end if; return Query.Proxy.Get_Unbounded_String (Column); end Get_Unbounded_String; -- ------------------------------ -- Get the column value at position <b>Column</b> and -- return it as an <b>Nullable_String</b>. -- Raises <b>Invalid_Type</b> if the value cannot be converted. -- Raises <b>Invalid_Column</b> if the column does not exist. -- ------------------------------ function Get_Nullable_String (Query : Query_Statement; Column : Natural) return Nullable_String is begin if Query.Proxy = null then return Result : Nullable_String do Result.Is_Null := Query_Statement'Class (Query).Is_Null (Column); if not Result.Is_Null then Result.Value := Query_Statement'Class (Query).Get_Unbounded_String (Column); end if; end return; else return Query.Proxy.Get_Nullable_String (Column); end if; end Get_Nullable_String; -- ------------------------------ -- Get the column value at position <b>Column</b> and -- return it as an <b>Unbounded_String</b>. -- Raises <b>Invalid_Type</b> if the value cannot be converted. -- Raises <b>Invalid_Column</b> if the column does not exist. -- ------------------------------ function Get_String (Query : Query_Statement; Column : Natural) return String is begin if Query.Proxy = null then return To_String (Query_Statement'Class (Query).Get_Unbounded_String (Column)); else return Query.Proxy.Get_String (Column); end if; end Get_String; -- ------------------------------ -- Get the column value at position <b>Column</b> and -- return it as a <b>Blob</b> reference. -- ------------------------------ function Get_Blob (Query : in Query_Statement; Column : in Natural) return ADO.Blob_Ref is begin if Query.Proxy = null then return Empty : ADO.Blob_Ref; else return Query.Proxy.Get_Blob (Column); end if; end Get_Blob; -- ------------------------------ -- Get the column value at position <b>Column</b> and -- return it as an <b>Time</b>. -- Raises <b>Invalid_Type</b> if the value cannot be converted. -- Raises <b>Invalid_Column</b> if the column does not exist. -- ------------------------------ function Get_Time (Query : Query_Statement; Column : Natural) return Ada.Calendar.Time is begin if Query.Proxy = null then raise Invalid_Statement with "Query statement is not initialized"; end if; return Query.Proxy.all.Get_Time (Column); end Get_Time; -- ------------------------------ -- Get the column value at position <b>Column</b> and -- return it as a <b>Nullable_Time</b>. -- Raises <b>Invalid_Type</b> if the value cannot be converted. -- Raises <b>Invalid_Column</b> if the column does not exist. -- ------------------------------ function Get_Nullable_Time (Query : in Query_Statement; Column : in Natural) return Nullable_Time is begin if Query.Proxy = null then return Result : Nullable_Time do Result.Is_Null := Query_Statement'Class (Query).Is_Null (Column); if not Result.Is_Null then Result.Value := Query_Statement'Class (Query).Get_Time (Column); end if; end return; end if; return Query.Proxy.all.Get_Nullable_Time (Column); end Get_Nullable_Time; -- ------------------------------ -- Get the column value at position <b>Column</b> and -- return it as an <b>Nullable_Entity_Type</b>. -- Raises <b>Invalid_Type</b> if the value cannot be converted. -- Raises <b>Invalid_Column</b> if the column does not exist. -- ------------------------------ function Get_Nullable_Entity_Type (Query : Query_Statement; Column : Natural) return Nullable_Entity_Type is begin if Query.Proxy = null then return Result : Nullable_Entity_Type do Result.Is_Null := Query_Statement'Class (Query).Is_Null (Column); if not Result.Is_Null then Result.Value := Entity_Type (Query_Statement'Class (Query).Get_Integer (Column)); end if; end return; end if; return Query.Proxy.all.Get_Nullable_Entity_Type (Column); end Get_Nullable_Entity_Type; -- ------------------------------ -- Get the column type -- Raises <b>Invalid_Column</b> if the column does not exist. -- ------------------------------ function Get_Column_Type (Query : Query_Statement; Column : Natural) return ADO.Schemas.Column_Type is begin if Query.Proxy = null then raise Invalid_Statement with "Query statement is not initialized"; end if; return Query.Proxy.Get_Column_Type (Column); end Get_Column_Type; -- ------------------------------ -- Get the column name. -- Raises <b>Invalid_Column</b> if the column does not exist. -- ------------------------------ function Get_Column_Name (Query : in Query_Statement; Column : in Natural) return String is begin if Query.Proxy = null then raise Invalid_Statement with "Query statement is not initialized"; end if; return Query.Proxy.Get_Column_Name (Column); end Get_Column_Name; -- ------------------------------ -- Get the number of columns in the result. -- ------------------------------ function Get_Column_Count (Query : in Query_Statement) return Natural is begin if Query.Proxy = null then raise Invalid_Statement with "Query statement is not initialized"; end if; return Query.Proxy.Get_Column_Count; end Get_Column_Count; overriding procedure Adjust (Stmt : in out Query_Statement) is begin if Stmt.Proxy /= null then Stmt.Proxy.Ref_Counter := Stmt.Proxy.Ref_Counter + 1; end if; end Adjust; overriding procedure Finalize (Stmt : in out Query_Statement) is procedure Free is new Ada.Unchecked_Deallocation (Object => Query_Statement'Class, Name => Query_Statement_Access); begin if Stmt.Proxy /= null then Stmt.Proxy.Ref_Counter := Stmt.Proxy.Ref_Counter - 1; if Stmt.Proxy.Ref_Counter = 0 then Free (Stmt.Proxy); end if; end if; end Finalize; -- Execute the delete query. overriding procedure Execute (Query : in out Delete_Statement) is Result : Natural; begin Log.Info ("Delete statement"); if Query.Proxy = null then raise Invalid_Statement with "Delete statement not initialized"; end if; Query.Proxy.Execute (Result); end Execute; -- ------------------------------ -- Execute the query -- Returns the number of rows deleted. -- ------------------------------ procedure Execute (Query : in out Delete_Statement; Result : out Natural) is begin Log.Info ("Delete statement"); if Query.Proxy = null then raise Invalid_Statement with "Delete statement not initialized"; end if; Query.Proxy.Execute (Result); end Execute; -- ------------------------------ -- Get the update query object associated with this update statement. -- ------------------------------ function Get_Update_Query (Update : in Update_Statement) return ADO.SQL.Update_Query_Access is begin return Update.Update; end Get_Update_Query; -- ------------------------------ -- Prepare the update/insert query to save the table field -- identified by <b>Name</b> and set it to the <b>Value</b>. -- ------------------------------ procedure Save_Field (Update : in out Update_Statement; Name : in String; Value : in Boolean) is begin Update.Update.Save_Field (Name => Name, Value => Value); end Save_Field; -- ------------------------------ -- Prepare the update/insert query to save the table field -- identified by <b>Name</b> and set it to the <b>Value</b>. -- ------------------------------ procedure Save_Field (Update : in out Update_Statement; Name : in String; Value : in Nullable_Boolean) is begin if Value.Is_Null then Update.Save_Null_Field (Name); else Update.Update.Save_Field (Name => Name, Value => Value.Value); end if; end Save_Field; -- ------------------------------ -- Prepare the update/insert query to save the table field -- identified by <b>Name</b> and set it to the <b>Value</b>. -- ------------------------------ procedure Save_Field (Update : in out Update_Statement; Name : in String; Value : in Integer) is begin Update.Update.Save_Field (Name => Name, Value => Value); end Save_Field; -- ------------------------------ -- Prepare the update/insert query to save the table field -- identified by <b>Name</b> and set it to the <b>Value</b>. -- ------------------------------ procedure Save_Field (Update : in out Update_Statement; Name : in String; Value : in Nullable_Integer) is begin if Value.Is_Null then Update.Save_Null_Field (Name); else Update.Update.Save_Field (Name => Name, Value => Value.Value); end if; end Save_Field; -- ------------------------------ -- Prepare the update/insert query to save the table field -- identified by <b>Name</b> and set it to the <b>Value</b>. -- ------------------------------ procedure Save_Field (Update : in out Update_Statement; Name : in String; Value : in Long_Long_Integer) is begin Update.Update.Save_Field (Name => Name, Value => Value); end Save_Field; -- ------------------------------ -- Prepare the update/insert query to save the table field -- identified by <b>Name</b> and set it to the <b>Value</b>. -- ------------------------------ procedure Save_Field (Update : in out Update_Statement; Name : in String; Value : in Float) is begin Update.Update.Save_Field (Name => Name, Value => Long_Float (Value)); end Save_Field; -- ------------------------------ -- Prepare the update/insert query to save the table field -- identified by <b>Name</b> and set it to the <b>Value</b>. -- ------------------------------ procedure Save_Field (Update : in out Update_Statement; Name : in String; Value : in Long_Float) is begin Update.Update.Save_Field (Name => Name, Value => Value); end Save_Field; -- ------------------------------ -- Prepare the update/insert query to save the table field -- identified by <b>Name</b> and set it to the <b>Value</b>. -- ------------------------------ procedure Save_Field (Update : in out Update_Statement; Name : in String; Value : in Identifier) is begin Update.Update.Save_Field (Name => Name, Value => Value); end Save_Field; -- ------------------------------ -- Prepare the update/insert query to save the table field -- identified by <b>Name</b> and set it to the <b>Value</b>. -- ------------------------------ procedure Save_Field (Update : in out Update_Statement; Name : in String; Value : in Entity_Type) is begin Update.Update.Save_Field (Name => Name, Value => Value); end Save_Field; -- ------------------------------ -- Prepare the update/insert query to save the table field -- identified by <b>Name</b> and set it to the <b>Value</b>. -- ------------------------------ procedure Save_Field (Update : in out Update_Statement; Name : in String; Value : in Nullable_Entity_Type) is begin if Value.Is_Null then Update.Save_Null_Field (Name); else Update.Update.Save_Field (Name => Name, Value => Value.Value); end if; end Save_Field; -- ------------------------------ -- Prepare the update/insert query to save the table field -- identified by <b>Name</b> and set it to the <b>Value</b>. -- ------------------------------ procedure Save_Field (Update : in out Update_Statement; Name : in String; Value : in Ada.Calendar.Time) is begin Update.Update.Save_Field (Name => Name, Value => Value); end Save_Field; -- ------------------------------ -- Prepare the update/insert query to save the table field -- identified by <b>Name</b> and set it to the <b>Value</b>. -- ------------------------------ procedure Save_Field (Update : in out Update_Statement; Name : in String; Value : in Nullable_Time) is begin if Value.Is_Null then Update.Save_Null_Field (Name); else Update.Save_Field (Name, Value.Value); end if; end Save_Field; -- ------------------------------ -- Prepare the update/insert query to save the table field -- identified by <b>Name</b> and set it to the <b>Value</b>. -- ------------------------------ procedure Save_Field (Update : in out Update_Statement; Name : in String; Value : in String) is begin Update.Update.Save_Field (Name => Name, Value => Value); end Save_Field; -- ------------------------------ -- Prepare the update/insert query to save the table field -- identified by <b>Name</b> and set it to the <b>Value</b>. -- ------------------------------ procedure Save_Field (Update : in out Update_Statement; Name : in String; Value : in Unbounded_String) is begin Update.Update.Save_Field (Name => Name, Value => Value); end Save_Field; -- ------------------------------ -- Prepare the update/insert query to save the table field -- identified by <b>Name</b> and set it to the <b>Value</b>. -- ------------------------------ procedure Save_Field (Update : in out Update_Statement; Name : in String; Value : in Nullable_String) is begin if Value.Is_Null then Update.Save_Null_Field (Name); else Update.Save_Field (Name, Value.Value); end if; end Save_Field; -- ------------------------------ -- Prepare the update/insert query to save the table field -- identified by <b>Name</b> and set it to the <b>Value</b>. -- ------------------------------ procedure Save_Field (Update : in out Update_Statement; Name : in String; Value : in ADO.Objects.Object_Key) is begin case Value.Of_Type is when ADO.Objects.KEY_INTEGER => declare V : constant Identifier := Objects.Get_Value (Value); begin Update.Update.Save_Field (Name => Name, Value => V); end; when ADO.Objects.KEY_STRING => declare V : constant Unbounded_String := Objects.Get_Value (Value); begin Update.Update.Save_Field (Name => Name, Value => V); end; end case; end Save_Field; -- ------------------------------ -- Prepare the update/insert query to save the table field. -- identified by <b>Name</b> and set it to the identifier key held by <b>Value</b>. -- ------------------------------ procedure Save_Field (Update : in out Update_Statement; Name : in String; Value : in ADO.Objects.Object_Ref'Class) is begin if Value.Is_Null then Update.Save_Null_Field (Name); else Update.Save_Field (Name, Value.Get_Key); end if; end Save_Field; -- ------------------------------ -- Prepare the update/insert query to save the table field -- identified by <b>Name</b> and set it to the <b>Value</b>. -- ------------------------------ procedure Save_Field (Update : in out Update_Statement; Name : in String; Value : in ADO.Blob_Ref) is begin if Value.Is_Null then Update.Save_Null_Field (Name); else Update.Update.Save_Field (Name, Value); end if; end Save_Field; -- ------------------------------ -- Prepare the update/insert query to save the table field -- identified by <b>Name</b> and set it to NULL. -- ------------------------------ procedure Save_Null_Field (Update : in out Update_Statement; Name : in String) is begin Update.Update.Save_Null_Field (Name); end Save_Null_Field; -- ------------------------------ -- Check if the update/insert query has some fields to update. -- ------------------------------ function Has_Save_Fields (Update : in Update_Statement) return Boolean is begin return Update.Update.Has_Save_Fields; end Has_Save_Fields; -- ------------------------------ -- Execute the query -- ------------------------------ overriding procedure Execute (Query : in out Update_Statement) is begin if Query.Proxy = null then raise Invalid_Statement with "Update statement not initialized"; end if; Query.Proxy.Execute; end Execute; -- ------------------------------ -- Execute the query -- ------------------------------ overriding procedure Execute (Query : in out Insert_Statement) is begin if Query.Proxy = null then raise Invalid_Statement with "Insert statement not initialized"; end if; Query.Proxy.Execute; end Execute; -- ------------------------------ -- Execute the query -- ------------------------------ procedure Execute (Query : in out Update_Statement; Result : out Integer) is begin if Query.Proxy = null then raise Invalid_Statement with "Update statement not initialized"; end if; Query.Proxy.Execute (Result); end Execute; overriding procedure Adjust (Stmt : in out Delete_Statement) is begin if Stmt.Proxy /= null then Stmt.Proxy.Ref_Counter := Stmt.Proxy.Ref_Counter + 1; end if; end Adjust; overriding procedure Finalize (Stmt : in out Delete_Statement) is procedure Free is new Ada.Unchecked_Deallocation (Object => Delete_Statement'Class, Name => Delete_Statement_Access); begin if Stmt.Proxy /= null then Stmt.Proxy.Ref_Counter := Stmt.Proxy.Ref_Counter - 1; if Stmt.Proxy.Ref_Counter = 0 then Free (Stmt.Proxy); end if; end if; end Finalize; overriding procedure Adjust (Stmt : in out Update_Statement) is begin if Stmt.Proxy /= null then Stmt.Proxy.Ref_Counter := Stmt.Proxy.Ref_Counter + 1; end if; end Adjust; overriding procedure Finalize (Stmt : in out Update_Statement) is procedure Free is new Ada.Unchecked_Deallocation (Object => Update_Statement'Class, Name => Update_Statement_Access); begin if Stmt.Proxy /= null then Stmt.Proxy.Ref_Counter := Stmt.Proxy.Ref_Counter - 1; if Stmt.Proxy.Ref_Counter = 0 then Free (Stmt.Proxy); end if; end if; end Finalize; end ADO.Statements;
with Ada.Integer_Text_IO; with Ada.Text_IO; package body Problem_18 is package IO renames Ada.Text_IO; package I_IO renames Ada.Integer_Text_IO; procedure Solve is num_rows : constant Positive := 15; cache : Array (1 .. num_rows) of Natural; input : IO.File_Type; begin for item in cache'Range loop cache(item) := 0; end loop; IO.Open(input, IO.In_File, "input/Problem_18.txt"); for row in 1 .. num_rows loop declare current_row : Array (1 .. row) of Natural; begin -- Read in line for column in 1 .. row loop I_IO.Get(input, current_row(column), 0); end loop; -- If we go backwards through the row, it allows us to perform the -- replacement in memory instead of requiring a backup copy of the -- cache. for column in reverse 1 .. row loop declare max : Natural := 0; from_right : constant Natural := cache(column) + current_row(column); begin -- coming from left if column > 1 then max := cache(column - 1) + current_row(column); end if; -- coming from right if from_right > max then max := from_right; end if; cache(column) := max; end; end loop; end; end loop; declare max : Natural := 0; begin for item in cache'Range loop if cache(item) > max then max := cache(item); end if; end loop; I_IO.Put(max); IO.New_Line; end; end Solve; end Problem_18;
package body Depends_Exercise is procedure Initialize is begin Stack_Pointer := 0; Stack := (others => 0); end Initialize; procedure Push (X : in Integer) is begin Stack_Pointer := Stack_Pointer + 1; Stack (Stack_Pointer) := X; end Push; function Is_Full return Boolean is begin return Stack_Pointer = Stack_Size; end Is_Full; function Wait_X_Return_True (X : in Integer) return Boolean is begin for I in Integer range 1 .. X loop null; end loop; return True; end Wait_X_return_True; end Depends_Exercise;
------------------------------------------------------------------------------ -- -- -- GNAT COMPILER COMPONENTS -- -- -- -- L A Y O U T -- -- -- -- B o d y -- -- -- -- Copyright (C) 2001-2020, Free Software Foundation, Inc. -- -- -- -- GNAT is free software; you can redistribute it and/or modify it under -- -- terms of the GNU General Public License as published by the Free Soft- -- -- ware Foundation; either version 3, or (at your option) any later ver- -- -- sion. GNAT is distributed in the hope that it will be useful, but WITH- -- -- OUT ANY WARRANTY; without even the implied warranty of MERCHANTABILITY -- -- or FITNESS FOR A PARTICULAR PURPOSE. See the GNU General Public License -- -- for more details. You should have received a copy of the GNU General -- -- Public License distributed with GNAT; see file COPYING3. If not, go to -- -- http://www.gnu.org/licenses for a complete copy of the license. -- -- -- -- GNAT was originally developed by the GNAT team at New York University. -- -- Extensive contributions were provided by Ada Core Technologies Inc. -- -- -- ------------------------------------------------------------------------------ with Atree; use Atree; with Debug; use Debug; with Einfo; use Einfo; with Errout; use Errout; with Opt; use Opt; with Sem_Aux; use Sem_Aux; with Sem_Ch13; use Sem_Ch13; with Sem_Eval; use Sem_Eval; with Sem_Util; use Sem_Util; with Sinfo; use Sinfo; with Snames; use Snames; with Ttypes; use Ttypes; with Uintp; use Uintp; package body Layout is ------------------------ -- Local Declarations -- ------------------------ SSU : constant Int := Ttypes.System_Storage_Unit; -- Short hand for System_Storage_Unit ----------------------- -- Local Subprograms -- ----------------------- procedure Compute_Size_Depends_On_Discriminant (E : Entity_Id); -- Given an array type or an array subtype E, compute whether its size -- depends on the value of one or more discriminants and set the flag -- Size_Depends_On_Discriminant accordingly. This need not be called -- in front end layout mode since it does the computation on its own. procedure Set_Composite_Alignment (E : Entity_Id); -- This procedure is called for record types and subtypes, and also for -- atomic array types and subtypes. If no alignment is set, and the size -- is 2 or 4 (or 8 if the word size is 8), then the alignment is set to -- match the size. ---------------------------- -- Adjust_Esize_Alignment -- ---------------------------- procedure Adjust_Esize_Alignment (E : Entity_Id) is Abits : Int; Esize_Set : Boolean; begin -- Nothing to do if size unknown if Unknown_Esize (E) then return; end if; -- Determine if size is constrained by an attribute definition clause -- which must be obeyed. If so, we cannot increase the size in this -- routine. -- For a type, the issue is whether an object size clause has been set. -- A normal size clause constrains only the value size (RM_Size) if Is_Type (E) then Esize_Set := Has_Object_Size_Clause (E); -- For an object, the issue is whether a size clause is present else Esize_Set := Has_Size_Clause (E); end if; -- If size is known it must be a multiple of the storage unit size if Esize (E) mod SSU /= 0 then -- If not, and size specified, then give error if Esize_Set then Error_Msg_NE ("size for& not a multiple of storage unit size", Size_Clause (E), E); return; -- Otherwise bump up size to a storage unit boundary else Set_Esize (E, (Esize (E) + SSU - 1) / SSU * SSU); end if; end if; -- Now we have the size set, it must be a multiple of the alignment -- nothing more we can do here if the alignment is unknown here. if Unknown_Alignment (E) then return; end if; -- At this point both the Esize and Alignment are known, so we need -- to make sure they are consistent. Abits := UI_To_Int (Alignment (E)) * SSU; if Esize (E) mod Abits = 0 then return; end if; -- Here we have a situation where the Esize is not a multiple of the -- alignment. We must either increase Esize or reduce the alignment to -- correct this situation. -- The case in which we can decrease the alignment is where the -- alignment was not set by an alignment clause, and the type in -- question is a discrete type, where it is definitely safe to reduce -- the alignment. For example: -- t : integer range 1 .. 2; -- for t'size use 8; -- In this situation, the initial alignment of t is 4, copied from -- the Integer base type, but it is safe to reduce it to 1 at this -- stage, since we will only be loading a single storage unit. if Is_Discrete_Type (Etype (E)) and then not Has_Alignment_Clause (E) then loop Abits := Abits / 2; exit when Esize (E) mod Abits = 0; end loop; Init_Alignment (E, Abits / SSU); return; end if; -- Now the only possible approach left is to increase the Esize but we -- can't do that if the size was set by a specific clause. if Esize_Set then Error_Msg_NE ("size for& is not a multiple of alignment", Size_Clause (E), E); -- Otherwise we can indeed increase the size to a multiple of alignment else Set_Esize (E, ((Esize (E) + (Abits - 1)) / Abits) * Abits); end if; end Adjust_Esize_Alignment; ------------------------------------------ -- Compute_Size_Depends_On_Discriminant -- ------------------------------------------ procedure Compute_Size_Depends_On_Discriminant (E : Entity_Id) is Indx : Node_Id; Ityp : Entity_Id; Lo : Node_Id; Hi : Node_Id; Res : Boolean := False; begin -- Loop to process array indexes Indx := First_Index (E); while Present (Indx) loop Ityp := Etype (Indx); -- If an index of the array is a generic formal type then there is -- no point in determining a size for the array type. if Is_Generic_Type (Ityp) then return; end if; Lo := Type_Low_Bound (Ityp); Hi := Type_High_Bound (Ityp); if (Nkind (Lo) = N_Identifier and then Ekind (Entity (Lo)) = E_Discriminant) or else (Nkind (Hi) = N_Identifier and then Ekind (Entity (Hi)) = E_Discriminant) then Res := True; end if; Next_Index (Indx); end loop; if Res then Set_Size_Depends_On_Discriminant (E); end if; end Compute_Size_Depends_On_Discriminant; ------------------- -- Layout_Object -- ------------------- procedure Layout_Object (E : Entity_Id) is pragma Unreferenced (E); begin -- Nothing to do for now, assume backend does the layout return; end Layout_Object; ----------------- -- Layout_Type -- ----------------- procedure Layout_Type (E : Entity_Id) is Desig_Type : Entity_Id; begin -- For string literal types, for now, kill the size always, this is -- because gigi does not like or need the size to be set ??? if Ekind (E) = E_String_Literal_Subtype then Set_Esize (E, Uint_0); Set_RM_Size (E, Uint_0); return; end if; -- For access types, set size/alignment. This is system address size, -- except for fat pointers (unconstrained array access types), where the -- size is two times the address size, to accommodate the two pointers -- that are required for a fat pointer (data and template). Note that -- E_Access_Protected_Subprogram_Type is not an access type for this -- purpose since it is not a pointer but is equivalent to a record. For -- access subtypes, copy the size from the base type since Gigi -- represents them the same way. if Is_Access_Type (E) then Desig_Type := Underlying_Type (Designated_Type (E)); -- If we only have a limited view of the type, see whether the -- non-limited view is available. if From_Limited_With (Designated_Type (E)) and then Ekind (Designated_Type (E)) = E_Incomplete_Type and then Present (Non_Limited_View (Designated_Type (E))) then Desig_Type := Non_Limited_View (Designated_Type (E)); end if; -- If Esize already set (e.g. by a size clause), then nothing further -- to be done here. if Known_Esize (E) then null; -- Access to subprogram is a strange beast, and we let the backend -- figure out what is needed (it may be some kind of fat pointer, -- including the static link for example. elsif Is_Access_Protected_Subprogram_Type (E) then null; -- For access subtypes, copy the size information from base type elsif Ekind (E) = E_Access_Subtype then Set_Size_Info (E, Base_Type (E)); Set_RM_Size (E, RM_Size (Base_Type (E))); -- For other access types, we use either address size, or, if a fat -- pointer is used (pointer-to-unconstrained array case), twice the -- address size to accommodate a fat pointer. elsif Present (Desig_Type) and then Is_Array_Type (Desig_Type) and then not Is_Constrained (Desig_Type) and then not Has_Completion_In_Body (Desig_Type) -- Debug Flag -gnatd6 says make all pointers to unconstrained thin and then not Debug_Flag_6 then Init_Size (E, 2 * System_Address_Size); -- Check for bad convention set if Warn_On_Export_Import and then (Convention (E) = Convention_C or else Convention (E) = Convention_CPP) then Error_Msg_N ("?x?this access type does not correspond to C pointer", E); end if; -- If the designated type is a limited view it is unanalyzed. We can -- examine the declaration itself to determine whether it will need a -- fat pointer. elsif Present (Desig_Type) and then Present (Parent (Desig_Type)) and then Nkind (Parent (Desig_Type)) = N_Full_Type_Declaration and then Nkind (Type_Definition (Parent (Desig_Type))) = N_Unconstrained_Array_Definition and then not Debug_Flag_6 then Init_Size (E, 2 * System_Address_Size); -- If unnesting subprograms, subprogram access types contain the -- address of both the subprogram and an activation record. But if we -- set that, we'll get a warning on different unchecked conversion -- sizes in the RTS. So leave unset in that case. elsif Unnest_Subprogram_Mode and then Is_Access_Subprogram_Type (E) then null; -- Normal case of thin pointer else Init_Size (E, System_Address_Size); end if; Set_Elem_Alignment (E); -- Scalar types: set size and alignment elsif Is_Scalar_Type (E) then -- For discrete types, the RM_Size and Esize must be set already, -- since this is part of the earlier processing and the front end is -- always required to lay out the sizes of such types (since they are -- available as static attributes). All we do is to check that this -- rule is indeed obeyed. if Is_Discrete_Type (E) then -- If the RM_Size is not set, then here is where we set it -- Note: an RM_Size of zero looks like not set here, but this -- is a rare case, and we can simply reset it without any harm. if not Known_RM_Size (E) then Set_Discrete_RM_Size (E); end if; -- If Esize for a discrete type is not set then set it if not Known_Esize (E) then declare S : Int := 8; begin loop -- If size is big enough, set it and exit if S >= RM_Size (E) then Init_Esize (E, S); exit; -- If the RM_Size is greater than System_Max_Integer_Size -- (happens only when strange values are specified by the -- user), then Esize is simply a copy of RM_Size, it will -- be further refined later on). elsif S = System_Max_Integer_Size then Set_Esize (E, RM_Size (E)); exit; -- Otherwise double possible size and keep trying else S := S * 2; end if; end loop; end; end if; -- For non-discrete scalar types, if the RM_Size is not set, then set -- it now to a copy of the Esize if the Esize is set. else if Known_Esize (E) and then Unknown_RM_Size (E) then Set_RM_Size (E, Esize (E)); end if; end if; Set_Elem_Alignment (E); -- Non-elementary (composite) types else -- For packed arrays, take size and alignment values from the packed -- array type if a packed array type has been created and the fields -- are not currently set. if Is_Array_Type (E) and then Present (Packed_Array_Impl_Type (E)) then declare PAT : constant Entity_Id := Packed_Array_Impl_Type (E); begin if Unknown_Esize (E) then Set_Esize (E, Esize (PAT)); end if; if Unknown_RM_Size (E) then Set_RM_Size (E, RM_Size (PAT)); end if; if Unknown_Alignment (E) then Set_Alignment (E, Alignment (PAT)); end if; end; end if; -- For array base types, set the component size if object size of the -- component type is known and is a small power of 2 (8, 16, 32, 64), -- since this is what will always be used, except if a very large -- alignment was specified and so Adjust_Esize_For_Alignment gave up -- because, in this case, the object size is not a multiple of the -- alignment and, therefore, cannot be the component size. if Ekind (E) = E_Array_Type and then Unknown_Component_Size (E) then declare CT : constant Entity_Id := Component_Type (E); begin -- For some reason, access types can cause trouble, So let's -- just do this for scalar types ??? if Present (CT) and then Is_Scalar_Type (CT) and then Known_Static_Esize (CT) and then not (Known_Alignment (CT) and then Alignment_In_Bits (CT) > Standard_Long_Long_Integer_Size) then declare S : constant Uint := Esize (CT); begin if Addressable (S) then Set_Component_Size (E, S); end if; end; end if; end; end if; -- For non-packed arrays set the alignment of the array to the -- alignment of the component type if it is unknown. Skip this -- in atomic/VFA case since a larger alignment may be needed. if Is_Array_Type (E) and then not Is_Packed (E) and then Unknown_Alignment (E) and then Known_Alignment (Component_Type (E)) and then Known_Static_Component_Size (E) and then Known_Static_Esize (Component_Type (E)) and then Component_Size (E) = Esize (Component_Type (E)) and then not Is_Atomic_Or_VFA (E) then Set_Alignment (E, Alignment (Component_Type (E))); end if; end if; -- Even if the backend performs the layout, we still do a little in -- the front end -- Processing for record types if Is_Record_Type (E) then -- Special remaining processing for record types with a known -- size of 16, 32, or 64 bits whose alignment is not yet set. -- For these types, we set a corresponding alignment matching -- the size if possible, or as large as possible if not. if Convention (E) = Convention_Ada and then not Debug_Flag_Q then Set_Composite_Alignment (E); end if; -- Processing for array types elsif Is_Array_Type (E) then -- For arrays that are required to be atomic/VFA, we do the same -- processing as described above for short records, since we -- really need to have the alignment set for the whole array. if Is_Atomic_Or_VFA (E) and then not Debug_Flag_Q then Set_Composite_Alignment (E); end if; -- For unpacked array types, set an alignment of 1 if we know -- that the component alignment is not greater than 1. The reason -- we do this is to avoid unnecessary copying of slices of such -- arrays when passed to subprogram parameters (see special test -- in Exp_Ch6.Expand_Actuals). if not Is_Packed (E) and then Unknown_Alignment (E) then if Known_Static_Component_Size (E) and then Component_Size (E) = 1 then Set_Alignment (E, Uint_1); end if; end if; -- We need to know whether the size depends on the value of one -- or more discriminants to select the return mechanism. Skip if -- errors are present, to prevent cascaded messages. if Serious_Errors_Detected = 0 then Compute_Size_Depends_On_Discriminant (E); end if; end if; -- Final step is to check that Esize and RM_Size are compatible if Known_Static_Esize (E) and then Known_Static_RM_Size (E) then if Esize (E) < RM_Size (E) then -- Esize is less than RM_Size. That's not good. First we test -- whether this was set deliberately with an Object_Size clause -- and if so, object to the clause. if Has_Object_Size_Clause (E) then Error_Msg_Uint_1 := RM_Size (E); Error_Msg_F ("object size is too small, minimum allowed is ^", Expression (Get_Attribute_Definition_Clause (E, Attribute_Object_Size))); end if; -- Adjust Esize up to RM_Size value declare Size : constant Uint := RM_Size (E); begin Set_Esize (E, RM_Size (E)); -- For scalar types, increase Object_Size to power of 2, but -- not less than a storage unit in any case (i.e., normally -- this means it will be storage-unit addressable). if Is_Scalar_Type (E) then if Size <= SSU then Init_Esize (E, SSU); elsif Size <= 16 then Init_Esize (E, 16); elsif Size <= 32 then Init_Esize (E, 32); else Set_Esize (E, (Size + 63) / 64 * 64); end if; -- Finally, make sure that alignment is consistent with -- the newly assigned size. while Alignment (E) * SSU < Esize (E) and then Alignment (E) < Maximum_Alignment loop Set_Alignment (E, 2 * Alignment (E)); end loop; end if; end; end if; end if; end Layout_Type; ----------------------------- -- Set_Composite_Alignment -- ----------------------------- procedure Set_Composite_Alignment (E : Entity_Id) is Siz : Uint; Align : Nat; begin -- If alignment is already set, then nothing to do if Known_Alignment (E) then return; end if; -- Alignment is not known, see if we can set it, taking into account -- the setting of the Optimize_Alignment mode. -- If Optimize_Alignment is set to Space, then we try to give packed -- records an aligmment of 1, unless there is some reason we can't. if Optimize_Alignment_Space (E) and then Is_Record_Type (E) and then Is_Packed (E) then -- No effect for record with atomic/VFA components if Is_Atomic_Or_VFA (E) then Error_Msg_N ("Optimize_Alignment has no effect for &??", E); if Is_Atomic (E) then Error_Msg_N ("\pragma ignored for atomic record??", E); else Error_Msg_N ("\pragma ignored for bolatile full access record??", E); end if; return; end if; -- No effect if independent components if Has_Independent_Components (E) then Error_Msg_N ("Optimize_Alignment has no effect for &??", E); Error_Msg_N ("\pragma ignored for record with independent components??", E); return; end if; -- No effect if any component is atomic/VFA or is a by-reference type declare Ent : Entity_Id; begin Ent := First_Component_Or_Discriminant (E); while Present (Ent) loop if Is_By_Reference_Type (Etype (Ent)) or else Is_Atomic_Or_VFA (Etype (Ent)) or else Is_Atomic_Or_VFA (Ent) then Error_Msg_N ("Optimize_Alignment has no effect for &??", E); if Is_Atomic (Etype (Ent)) or else Is_Atomic (Ent) then Error_Msg_N ("\pragma is ignored if atomic " & "components present??", E); else Error_Msg_N ("\pragma is ignored if bolatile full access " & "components present??", E); end if; return; else Next_Component_Or_Discriminant (Ent); end if; end loop; end; -- Optimize_Alignment has no effect on variable length record if not Size_Known_At_Compile_Time (E) then Error_Msg_N ("Optimize_Alignment has no effect for &??", E); Error_Msg_N ("\pragma is ignored for variable length record??", E); return; end if; -- All tests passed, we can set alignment to 1 Align := 1; -- Not a record, or not packed else -- The only other cases we worry about here are where the size is -- statically known at compile time. if Known_Static_Esize (E) then Siz := Esize (E); elsif Unknown_Esize (E) and then Known_Static_RM_Size (E) then Siz := RM_Size (E); else return; end if; -- Size is known, alignment is not set -- Reset alignment to match size if the known size is exactly 2, 4, -- or 8 storage units. if Siz = 2 * SSU then Align := 2; elsif Siz = 4 * SSU then Align := 4; elsif Siz = 8 * SSU then Align := 8; -- If Optimize_Alignment is set to Space, then make sure the -- alignment matches the size, for example, if the size is 17 -- bytes then we want an alignment of 1 for the type. elsif Optimize_Alignment_Space (E) then if Siz mod (8 * SSU) = 0 then Align := 8; elsif Siz mod (4 * SSU) = 0 then Align := 4; elsif Siz mod (2 * SSU) = 0 then Align := 2; else Align := 1; end if; -- If Optimize_Alignment is set to Time, then we reset for odd -- "in between sizes", for example a 17 bit record is given an -- alignment of 4. elsif Optimize_Alignment_Time (E) and then Siz > SSU and then Siz <= 8 * SSU then if Siz <= 2 * SSU then Align := 2; elsif Siz <= 4 * SSU then Align := 4; else -- Siz <= 8 * SSU then Align := 8; end if; -- No special alignment fiddling needed else return; end if; end if; -- Here we have Set Align to the proposed improved value. Make sure the -- value set does not exceed Maximum_Alignment for the target. if Align > Maximum_Alignment then Align := Maximum_Alignment; end if; -- Further processing for record types only to reduce the alignment -- set by the above processing in some specific cases. We do not -- do this for atomic/VFA records, since we need max alignment there, if Is_Record_Type (E) and then not Is_Atomic_Or_VFA (E) then -- For records, there is generally no point in setting alignment -- higher than word size since we cannot do better than move by -- words in any case. Omit this if we are optimizing for time, -- since conceivably we may be able to do better. if Align > System_Word_Size / SSU and then not Optimize_Alignment_Time (E) then Align := System_Word_Size / SSU; end if; -- Check components. If any component requires a higher alignment, -- then we set that higher alignment in any case. Don't do this if we -- have Optimize_Alignment set to Space. Note that covers the case of -- packed records, where we already set alignment to 1. if not Optimize_Alignment_Space (E) then declare Comp : Entity_Id; begin Comp := First_Component (E); while Present (Comp) loop if Known_Alignment (Etype (Comp)) then declare Calign : constant Uint := Alignment (Etype (Comp)); begin -- The cases to process are when the alignment of the -- component type is larger than the alignment we have -- so far, and either there is no component clause for -- the component, or the length set by the component -- clause matches the length of the component type. if Calign > Align and then (Unknown_Esize (Comp) or else (Known_Static_Esize (Comp) and then Esize (Comp) = Calign * SSU)) then Align := UI_To_Int (Calign); end if; end; end if; Next_Component (Comp); end loop; end; end if; end if; -- Set chosen alignment, and increase Esize if necessary to match the -- chosen alignment. Set_Alignment (E, UI_From_Int (Align)); if Known_Static_Esize (E) and then Esize (E) < Align * SSU then Set_Esize (E, UI_From_Int (Align * SSU)); end if; end Set_Composite_Alignment; -------------------------- -- Set_Discrete_RM_Size -- -------------------------- procedure Set_Discrete_RM_Size (Def_Id : Entity_Id) is FST : constant Entity_Id := First_Subtype (Def_Id); begin -- All discrete types except for the base types in standard are -- constrained, so indicate this by setting Is_Constrained. Set_Is_Constrained (Def_Id); -- Set generic types to have an unknown size, since the representation -- of a generic type is irrelevant, in view of the fact that they have -- nothing to do with code. if Is_Generic_Type (Root_Type (FST)) then Set_RM_Size (Def_Id, Uint_0); -- If the subtype statically matches the first subtype, then it is -- required to have exactly the same layout. This is required by -- aliasing considerations. elsif Def_Id /= FST and then Subtypes_Statically_Match (Def_Id, FST) then Set_RM_Size (Def_Id, RM_Size (FST)); Set_Size_Info (Def_Id, FST); -- In all other cases the RM_Size is set to the minimum size. Note that -- this routine is never called for subtypes for which the RM_Size is -- set explicitly by an attribute clause. else Set_RM_Size (Def_Id, UI_From_Int (Minimum_Size (Def_Id))); end if; end Set_Discrete_RM_Size; ------------------------ -- Set_Elem_Alignment -- ------------------------ procedure Set_Elem_Alignment (E : Entity_Id; Align : Nat := 0) is begin -- Do not set alignment for packed array types, this is handled in the -- backend. if Is_Packed_Array_Impl_Type (E) then return; -- If there is an alignment clause, then we respect it elsif Has_Alignment_Clause (E) then return; -- If the size is not set, then don't attempt to set the alignment. This -- happens in the backend layout case for access-to-subprogram types. elsif not Known_Static_Esize (E) then return; -- For access types, do not set the alignment if the size is less than -- the allowed minimum size. This avoids cascaded error messages. elsif Is_Access_Type (E) and then Esize (E) < System_Address_Size then return; end if; -- We attempt to set the alignment in all the other cases declare S : Int; A : Nat; M : Nat; begin -- The given Esize may be larger that int'last because of a previous -- error, and the call to UI_To_Int will fail, so use default. if Esize (E) / SSU > Ttypes.Maximum_Alignment then S := Ttypes.Maximum_Alignment; -- If this is an access type and the target doesn't have strict -- alignment, then cap the alignment to that of a regular access -- type. This will avoid giving fat pointers twice the usual -- alignment for no practical benefit since the misalignment doesn't -- really matter. elsif Is_Access_Type (E) and then not Target_Strict_Alignment then S := System_Address_Size / SSU; else S := UI_To_Int (Esize (E)) / SSU; end if; -- If the default alignment of "double" floating-point types is -- specifically capped, enforce the cap. if Ttypes.Target_Double_Float_Alignment > 0 and then S = 8 and then Is_Floating_Point_Type (E) then M := Ttypes.Target_Double_Float_Alignment; -- If the default alignment of "double" or larger scalar types is -- specifically capped, enforce the cap. elsif Ttypes.Target_Double_Scalar_Alignment > 0 and then S >= 8 and then Is_Scalar_Type (E) then M := Ttypes.Target_Double_Scalar_Alignment; -- Otherwise enforce the overall alignment cap else M := Ttypes.Maximum_Alignment; end if; -- We calculate the alignment as the largest power-of-two multiple -- of System.Storage_Unit that does not exceed the object size of -- the type and the maximum allowed alignment, if none was specified. -- Otherwise we only cap it to the maximum allowed alignment. if Align = 0 then A := 1; while 2 * A <= S and then 2 * A <= M loop A := 2 * A; end loop; else A := Nat'Min (Align, M); end if; -- If alignment is currently not set, then we can safely set it to -- this new calculated value. if Unknown_Alignment (E) then Init_Alignment (E, A); -- Cases where we have inherited an alignment -- For constructed types, always reset the alignment, these are -- generally invisible to the user anyway, and that way we are -- sure that no constructed types have weird alignments. elsif not Comes_From_Source (E) then Init_Alignment (E, A); -- If this inherited alignment is the same as the one we computed, -- then obviously everything is fine, and we do not need to reset it. elsif Alignment (E) = A then null; else -- Now we come to the difficult cases of subtypes for which we -- have inherited an alignment different from the computed one. -- We resort to the presence of alignment and size clauses to -- guide our choices. Note that they can generally be present -- only on the first subtype (except for Object_Size) and that -- we need to look at the Rep_Item chain to correctly handle -- derived types. declare FST : constant Entity_Id := First_Subtype (E); function Has_Attribute_Clause (E : Entity_Id; Id : Attribute_Id) return Boolean; -- Wrapper around Get_Attribute_Definition_Clause which tests -- for the presence of the specified attribute clause. -------------------------- -- Has_Attribute_Clause -- -------------------------- function Has_Attribute_Clause (E : Entity_Id; Id : Attribute_Id) return Boolean is begin return Present (Get_Attribute_Definition_Clause (E, Id)); end Has_Attribute_Clause; begin -- If the alignment comes from a clause, then we respect it. -- Consider for example: -- type R is new Character; -- for R'Alignment use 1; -- for R'Size use 16; -- subtype S is R; -- Here R has a specified size of 16 and a specified alignment -- of 1, and it seems right for S to inherit both values. if Has_Attribute_Clause (FST, Attribute_Alignment) then null; -- Now we come to the cases where we have inherited alignment -- and size, and overridden the size but not the alignment. elsif Has_Attribute_Clause (FST, Attribute_Size) or else Has_Attribute_Clause (FST, Attribute_Object_Size) or else Has_Attribute_Clause (E, Attribute_Object_Size) then -- This is tricky, it might be thought that we should try to -- inherit the alignment, since that's what the RM implies, -- but that leads to complex rules and oddities. Consider -- for example: -- type R is new Character; -- for R'Size use 16; -- It seems quite bogus in this case to inherit an alignment -- of 1 from the parent type Character. Furthermore, if that -- is what the programmer really wanted for some odd reason, -- then he could specify the alignment directly. -- Moreover we really don't want to inherit the alignment in -- the case of a specified Object_Size for a subtype, since -- there would be no way of overriding to give a reasonable -- value (as we don't have an Object_Alignment attribute). -- Consider for example: -- subtype R is Character; -- for R'Object_Size use 16; -- If we inherit the alignment of 1, then it will be very -- inefficient for the subtype and this cannot be fixed. -- So we make the decision that if Size (or Object_Size) is -- given and the alignment is not specified with a clause, -- we reset the alignment to the appropriate value for the -- specified size. This is a nice simple rule to implement -- and document. -- There is a theoretical glitch, which is that a confirming -- size clause could now change the alignment, which, if we -- really think that confirming rep clauses should have no -- effect, could be seen as a no-no. However that's already -- implemented by Alignment_Check_For_Size_Change so we do -- not change the philosophy here. -- Historical note: in versions prior to Nov 6th, 2011, an -- odd distinction was made between inherited alignments -- larger than the computed alignment (where the larger -- alignment was inherited) and inherited alignments smaller -- than the computed alignment (where the smaller alignment -- was overridden). This was a dubious fix to get around an -- ACATS problem which seems to have disappeared anyway, and -- in any case, this peculiarity was never documented. Init_Alignment (E, A); -- If no Size (or Object_Size) was specified, then we have -- inherited the object size, so we should also inherit the -- alignment and not modify it. else null; end if; end; end if; end; end Set_Elem_Alignment; end Layout;
package body CSV is function Line(S: String; Separator: Character := ',') return Row is (Length => S'Length, Str => S, Fst => S'First, Lst => S'Last, Nxt => S'First, Sep => Separator); function Item(R: Row) return String is (R.Str(R.Fst .. R.Lst)); function Next(R: in out Row) return Boolean is Last: Natural := R.Nxt; begin R.Fst := R.Nxt; while Last <= R.Str'Last and then R.Str(Last) /= R.Sep loop -- find Separator Last := Last + 1; end loop; R.Lst := Last - 1; R.Nxt := Last + 1; return (R.Fst <= R.Str'Last); end Next; end CSV;
pragma License (Unrestricted); -- implementation unit specialized for POSIX (Darwin, FreeBSD, or Linux) with Ada.Command_Line; with Ada.IO_Exceptions; with Ada.Streams.Naked_Stream_IO; with C.sys.types; package System.Native_Processes is use type C.sys.types.pid_t; subtype Command_Type is C.char_ptr_ptr; procedure Free (X : in out Command_Type); function Image (Command : Command_Type) return String; procedure Value ( Command_Line : String; Command : aliased out Command_Type); procedure Append ( Command : aliased in out Command_Type; New_Item : String); procedure Append ( Command : aliased in out Command_Type; First : Positive; Last : Natural); -- Copy arguments from argv. procedure Append_Argument ( Command_Line : in out String; Last : in out Natural; Argument : String); -- Child process type type Process is new C.sys.types.pid_t; Null_Process : constant Process := -1; -- Child process management function Is_Open (Child : Process) return Boolean; pragma Inline (Is_Open); Process_Disable_Controlled : constant Boolean := True; procedure Create ( Child : in out Process; Command : Command_Type; Directory : String := ""; Search_Path : Boolean := False; Input : Ada.Streams.Naked_Stream_IO.Non_Controlled_File_Type; Output : Ada.Streams.Naked_Stream_IO.Non_Controlled_File_Type; Error : Ada.Streams.Naked_Stream_IO.Non_Controlled_File_Type); procedure Create ( Child : in out Process; Command_Line : String; Directory : String := ""; Search_Path : Boolean := False; Input : Ada.Streams.Naked_Stream_IO.Non_Controlled_File_Type; Output : Ada.Streams.Naked_Stream_IO.Non_Controlled_File_Type; Error : Ada.Streams.Naked_Stream_IO.Non_Controlled_File_Type); procedure Close (Child : in out Process) is null; pragma Inline (Close); -- [gcc-7] can not skip calling null procedure procedure Wait ( Child : in out Process; Status : out Ada.Command_Line.Exit_Status); procedure Wait_Immediate ( Child : in out Process; Terminated : out Boolean; Status : out Ada.Command_Line.Exit_Status); procedure Abort_Process (Child : Process); procedure Forced_Abort_Process (Child : Process); -- Pass a command to the shell procedure Shell ( Command : Command_Type; Status : out Ada.Command_Line.Exit_Status); procedure Shell ( Command_Line : String; Status : out Ada.Command_Line.Exit_Status); -- Exceptions Name_Error : exception renames Ada.IO_Exceptions.Name_Error; Use_Error : exception renames Ada.IO_Exceptions.Use_Error; Device_Error : exception renames Ada.IO_Exceptions.Device_Error; end System.Native_Processes;
-- C38005A.ADA -- Grant of Unlimited Rights -- -- Under contracts F33600-87-D-0337, F33600-84-D-0280, MDA903-79-C-0687, -- F08630-91-C-0015, and DCA100-97-D-0025, the U.S. Government obtained -- unlimited rights in the software and documentation contained herein. -- Unlimited rights are defined in DFAR 252.227-7013(a)(19). By making -- this public release, the Government intends to confer upon all -- recipients unlimited rights equal to those held by the Government. -- These rights include rights to use, duplicate, release or disclose the -- released technical data and computer software in whole or in part, in -- any manner and for any purpose whatsoever, and to have or permit others -- to do so. -- -- DISCLAIMER -- -- ALL MATERIALS OR INFORMATION HEREIN RELEASED, MADE AVAILABLE OR -- DISCLOSED ARE AS IS. THE GOVERNMENT MAKES NO EXPRESS OR IMPLIED -- WARRANTY AS TO ANY MATTER WHATSOEVER, INCLUDING THE CONDITIONS OF THE -- SOFTWARE, DOCUMENTATION OR OTHER INFORMATION RELEASED, MADE AVAILABLE -- OR DISCLOSED, OR THE OWNERSHIP, MERCHANTABILITY, OR FITNESS FOR A -- PARTICULAR PURPOSE OF SAID MATERIAL. --* -- CHECK THAT ALL (UNINITIALIZED) ACCESS OBJECTS ARE INITIALIZED -- TO NULL BY DEFAULT. VARIABLES, ARRAYS, RECORDS, ARRAYS OF RECORDS, -- ARRAYS OF ARRAYS, RECORDS WITH ARRAYS AND RECORD COMPONENTS -- ARE ALL CHECKED. -- FUNCTION RESULTS (I.E. RETURNED FROM IMPLICIT FUNCTION RETURN) -- ARE NOT CHECKED. -- DAT 3/6/81 -- VKG 1/5/83 -- SPS 2/17/83 WITH REPORT; USE REPORT; PROCEDURE C38005A IS TYPE REC; TYPE ACC_REC IS ACCESS REC; TYPE VECTOR IS ARRAY ( NATURAL RANGE <> ) OF ACC_REC; TYPE REC IS RECORD VECT : VECTOR (3 .. 5); END RECORD; TYPE ACC_VECT IS ACCESS VECTOR; TYPE ARR_REC IS ARRAY (1 .. 2) OF REC; TYPE REC2; TYPE ACC_REC2 IS ACCESS REC2; TYPE REC2 IS RECORD C1 : ACC_REC; C2 : ACC_VECT; C3 : ARR_REC; C4 : REC; C5 : ACC_REC2; END RECORD; N_REC : REC; N_ACC_REC : ACC_REC; N_VEC : VECTOR (3 .. IDENT_INT (5)); N_ACC_VECT : ACC_VECT; N_ARR_REC : ARR_REC; N_REC2 : REC2; N_ACC_REC2 : ACC_REC2; N_ARR : ARRAY (1..2) OF VECTOR (1..2); Q : REC2 := (C1 => NEW REC, C2 => NEW VECTOR'(NEW REC, NEW REC'(N_REC)), C3 => (1 | 2 => (VECT=>(3|4=> NEW REC, 5=>N_ACC_REC) )), C4 => N_REC2.C4, C5 => NEW REC2'(N_REC2)); BEGIN TEST ("C38005A", "DEFAULT VALUE FOR ACCESS OBJECTS IS NULL"); IF N_REC /= REC'(VECT => (3..5 => NULL)) THEN FAILED ("INCORRECT ACCESS TYPE INITIALIZATION - 1"); END IF; IF N_ACC_REC /= NULL THEN FAILED ("INCORRECT ACCESS TYPE INITIALIZATION - 2"); END IF; IF N_VEC /= N_REC.VECT THEN FAILED ("INCORRECT ACCESS TYPE INITIALIZATION - 3"); END IF; IF N_ARR /= ((NULL, NULL), (NULL, NULL)) THEN FAILED ("INCORRECT ACCESS TYPE INITIALIZATION - 4"); END IF; IF N_ACC_VECT /= NULL THEN FAILED ("INCORRECT ACCESS TYPE INITIALIZATION - 5"); END IF; IF N_ARR_REC /= (N_REC, N_REC) THEN FAILED ("INCORRECT ACCESS TYPE INITIALIZATION - 6"); END IF; IF N_REC2 /= (NULL, NULL, N_ARR_REC, N_REC, NULL) THEN FAILED ("INCORRECT ACCESS TYPE INITIALIZATION - 7"); END IF; IF N_ACC_REC2 /= NULL THEN FAILED ("INCORRECT ACCESS TYPE INITIALIZATION - 8"); END IF; IF Q /= (Q.C1, Q.C2, (Q.C3(1), Q.C3(2)), N_REC, Q.C5) THEN FAILED ("INCORRECT ACCESS TYPE INITIALIZATION - 9"); END IF; IF Q.C1.ALL /= N_REC THEN FAILED ("INCORRECT ACCESS TYPE INITIALIZATION - 10"); END IF; IF Q.C2.ALL(0).ALL /= N_REC THEN FAILED ("INCORRECT ACCESS TYPE INITIALIZATION - 11"); END IF; IF Q.C2(1).VECT /= N_VEC THEN FAILED ("INCORRECT ACCESS TYPE INITIALIZATION - 12"); END IF; IF Q.C3(2).VECT /= (3 => Q.C3(2).VECT(3), 4 => Q.C3(2).VECT(4), 5=>NULL) THEN FAILED ("INCORRECT ACCESS TYPE INITIALIZATION - 13"); END IF; IF Q.C3(2).VECT(3).ALL /= N_REC THEN FAILED ("INCORRECT ACCESS TYPE INITIALIZATION - 14"); END IF; IF Q.C5.ALL /= N_REC2 THEN FAILED ("INCORRECT ACCESS TYPE INITIALIZATION - 15"); END IF; DECLARE PROCEDURE T (R : OUT REC2) IS BEGIN NULL; END T; BEGIN N_REC2 := Q; T(Q); IF Q /= N_REC2 THEN FAILED ("INCORRECT OUT PARM INIT 2"); END IF; END; RESULT; END C38005A;
package Agar.Core.Config is function Load return Boolean; function Save return Boolean; end Agar.Core.Config;
----------------------------------------------------------------------- -- are-generator-c-tests -- Tests for C generator -- Copyright (C) 2021 Stephane Carrez -- Written by Stephane Carrez (Stephane.Carrez@gmail.com) -- -- Licensed under the Apache License, Version 2.0 (the "License"); -- you may not use this file except in compliance with the License. -- You may obtain a copy of the License at -- -- http://www.apache.org/licenses/LICENSE-2.0 -- -- Unless required by applicable law or agreed to in writing, software -- distributed under the License is distributed on an "AS IS" BASIS, -- WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. -- See the License for the specific language governing permissions and -- limitations under the License. ----------------------------------------------------------------------- with Ada.Directories; with Util.Test_Caller; package body Are.Generator.C.Tests is Expect_Dir : constant String := "regtests/expect/c/"; function Tool return String; package Caller is new Util.Test_Caller (Test, "Are.Generator.C"); function Tool return String is begin return "bin/are" & Are.Testsuite.EXE; end Tool; procedure Add_Tests (Suite : in Util.Tests.Access_Test_Suite) is begin Caller.Add_Test (Suite, "Test Are.Generate_C1", Test_Generate_C1'Access); Caller.Add_Test (Suite, "Test Are.Generate_C2", Test_Generate_C2'Access); Caller.Add_Test (Suite, "Test Are.Generate_Lines", Test_Generate_Lines'Access); end Add_Tests; procedure Test_Generate_C1 (T : in out Test) is Dir : constant String := Util.Tests.Get_Test_Path (""); Web : constant String := "regtests/files/test-c-1/web"; Result : Ada.Strings.Unbounded.Unbounded_String; begin -- Generate the resources.ad[bs] files T.Execute (Tool & " --lang=c -o " & Dir & " --name-access " & "--resource=Resources1 --fileset '**/*' " & Web, Result); T.Assert (Ada.Directories.Exists (Ada.Directories.Compose (Dir, "resources1.h")), "Resource file 'resources1.h' not generated"); T.Assert (Ada.Directories.Exists (Ada.Directories.Compose (Dir, "resources1.c")), "Resource file 'resources1.c' not generated"); -- Build the test program. T.Execute ("make -C regtests/files/test-c-1", Result); T.Assert (Ada.Directories.Exists ("bin/test-c-1" & Are.Testsuite.EXE), "Binary file 'bin/test-c-1' not created"); T.Execute ("bin/test-c-1" & Are.Testsuite.EXE, Result); Util.Tests.Assert_Matches (T, "PASS: body { background: #eee; }p" & " { color: #2a2a2a; }", Result, "Invalid generation"); end Test_Generate_C1; procedure Test_Generate_C2 (T : in out Test) is Dir : constant String := Util.Tests.Get_Test_Path (""); Web : constant String := "regtests/files/test-c-2/web"; Result : Ada.Strings.Unbounded.Unbounded_String; begin -- Generate the resources.ad[bs] files T.Execute (Tool & " --lang=c -o " & Dir & " --name-access --var-prefix Id_ --resource=Resources2 --fileset '**/*' " & Web, Result); T.Assert (Ada.Directories.Exists (Ada.Directories.Compose (Dir, "resources2.h")), "Resource file 'resources2.h' not generated"); T.Assert (Ada.Directories.Exists (Ada.Directories.Compose (Dir, "resources2.c")), "Resource file 'resources2.c' not generated"); -- Build the test program. T.Execute ("make -C regtests/files/test-c-2", Result); T.Assert (Ada.Directories.Exists ("bin/test-c-2" & Are.Testsuite.EXE), "Binary file 'bin/test-c-2' not created"); T.Execute ("bin/test-c-2" & Are.Testsuite.EXE, Result); Util.Tests.Assert_Matches (T, "PASS: body { background: #eee; }p" & " { color: #2a2a2a; }", Result, "Invalid generation"); end Test_Generate_C2; procedure Test_Generate_Lines (T : in out Test) is Dir : constant String := Util.Tests.Get_Test_Path (""); Rule : constant String := "regtests/files/package-lines.xml"; Files : constant String := "regtests/files"; Lines_H : constant String := Ada.Directories.Compose (Dir, "lines.h"); Lines_C : constant String := Ada.Directories.Compose (Dir, "lines.c"); Result : Ada.Strings.Unbounded.Unbounded_String; begin -- Generate the lines.ads files T.Execute (Tool & " -o " & Dir & " --lang=c --content-only --var-prefix Id_ --rule=" & Rule & " " & Files & "/lines-empty", Result); T.Assert (Ada.Directories.Exists (Lines_H), "Resource file 'lines.h' not generated"); Util.Tests.Assert_Equal_Files (T => T, Expect => Util.Tests.Get_Path (Expect_Dir & "lines-empty.h"), Test => Lines_H, Message => "Invalid lines-empty.h generation"); T.Assert (Ada.Directories.Exists (Lines_C), "Resource file 'lines.c' not generated"); Util.Tests.Assert_Equal_Files (T => T, Expect => Util.Tests.Get_Path (Expect_Dir & "lines-empty.c"), Test => Lines_C, Message => "Invalid lines-empty.c generation"); Ada.Directories.Delete_File (Lines_H); Ada.Directories.Delete_File (Lines_C); T.Execute (Tool & " -o " & Dir & " --lang=c --content-only --var-prefix Id_ --rule=" & Rule & " " & Files & "/lines-single", Result); T.Assert (Ada.Directories.Exists (Lines_H), "Resource file 'lines.h' not generated"); Util.Tests.Assert_Equal_Files (T => T, Expect => Util.Tests.Get_Path (Expect_Dir & "lines-single.h"), Test => Lines_H, Message => "Invalid lines-single.h generation"); T.Assert (Ada.Directories.Exists (Lines_C), "Resource file 'lines.c' not generated"); Util.Tests.Assert_Equal_Files (T => T, Expect => Util.Tests.Get_Path (Expect_Dir & "lines-single.c"), Test => Lines_C, Message => "Invalid lines-single.c generation"); Ada.Directories.Delete_File (Lines_H); Ada.Directories.Delete_File (Lines_C); T.Execute (Tool & " -o " & Dir & " --lang=c --content-only --var-prefix Id_ --rule=" & Rule & " " & Files & "/lines-multiple", Result); T.Assert (Ada.Directories.Exists (Lines_H), "Resource file 'lines.h' not generated"); Util.Tests.Assert_Equal_Files (T => T, Expect => Util.Tests.Get_Path (Expect_Dir & "lines-multiple.h"), Test => Lines_H, Message => "Invalid lines-multiple.h generation"); T.Assert (Ada.Directories.Exists (Lines_C), "Resource file 'lines.c' not generated"); Util.Tests.Assert_Equal_Files (T => T, Expect => Util.Tests.Get_Path (Expect_Dir & "lines-multiple.c"), Test => Lines_C, Message => "Invalid lines-multiple.c generation"); end Test_Generate_Lines; end Are.Generator.C.Tests;
------------------------------------------------------------------------------ -- Copyright (c) 2014, Natacha Porté -- -- -- -- Permission to use, copy, modify, and distribute this software for any -- -- purpose with or without fee is hereby granted, provided that the above -- -- copyright notice and this permission notice appear in all copies. -- -- -- -- THE SOFTWARE IS PROVIDED "AS IS" AND THE AUTHOR DISCLAIMS ALL WARRANTIES -- -- WITH REGARD TO THIS SOFTWARE INCLUDING ALL IMPLIED WARRANTIES OF -- -- MERCHANTABILITY AND FITNESS. IN NO EVENT SHALL THE AUTHOR BE LIABLE FOR -- -- ANY SPECIAL, DIRECT, INDIRECT, OR CONSEQUENTIAL DAMAGES OR ANY DAMAGES -- -- WHATSOEVER RESULTING FROM LOSS OF USE, DATA OR PROFITS, WHETHER IN AN -- -- ACTION OF CONTRACT, NEGLIGENCE OR OTHER TORTIOUS ACTION, ARISING OUT OF -- -- OR IN CONNECTION WITH THE USE OR PERFORMANCE OF THIS SOFTWARE. -- ------------------------------------------------------------------------------ with System.Storage_Pools; with GNAT.Debug_Pools; with Natools.S_Expressions.Atom_Buffers; with Natools.S_Expressions.Caches; with Natools.S_Expressions.Generic_Caches; with Natools.S_Expressions.Lockable.Tests; with Natools.S_Expressions.Parsers; with Natools.S_Expressions.Printers; with Natools.S_Expressions.Test_Tools; package body Natools.S_Expressions.Cache_Tests is Pool : GNAT.Debug_Pools.Debug_Pool; package Debug_Caches is new Generic_Caches (System.Storage_Pools.Root_Storage_Pool'Class (Pool), System.Storage_Pools.Root_Storage_Pool'Class (Pool), System.Storage_Pools.Root_Storage_Pool'Class (Pool)); procedure Inject_Test (Printer : in out Printers.Printer'Class); -- Inject test S-expression into Pr function Canonical_Test return Atom; -- Return canonical encoding of test S-expression above ------------------------ -- Helper Subprograms -- ------------------------ function Canonical_Test return Atom is begin return To_Atom ("5:begin(()(4:head4:tail))3:end"); end Canonical_Test; procedure Inject_Test (Printer : in out Printers.Printer'Class) is begin Printer.Append_Atom (To_Atom ("begin")); Printer.Open_List; Printer.Open_List; Printer.Close_List; Printer.Open_List; Printer.Append_Atom (To_Atom ("head")); Printer.Append_Atom (To_Atom ("tail")); Printer.Close_List; Printer.Close_List; Printer.Append_Atom (To_Atom ("end")); end Inject_Test; ------------------------- -- Complete Test Suite -- ------------------------- procedure All_Tests (Report : in out NT.Reporter'Class) is begin Default_Instantiation (Report); Debug_Instantiation (Report); Descriptor_Interface (Report); Lockable_Interface (Report); Replayable_Interface (Report); Duplication (Report); end All_Tests; ----------------------- -- Inidividual Tests -- ----------------------- procedure Debug_Instantiation (Report : in out NT.Reporter'Class) is Test : NT.Test := Report.Item ("Debug instantiation"); Buffer : Atom_Buffers.Atom_Buffer; procedure Put (S : in String); procedure Put_Line (S : in String); procedure Flush; procedure Info_Pool; procedure Put (S : in String) is begin Buffer.Append (To_Atom (S)); end Put; procedure Put_Line (S : in String) is begin Test.Info (To_String (Buffer.Data) & S); Buffer.Soft_Reset; end Put_Line; procedure Flush is begin if Buffer.Length > 0 then Test.Info (To_String (Buffer.Data)); end if; Buffer.Hard_Reset; end Flush; procedure Info_Pool is procedure Print_Info is new GNAT.Debug_Pools.Print_Info; begin Print_Info (Pool); Flush; end Info_Pool; begin declare Cache, Deep, Shallow : Debug_Caches.Reference; begin declare Empty_Cursor : Debug_Caches.Cursor := Deep.First; Event : Events.Event; begin Event := Empty_Cursor.Current_Event; if Event /= Events.End_Of_Input then Test.Fail ("Unexpected Empty_Cursor.Current_Event " & Events.Event'Image (Event) & " (expected End_Of_Input)"); end if; Test_Tools.Next_And_Check (Test, Empty_Cursor, Events.End_Of_Input, 0); end; Inject_Test (Cache); declare First : Debug_Caches.Cursor := Cache.First; Output : aliased Test_Tools.Memory_Stream; Pr : Printers.Canonical (Output'Access); begin Output.Set_Expected (Canonical_Test); Printers.Transfer (First, Pr); Output.Check_Stream (Test); end; Deep := Cache.Duplicate; Shallow := Deep; Deep.Append_Atom (To_Atom ("more")); declare Other : Debug_Caches.Cursor := Deep.First; Output : aliased Test_Tools.Memory_Stream; Pr : Printers.Canonical (Output'Access); begin Output.Set_Expected (Canonical_Test & To_Atom ("4:more")); Printers.Transfer (Other, Pr); Output.Check_Stream (Test); end; declare Second : Debug_Caches.Cursor := Cache.First; Output : aliased Test_Tools.Memory_Stream; Pr : Printers.Canonical (Output'Access); begin Output.Set_Expected (Canonical_Test); Printers.Transfer (Second, Pr); Output.Check_Stream (Test); end; declare Second_Other : Debug_Caches.Cursor := Shallow.First; Output : aliased Test_Tools.Memory_Stream; Pr : Printers.Canonical (Output'Access); begin Output.Set_Expected (Canonical_Test & To_Atom ("4:more")); Printers.Transfer (Second_Other, Pr); Output.Check_Stream (Test); end; end; Info_Pool; exception when Error : others => Test.Report_Exception (Error); end Debug_Instantiation; procedure Default_Instantiation (Report : in out NT.Reporter'Class) is Test : NT.Test := Report.Item ("Default instantiation"); begin declare Cache, Deep, Shallow : Caches.Reference; begin declare Empty_Cursor : Caches.Cursor := Deep.First; Event : Events.Event; begin Event := Empty_Cursor.Current_Event; if Event /= Events.End_Of_Input then Test.Fail ("Unexpected Empty_Cursor.Current_Event " & Events.Event'Image (Event) & " (expected End_Of_Input)"); end if; Test_Tools.Next_And_Check (Test, Empty_Cursor, Events.End_Of_Input, 0); end; Inject_Test (Cache); declare First : Caches.Cursor := Cache.First; Output : aliased Test_Tools.Memory_Stream; Pr : Printers.Canonical (Output'Access); begin Output.Set_Expected (Canonical_Test); Printers.Transfer (First, Pr); Output.Check_Stream (Test); end; Deep := Cache.Duplicate; Shallow := Deep; Deep.Append_Atom (To_Atom ("more")); declare Other : Caches.Cursor := Deep.First; Output : aliased Test_Tools.Memory_Stream; Pr : Printers.Canonical (Output'Access); begin Output.Set_Expected (Canonical_Test & To_Atom ("4:more")); Printers.Transfer (Other, Pr); Output.Check_Stream (Test); end; declare Second : Caches.Cursor := Cache.First; Output : aliased Test_Tools.Memory_Stream; Pr : Printers.Canonical (Output'Access); begin Output.Set_Expected (Canonical_Test); Printers.Transfer (Second, Pr); Output.Check_Stream (Test); end; declare Second_Other : Caches.Cursor := Shallow.First; Output : aliased Test_Tools.Memory_Stream; Pr : Printers.Canonical (Output'Access); begin Output.Set_Expected (Canonical_Test & To_Atom ("4:more")); Printers.Transfer (Second_Other, Pr); Output.Check_Stream (Test); end; end; exception when Error : others => Test.Report_Exception (Error); end Default_Instantiation; procedure Descriptor_Interface (Report : in out NT.Reporter'Class) is Test : NT.Test := Report.Item ("Descriptor insterface"); begin declare Cache : Caches.Reference; First, Second : Caches.Cursor; begin Cache.Append_Atom (To_Atom ("begin")); Cache.Open_List; Cache.Append_Atom (To_Atom ("command")); Cache.Open_List; Cache.Append_Atom (To_Atom ("first")); Cache.Append_Atom (To_Atom ("second")); Cache.Close_List; Cache.Close_List; Cache.Append_Atom (To_Atom ("end")); First := Cache.First; Second := First; Test_Tools.Test_Atom_Accessors (Test, First, To_Atom ("begin"), 0); Test_Tools.Test_Atom_Accessors (Test, Second, To_Atom ("begin"), 0); Test_Tools.Next_And_Check (Test, First, Events.Open_List, 1); Test_Tools.Test_Atom_Accessor_Exceptions (Test, First); Test_Tools.Next_And_Check (Test, First, To_Atom ("command"), 1); Test_Tools.Next_And_Check (Test, First, Events.Open_List, 2); Test_Tools.Next_And_Check (Test, Second, Events.Open_List, 1); Test_Tools.Next_And_Check (Test, First, To_Atom ("first"), 2); Test_Tools.Next_And_Check (Test, Second, To_Atom ("command"), 1); Test_Tools.Next_And_Check (Test, First, To_Atom ("second"), 2); Test_Tools.Next_And_Check (Test, First, Events.Close_List, 1); Test_Tools.Next_And_Check (Test, Second, Events.Open_List, 2); Test_Tools.Next_And_Check (Test, Second, To_Atom ("first"), 2); Test_Tools.Next_And_Check (Test, Second, To_Atom ("second"), 2); Test_Tools.Next_And_Check (Test, First, Events.Close_List, 0); Test_Tools.Next_And_Check (Test, Second, Events.Close_List, 1); Test_Tools.Test_Atom_Accessor_Exceptions (Test, Second); Test_Tools.Next_And_Check (Test, Second, Events.Close_List, 0); Test_Tools.Next_And_Check (Test, Second, To_Atom ("end"), 0); Test_Tools.Next_And_Check (Test, First, To_Atom ("end"), 0); Test_Tools.Next_And_Check (Test, First, Events.End_Of_Input, 0); Test_Tools.Next_And_Check (Test, Second, Events.End_Of_Input, 0); end; exception when Error : others => Test.Report_Exception (Error); end Descriptor_Interface; procedure Duplication (Report : in out NT.Reporter'Class) is Test : NT.Test := Report.Item ("Duplication of general descriptor"); begin Full_Duplication : declare Input : aliased Test_Tools.Memory_Stream; Parser : Parsers.Stream_Parser (Input'Access); begin Input.Set_Data (Lockable.Tests.Test_Expression); Test_Tools.Next_And_Check (Test, Parser, Events.Open_List, 1); declare Image : Caches.Cursor := Caches.Move (Parser); begin Lockable.Tests.Test_Interface (Test, Image); end; end Full_Duplication; Partial_Duplication : declare Input : aliased Test_Tools.Memory_Stream; Parser : Parsers.Stream_Parser (Input'Access); Copy : Caches.Cursor; begin Input.Set_Data (To_Atom ("(first_part (command-1) (command-2 arg-1 arg-2) end)" & "(second_part (command-3 arg-3) final)")); Test_Tools.Next_And_Check (Test, Parser, Events.Open_List, 1); Test_Tools.Next_And_Check (Test, Parser, To_Atom ("first_part"), 1); Copy := Caches.Move (Parser); Test_Tools.Test_Atom_Accessors (Test, Copy, To_Atom ("first_part"), 0); Test_Tools.Next_And_Check (Test, Copy, Events.Open_List, 1); Test_Tools.Next_And_Check (Test, Copy, To_Atom ("command-1"), 1); Test_Tools.Next_And_Check (Test, Copy, Events.Close_List, 0); Test_Tools.Next_And_Check (Test, Copy, Events.Open_List, 1); Test_Tools.Next_And_Check (Test, Copy, To_Atom ("command-2"), 1); Test_Tools.Next_And_Check (Test, Copy, To_Atom ("arg-1"), 1); Test_Tools.Next_And_Check (Test, Copy, To_Atom ("arg-2"), 1); Test_Tools.Next_And_Check (Test, Copy, Events.Close_List, 0); Test_Tools.Next_And_Check (Test, Copy, To_Atom ("end"), 0); Test_Tools.Next_And_Check (Test, Copy, Events.End_Of_Input, 0); Test_Tools.Next_And_Check (Test, Parser, Events.Open_List, 1); Test_Tools.Next_And_Check (Test, Parser, To_Atom ("second_part"), 1); Test_Tools.Next_And_Check (Test, Parser, Events.Open_List, 2); Test_Tools.Next_And_Check (Test, Parser, To_Atom ("command-3"), 2); Test_Tools.Next_And_Check (Test, Parser, To_Atom ("arg-3"), 2); Test_Tools.Next_And_Check (Test, Parser, Events.Close_List, 1); Test_Tools.Next_And_Check (Test, Parser, To_Atom ("final"), 1); Test_Tools.Next_And_Check (Test, Parser, Events.Close_List, 0); end Partial_Duplication; exception when Error : others => Test.Report_Exception (Error); end Duplication; procedure Lockable_Interface (Report : in out NT.Reporter'Class) is Test : NT.Test := Report.Item ("Lockable.Descriptor insterface"); begin declare Cache : Caches.Reference; begin declare Input : aliased Test_Tools.Memory_Stream; Parser : Parsers.Stream_Parser (Input'Access); begin Input.Set_Data (Lockable.Tests.Test_Expression); Test_Tools.Next_And_Check (Test, Parser, Events.Open_List, 1); Printers.Transfer (Parser, Cache); end; declare Cursor : Caches.Cursor := Cache.First; begin Lockable.Tests.Test_Interface (Test, Cursor); end; end; exception when Error : others => Test.Report_Exception (Error); end Lockable_Interface; procedure Replayable_Interface (Report : in out NT.Reporter'Class) is Test : NT.Test := Report.Item ("Replayable.Descriptor insterface"); begin declare Cache : Caches.Reference; First, Second : Caches.Cursor; begin Cache.Append_Atom (To_Atom ("begin")); Cache.Open_List; Cache.Append_Atom (To_Atom ("command")); Cache.Open_List; Cache.Append_Atom (To_Atom ("first")); Cache.Append_Atom (To_Atom ("second")); Cache.Close_List; Cache.Close_List; Cache.Append_Atom (To_Atom ("end")); First := Cache.First; Test_Tools.Test_Atom_Accessors (Test, First, To_Atom ("begin"), 0); Test_Tools.Next_And_Check (Test, First, Events.Open_List, 1); Test_Tools.Test_Atom_Accessor_Exceptions (Test, First); Test_Tools.Next_And_Check (Test, First, To_Atom ("command"), 1); Second := First.Duplicate; Test_Tools.Next_And_Check (Test, First, Events.Open_List, 2); Test_Tools.Next_And_Check (Test, First, To_Atom ("first"), 2); Test_Tools.Next_And_Check (Test, First, To_Atom ("second"), 2); Test_Tools.Next_And_Check (Test, First, Events.Close_List, 1); Test_Tools.Next_And_Check (Test, Second, Events.Open_List, 2); Test_Tools.Next_And_Check (Test, Second, To_Atom ("first"), 2); Test_Tools.Next_And_Check (Test, Second, To_Atom ("second"), 2); Test_Tools.Next_And_Check (Test, First, Events.Close_List, 0); Test_Tools.Next_And_Check (Test, Second, Events.Close_List, 1); Test_Tools.Test_Atom_Accessor_Exceptions (Test, Second); Test_Tools.Next_And_Check (Test, Second, Events.Close_List, 0); Test_Tools.Next_And_Check (Test, Second, To_Atom ("end"), 0); Test_Tools.Next_And_Check (Test, First, To_Atom ("end"), 0); Test_Tools.Next_And_Check (Test, First, Events.End_Of_Input, 0); Test_Tools.Next_And_Check (Test, Second, Events.End_Of_Input, 0); end; exception when Error : others => Test.Report_Exception (Error); end Replayable_Interface; end Natools.S_Expressions.Cache_Tests;
pragma License (Unrestricted); -- implementation unit specialized for POSIX (Darwin, FreeBSD, or Linux) private with C.pthread; package System.Synchronous_Objects is pragma Preelaborate; -- mutex type Mutex is limited private; procedure Initialize (Object : in out Mutex); procedure Finalize (Object : in out Mutex); procedure Enter (Object : in out Mutex); procedure Leave (Object : in out Mutex); -- condition variable (pthread only) type Condition_Variable is limited private; procedure Initialize (Object : in out Condition_Variable); procedure Finalize (Object : in out Condition_Variable); procedure Notify_All (Object : in out Condition_Variable); procedure Wait ( Object : in out Condition_Variable; Mutex : in out Synchronous_Objects.Mutex); -- queue type Mutex_Access is access all Mutex; for Mutex_Access'Storage_Size use 0; type Queue_Node is limited private; type Queue_Node_Access is access all Queue_Node; type Queue_Filter is access function ( Item : not null Queue_Node_Access; Params : Address) return Boolean; type Queue is limited private; procedure Initialize ( Object : in out Queue; Mutex : not null Mutex_Access); procedure Finalize (Object : in out Queue); function Count ( Object : Queue; Params : Address; Filter : Queue_Filter) return Natural; function Unsynchronized_Count ( Object : Queue; Params : Address; Filter : Queue_Filter) return Natural; function Canceled (Object : Queue) return Boolean; procedure Cancel ( Object : in out Queue; Cancel_Node : access procedure (X : in out Queue_Node_Access)); procedure Unsynchronized_Prepend ( Object : in out Queue; Item : not null Queue_Node_Access; Canceled : out Boolean); procedure Add ( Object : in out Queue; Item : not null Queue_Node_Access; Canceled : out Boolean); procedure Take ( Object : in out Queue; Item : out Queue_Node_Access; Params : Address; Filter : Queue_Filter); -- no waiting procedure Unsynchronized_Take ( Object : in out Queue; Item : out Queue_Node_Access; Params : Address; Filter : Queue_Filter); pragma Inline (Canceled); -- event type Event is limited private; procedure Initialize (Object : in out Event); procedure Finalize (Object : in out Event); function Get (Object : Event) return Boolean; procedure Set (Object : in out Event); procedure Reset (Object : in out Event); procedure Wait ( Object : in out Event); procedure Wait ( Object : in out Event; Timeout : Duration; Value : out Boolean); -- multi-read/exclusive-write lock for protected type RW_Lock is limited private; procedure Initialize (Object : in out RW_Lock); procedure Finalize (Object : in out RW_Lock); procedure Enter_Reading (Object : in out RW_Lock); procedure Enter_Writing (Object : in out RW_Lock); procedure Leave (Object : in out RW_Lock); -- leave reading or writing private type Mutex is limited record Handle : aliased C.pthread.pthread_mutex_t; end record; pragma Suppress_Initialization (Mutex); type Condition_Variable is limited record Handle : aliased C.pthread.pthread_cond_t; end record; pragma Suppress_Initialization (Condition_Variable); type Queue is limited record Mutex : not null Mutex_Access; Pipe : Synchronous_Objects.Event; -- count bytes in the pipe Head : aliased Queue_Node_Access; Tail : Queue_Node_Access; Params : Address; Filter : Queue_Filter; Waiting : Boolean; Canceled : Boolean; end record; pragma Suppress_Initialization (Queue); type Queue_Node is limited record Next : aliased Queue_Node_Access; end record; pragma Suppress_Initialization (Queue_Node); procedure Take_No_Sync ( Object : in out Queue; Item : out Queue_Node_Access; Params : Address; Filter : Queue_Filter; Previous : in out Queue_Node_Access; Current : in out Queue_Node_Access); procedure Notify_All ( Object : in out Queue; Item : not null Queue_Node_Access); -- awake Abortable.Take type Event is limited record Reading_Pipe : C.signed_int; Writing_Pipe : C.signed_int; end record; pragma Suppress_Initialization (Event); procedure Read_1 (Reading_Pipe : C.signed_int); procedure Write_1 (Writing_Pipe : C.signed_int); type RW_Lock is limited record Handle : aliased C.pthread.pthread_rwlock_t; end record; pragma Suppress_Initialization (RW_Lock); end System.Synchronous_Objects;
-- Copyright (c) 2020-2021 Bartek thindil Jasicki <thindil@laeran.pl> -- -- This program is free software: you can redistribute it and/or modify -- it under the terms of the GNU General Public License as published by -- the Free Software Foundation, either version 3 of the License, or -- (at your option) any later version. -- -- This program is distributed in the hope that it will be useful, -- but WITHOUT ANY WARRANTY; without even the implied warranty of -- MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the -- GNU General Public License for more details. -- -- You should have received a copy of the GNU General Public License -- along with this program. If not, see <http://www.gnu.org/licenses/>. with Ada.Containers.Generic_Array_Sort; with GNAT.String_Split; use GNAT.String_Split; with Tcl.Ada; use Tcl.Ada; with Tcl.Tk.Ada; use Tcl.Tk.Ada; with Tcl.Tk.Ada.Busy; with Tcl.Tk.Ada.Grid; with Tcl.Tk.Ada.Widgets; use Tcl.Tk.Ada.Widgets; with Tcl.Tk.Ada.Widgets.Canvas; use Tcl.Tk.Ada.Widgets.Canvas; with Tcl.Tk.Ada.Widgets.Menu; use Tcl.Tk.Ada.Widgets.Menu; with Tcl.Tk.Ada.Widgets.Toplevel; use Tcl.Tk.Ada.Widgets.Toplevel; with Tcl.Tk.Ada.Widgets.Toplevel.MainWindow; use Tcl.Tk.Ada.Widgets.Toplevel.MainWindow; with Tcl.Tk.Ada.Widgets.TtkButton; use Tcl.Tk.Ada.Widgets.TtkButton; with Tcl.Tk.Ada.Widgets.TtkEntry.TtkComboBox; use Tcl.Tk.Ada.Widgets.TtkEntry.TtkComboBox; with Tcl.Tk.Ada.Widgets.TtkEntry.TtkSpinBox; use Tcl.Tk.Ada.Widgets.TtkEntry.TtkSpinBox; with Tcl.Tk.Ada.Widgets.TtkFrame; use Tcl.Tk.Ada.Widgets.TtkFrame; with Tcl.Tk.Ada.Widgets.TtkLabel; use Tcl.Tk.Ada.Widgets.TtkLabel; with Tcl.Tk.Ada.Widgets.TtkScrollbar; use Tcl.Tk.Ada.Widgets.TtkScrollbar; with Tcl.Tk.Ada.Winfo; use Tcl.Tk.Ada.Winfo; with Config; use Config; with CoreUI; use CoreUI; with Crew.Inventory; use Crew.Inventory; with Dialogs; use Dialogs; with Maps.UI; use Maps.UI; with Messages; use Messages; with Missions; use Missions; with Ships.Cargo; use Ships.Cargo; with Stories; use Stories; with Table; use Table; with Utils.UI; use Utils.UI; package body Ships.UI.Cargo is -- ****iv* SUCargo/SUCargo.CargoTable -- FUNCTION -- Table with info about the player ship cargo -- SOURCE CargoTable: Table_Widget (5); -- **** -- ****iv* SUCargo/SUCargo.Cargo_Indexes -- FUNCTION -- Indexes of the player ship cargo -- SOURCE Cargo_Indexes: Positive_Container.Vector; -- **** -- ****o* SUCargo/SUCargo.Show_Cargo_Command -- FUNCTION -- Show the cargo of the player ship -- PARAMETERS -- ClientData - Custom data send to the command. Unused -- Interp - Tcl interpreter in which command was executed. -- Argc - Number of arguments passed to the command. -- Argv - Values of arguments passed to the command. -- RESULT -- This function always return TCL_OK -- COMMANDS -- ShowCargo ?page? -- Optional paramater page is the number of the page of cargo list to show -- SOURCE function Show_Cargo_Command (ClientData: Integer; Interp: Tcl.Tcl_Interp; Argc: Interfaces.C.int; Argv: CArgv.Chars_Ptr_Ptr) return Interfaces.C.int with Convention => C; -- **** function Show_Cargo_Command (ClientData: Integer; Interp: Tcl.Tcl_Interp; Argc: Interfaces.C.int; Argv: CArgv.Chars_Ptr_Ptr) return Interfaces.C.int is pragma Unreferenced(ClientData); ShipCanvas: constant Tk_Canvas := Get_Widget(Main_Paned & ".shipinfoframe.cargo.canvas", Interp); CargoInfoFrame: constant Ttk_Frame := Get_Widget(ShipCanvas & ".frame", Interp); Tokens: Slice_Set; Rows: Natural := 0; ItemType, ProtoIndex: Unbounded_String; ItemsTypes: Unbounded_String := To_Unbounded_String("All"); TypeBox: constant Ttk_ComboBox := Get_Widget(CargoInfoFrame & ".selecttype.combo", Interp); ItemsType: constant String := Get(TypeBox); Page: constant Positive := (if Argc = 2 then Positive'Value(CArgv.Arg(Argv, 1)) else 1); Start_Row: constant Positive := ((Page - 1) * Game_Settings.Lists_Limit) + 1; Current_Row: Positive := 1; Free_Space_Label: constant Ttk_Label := Get_Widget(CargoInfoFrame & ".freespace", Interp); begin Create(Tokens, Tcl.Tk.Ada.Grid.Grid_Size(CargoInfoFrame), " "); Rows := Natural'Value(Slice(Tokens, 2)); Delete_Widgets(3, Rows - 1, CargoInfoFrame); CargoTable := CreateTable (Widget_Image(CargoInfoFrame), (To_Unbounded_String("Name"), To_Unbounded_String("Durability"), To_Unbounded_String("Type"), To_Unbounded_String("Amount"), To_Unbounded_String("Weight")), Get_Widget(Main_Paned & ".shipinfoframe.cargo.scrolly"), "SortShipCargo", "Press mouse button to sort the cargo."); if Cargo_Indexes.Length /= Player_Ship.Cargo.Length then Cargo_Indexes.Clear; for I in Player_Ship.Cargo.Iterate loop Cargo_Indexes.Append(Inventory_Container.To_Index(I)); end loop; end if; configure (Free_Space_Label, "-text {Free cargo space:" & Integer'Image(FreeCargo(0)) & " kg}"); Load_Cargo_Loop : for I of Cargo_Indexes loop if Current_Row < Start_Row then Current_Row := Current_Row + 1; goto End_Of_Loop; end if; ProtoIndex := Player_Ship.Cargo(I).ProtoIndex; ItemType := (if Items_List(ProtoIndex).ShowType /= Null_Unbounded_String then Items_List(ProtoIndex).ShowType else Items_List(ProtoIndex).IType); if Index(ItemsTypes, "{" & To_String(ItemType) & "}") = 0 then Append(ItemsTypes, " {" & To_String(ItemType) & "}"); end if; if ItemsType /= "All" and then To_String(ItemType) /= ItemsType then goto End_Of_Loop; end if; AddButton (CargoTable, GetItemName(Player_Ship.Cargo(I)), "Show available item's options", "ShowCargoMenu" & Positive'Image(I), 1); AddProgressBar (CargoTable, Player_Ship.Cargo(I).Durability, Default_Item_Durability, "The current durability of the selected crew member", "ShowCargoMenu" & Positive'Image(I), 2); AddButton (CargoTable, To_String(ItemType), "The type of the selected item", "ShowCargoMenu" & Positive'Image(I), 3); AddButton (CargoTable, Positive'Image(Player_Ship.Cargo(I).Amount), "The amount of the selected item", "ShowCargoMenu" & Positive'Image(I), 4); AddButton (CargoTable, Positive'Image (Player_Ship.Cargo(I).Amount * Items_List(ProtoIndex).Weight) & " kg", "The total weight of the selected item", "ShowCargoMenu" & Positive'Image(I), 5, True); exit Load_Cargo_Loop when CargoTable.Row = Game_Settings.Lists_Limit + 1; <<End_Of_Loop>> end loop Load_Cargo_Loop; if Page > 1 then AddPagination (CargoTable, "ShowCargo" & Positive'Image(Page - 1), (if CargoTable.Row < Game_Settings.Lists_Limit + 1 then "" else "ShowCargo" & Positive'Image(Page + 1))); elsif CargoTable.Row = Game_Settings.Lists_Limit + 1 then AddPagination(CargoTable, "", "ShowCargo" & Positive'Image(Page + 1)); end if; UpdateTable(CargoTable); configure(TypeBox, "-values [list " & To_String(ItemsTypes) & "]"); Tcl_Eval(Get_Context, "update"); configure (ShipCanvas, "-scrollregion [list " & BBox(ShipCanvas, "all") & "]"); Xview_Move_To(ShipCanvas, "0.0"); Yview_Move_To(ShipCanvas, "0.0"); return TCL_OK; end Show_Cargo_Command; -- ****it* SUCargo/SUCargo.Cargo_Sort_Orders -- FUNCTION -- Sorting orders for the player ship cargo -- OPTIONS -- NAMEASC - Sort items by name ascending -- NAMEDESC - Sort items by name descending -- DURABILITYASC - Sort items by durability ascending -- DURABILITYDESC - Sort items by durability descending -- TYPEASC - Sort items by type ascending -- TYPEDESC - Sort items by type descending -- AMOUNTASC - Sort items by amount ascending -- AMOUNTDESC - Sort items by amount descending -- WEIGHTASC - Sort items by total weight ascending -- WEIGHTDESC - Sort items by total weight descending -- NONE - No sorting items (default) -- HISTORY -- 6.4 - Added -- SOURCE type Cargo_Sort_Orders is (NAMEASC, NAMEDESC, DURABILITYASC, DURABILITYDESC, TYPEASC, TYPEDESC, AMOUNTASC, AMOUNTDESC, WEIGHTASC, WEIGHTDESC, NONE) with Default_Value => NONE; -- **** -- ****id* SUCargo/SUCargo.Default_Cargo_Sort_Order -- FUNCTION -- Default sorting order for items in the player's ship cargo -- HISTORY -- 6.4 - Added -- SOURCE Default_Cargo_Sort_Order: constant Cargo_Sort_Orders := NONE; -- **** -- ****iv* SUCargo/SUCargo.Cargo_Sort_Order -- FUNCTION -- The current sorting order of items in the player's ship cargo -- SOURCE Cargo_Sort_Order: Cargo_Sort_Orders := Default_Cargo_Sort_Order; -- **** -- ****o* SUCargo/SUCargo.Sort_Cargo_Command -- FUNCTION -- Sort the player's ship's cargo list -- PARAMETERS -- ClientData - Custom data send to the command. -- Interp - Tcl interpreter in which command was executed. -- Argc - Number of arguments passed to the command. Unused -- Argv - Values of arguments passed to the command. -- RESULT -- This function always return TCL_OK -- COMMANDS -- SortShipCargo x -- X is X axis coordinate where the player clicked the mouse button -- SOURCE function Sort_Cargo_Command (ClientData: Integer; Interp: Tcl.Tcl_Interp; Argc: Interfaces.C.int; Argv: CArgv.Chars_Ptr_Ptr) return Interfaces.C.int with Convention => C; -- **** function Sort_Cargo_Command (ClientData: Integer; Interp: Tcl.Tcl_Interp; Argc: Interfaces.C.int; Argv: CArgv.Chars_Ptr_Ptr) return Interfaces.C.int is pragma Unreferenced(Argc); Column: constant Positive := (if CArgv.Arg(Argv, 1) = "-1" then Positive'Last else Get_Column_Number (CargoTable, Natural'Value(CArgv.Arg(Argv, 1)))); type Local_Cargo_Data is record Name: Unbounded_String; Damage: Float; Item_Type: Unbounded_String; Amount: Positive; Weight: Positive; Id: Positive; end record; type Cargo_Array is array(Positive range <>) of Local_Cargo_Data; Local_Cargo: Cargo_Array(1 .. Positive(Player_Ship.Cargo.Length)); function "<"(Left, Right: Local_Cargo_Data) return Boolean is begin if Cargo_Sort_Order = NAMEASC and then Left.Name < Right.Name then return True; end if; if Cargo_Sort_Order = NAMEDESC and then Left.Name > Right.Name then return True; end if; if Cargo_Sort_Order = DURABILITYASC and then Left.Damage < Right.Damage then return True; end if; if Cargo_Sort_Order = DURABILITYDESC and then Left.Damage > Right.Damage then return True; end if; if Cargo_Sort_Order = TYPEASC and then Left.Item_Type < Right.Item_Type then return True; end if; if Cargo_Sort_Order = TYPEDESC and then Left.Item_Type > Right.Item_Type then return True; end if; if Cargo_Sort_Order = AMOUNTASC and then Left.Amount < Right.Amount then return True; end if; if Cargo_Sort_Order = AMOUNTDESC and then Left.Amount > Right.Amount then return True; end if; if Cargo_Sort_Order = WEIGHTASC and then Left.Weight < Right.Weight then return True; end if; if Cargo_Sort_Order = WEIGHTDESC and then Left.Weight > Right.Weight then return True; end if; return False; end "<"; procedure Sort_Cargo is new Ada.Containers.Generic_Array_Sort (Index_Type => Positive, Element_Type => Local_Cargo_Data, Array_Type => Cargo_Array); begin case Column is when 1 => if Cargo_Sort_Order = NAMEASC then Cargo_Sort_Order := NAMEDESC; else Cargo_Sort_Order := NAMEASC; end if; when 2 => if Cargo_Sort_Order = DURABILITYASC then Cargo_Sort_Order := DURABILITYDESC; else Cargo_Sort_Order := DURABILITYASC; end if; when 3 => if Cargo_Sort_Order = TYPEASC then Cargo_Sort_Order := TYPEDESC; else Cargo_Sort_Order := TYPEASC; end if; when 4 => if Cargo_Sort_Order = AMOUNTASC then Cargo_Sort_Order := AMOUNTDESC; else Cargo_Sort_Order := AMOUNTASC; end if; when 5 => if Cargo_Sort_Order = WEIGHTASC then Cargo_Sort_Order := WEIGHTDESC; else Cargo_Sort_Order := WEIGHTASC; end if; when others => null; end case; if Cargo_Sort_Order = NONE then return Show_Cargo_Command (ClientData, Interp, 1, CArgv.Empty & "ShowCargo"); end if; for I in Player_Ship.Cargo.Iterate loop Local_Cargo(Inventory_Container.To_Index(I)) := (Name => To_Unbounded_String (GetItemName(Player_Ship.Cargo(I), False, False)), Damage => Float(Player_Ship.Cargo(I).Durability) / Float(Default_Item_Durability), Item_Type => (if Items_List(Player_Ship.Cargo(I).ProtoIndex).ShowType /= Null_Unbounded_String then Items_List(Player_Ship.Cargo(I).ProtoIndex).ShowType else Items_List(Player_Ship.Cargo(I).ProtoIndex).IType), Amount => Player_Ship.Cargo(I).Amount, Weight => Player_Ship.Cargo(I).Amount * Items_List(Player_Ship.Cargo(I).ProtoIndex).Weight, Id => Inventory_Container.To_Index(I)); end loop; Sort_Cargo(Local_Cargo); Cargo_Indexes.Clear; for Item of Local_Cargo loop Cargo_Indexes.Append(Item.Id); end loop; return Show_Cargo_Command(ClientData, Interp, 1, CArgv.Empty & "ShowCargo"); end Sort_Cargo_Command; -- ****o* SUCargo/SUCargo.Show_Give_Item_Command -- FUNCTION -- Show UI to give the selected item from the ship cargo to the selected -- crew member -- PARAMETERS -- ClientData - Custom data send to the command. Unused -- Interp - Tcl interpreter in which command was executed. Unused -- Argc - Number of arguments passed to the command. Unused -- Argv - Values of arguments passed to the command. -- RESULT -- This function always return TCL_OK -- COMMANDS -- ShowGiveItem itemindex -- Itemindex is the index of the item which will be set -- SOURCE function Show_Give_Item_Command (ClientData: Integer; Interp: Tcl.Tcl_Interp; Argc: Interfaces.C.int; Argv: CArgv.Chars_Ptr_Ptr) return Interfaces.C.int with Convention => C; -- **** function Show_Give_Item_Command (ClientData: Integer; Interp: Tcl.Tcl_Interp; Argc: Interfaces.C.int; Argv: CArgv.Chars_Ptr_Ptr) return Interfaces.C.int is pragma Unreferenced(ClientData, Interp, Argc); ItemIndex: constant Positive := Positive'Value(CArgv.Arg(Argv, 1)); ItemDialog: constant Ttk_Frame := Create_Dialog (".itemdialog", "Give " & GetItemName(Player_Ship.Cargo(ItemIndex)) & " from the ship's cargo to the selected crew member", 370, 2); Button: Ttk_Button := Create (ItemDialog & ".givebutton", "-text Give -command {GiveItem " & CArgv.Arg(Argv, 1) & "}"); Label: Ttk_Label; AmountBox: constant Ttk_SpinBox := Create (ItemDialog & ".giveamount", "-width 15 -from 1 -to" & Positive'Image(Player_Ship.Cargo(ItemIndex).Amount) & " -validate key -validatecommand {CheckAmount %W" & Positive'Image(ItemIndex) & " %P} -command {ValidateAmount " & ItemDialog & ".giveamount" & Positive'Image(ItemIndex) & "}"); CrewBox: constant Ttk_ComboBox := Create(ItemDialog & ".member", "-state readonly -width 14"); MembersNames: Unbounded_String; begin Label := Create(ItemDialog & ".amountlbl", "-text {Amount:}"); Tcl.Tk.Ada.Grid.Grid(Label, "-pady {0 5}"); Set(AmountBox, "1"); Tcl.Tk.Ada.Grid.Grid(AmountBox, "-column 1 -row 1 -pady {0 5}"); Bind (AmountBox, "<Escape>", "{" & ItemDialog & ".cancelbutton invoke;break}"); Label := Create(ItemDialog & ".memberlbl", "-text {To:}"); Tcl.Tk.Ada.Grid.Grid(Label); Load_Crew_Names_Loop : for Member of Player_Ship.Crew loop Append(MembersNames, " " & Member.Name); end loop Load_Crew_Names_Loop; configure(CrewBox, "-values [list" & To_String(MembersNames) & "]"); Current(CrewBox, "0"); Tcl.Tk.Ada.Grid.Grid(CrewBox, "-column 1 -row 2"); Bind (CrewBox, "<Escape>", "{" & ItemDialog & ".cancelbutton invoke;break}"); Label := Create (ItemDialog & ".errorlbl", "-style Headerred.TLabel -wraplength 370"); Tcl.Tk.Ada.Grid.Grid(Label, "-columnspan 2 -padx 5"); Tcl.Tk.Ada.Grid.Grid_Remove(Label); Tcl.Tk.Ada.Grid.Grid(Button, "-column 0 -row 4 -padx {5 0} -pady 5"); Bind (Button, "<Escape>", "{" & ItemDialog & ".cancelbutton invoke;break}"); Button := Create (ItemDialog & ".cancelbutton", "-text Cancel -command {CloseDialog " & ItemDialog & "}"); Tcl.Tk.Ada.Grid.Grid (Button, "-column 1 -row 4 -padx {0 5} -pady 5 -sticky e"); Focus(Button); Bind(Button, "<Tab>", "{focus .itemdialog.givebutton;break}"); Bind(Button, "<Escape>", "{" & Button & " invoke;break}"); Show_Dialog(ItemDialog); return TCL_OK; end Show_Give_Item_Command; -- ****o* SUCargo/SUCargo.Give_Item_Command -- FUNCTION -- Give selected amount of the selected item from the ship's cargo to the -- selected crew member -- PARAMETERS -- ClientData - Custom data send to the command. -- Interp - Tcl interpreter in which command was executed. -- Argc - Number of arguments passed to the command. Unused -- Argv - Values of arguments passed to the command. -- RESULT -- This function always return TCL_OK -- COMMANDS -- GiveItem -- SOURCE function Give_Item_Command (ClientData: Integer; Interp: Tcl.Tcl_Interp; Argc: Interfaces.C.int; Argv: CArgv.Chars_Ptr_Ptr) return Interfaces.C.int with Convention => C; -- **** function Give_Item_Command (ClientData: Integer; Interp: Tcl.Tcl_Interp; Argc: Interfaces.C.int; Argv: CArgv.Chars_Ptr_Ptr) return Interfaces.C.int is pragma Unreferenced(Argc); MemberIndex, Amount: Positive; ItemIndex: constant Positive := Positive'Value(CArgv.Arg(Argv, 1)); Item: constant InventoryData := Player_Ship.Cargo(ItemIndex); ItemDialog: Tk_Toplevel := Get_Widget(".itemdialog", Interp); SpinBox: constant Ttk_SpinBox := Get_Widget(ItemDialog & ".giveamount"); ComboBox: constant Ttk_ComboBox := Get_Widget(ItemDialog & ".member"); begin Amount := Natural'Value(Get(SpinBox)); MemberIndex := Natural'Value(Current(ComboBox)) + 1; if FreeInventory (MemberIndex, 0 - (Items_List(Item.ProtoIndex).Weight * Amount)) < 0 then ShowMessage (Text => "No free space in " & To_String(Player_Ship.Crew(MemberIndex).Name) & "'s inventory for that amount of " & GetItemName(Item), Title => "Can't give item"); return TCL_OK; end if; AddMessage ("You gave" & Positive'Image(Amount) & " " & GetItemName(Player_Ship.Cargo(ItemIndex)) & " to " & To_String(Player_Ship.Crew(MemberIndex).Name) & ".", OtherMessage); UpdateInventory (MemberIndex => MemberIndex, Amount => Amount, ProtoIndex => Item.ProtoIndex, Durability => Item.Durability, Price => Item.Price); UpdateCargo (Ship => Player_Ship, Amount => (0 - Amount), CargoIndex => ItemIndex, Price => Item.Price); Destroy(ItemDialog); Tcl.Tk.Ada.Busy.Forget(Main_Paned); Tcl.Tk.Ada.Busy.Forget(Game_Header); UpdateHeader; Update_Messages; return Sort_Cargo_Command (ClientData, Interp, 2, CArgv.Empty & "SortShipCargo" & "-1"); end Give_Item_Command; -- ****o* SUCargo/SUCargo.Show_Drop_Item_Command -- FUNCTION -- Show UI to drop the selected item from the ship cargo -- PARAMETERS -- ClientData - Custom data send to the command. Unused -- Interp - Tcl interpreter in which command was executed. Unused -- Argc - Number of arguments passed to the command. Unused -- Argv - Values of arguments passed to the command. -- RESULT -- This function always return TCL_OK -- COMMANDS -- ShowDropItem itemindex -- Itemindex is the index of the item which will be set -- SOURCE function Show_Drop_Item_Command (ClientData: Integer; Interp: Tcl.Tcl_Interp; Argc: Interfaces.C.int; Argv: CArgv.Chars_Ptr_Ptr) return Interfaces.C.int with Convention => C; -- **** function Show_Drop_Item_Command (ClientData: Integer; Interp: Tcl.Tcl_Interp; Argc: Interfaces.C.int; Argv: CArgv.Chars_Ptr_Ptr) return Interfaces.C.int is pragma Unreferenced(ClientData, Argc, Interp); ItemIndex: constant Positive := Positive'Value(CArgv.Arg(Argv, 1)); begin ShowManipulateItem ("Drop " & GetItemName(Player_Ship.Cargo(ItemIndex)) & " from the ship's cargo", "DropItem " & CArgv.Arg(Argv, 1), "drop", ItemIndex); return TCL_OK; end Show_Drop_Item_Command; -- ****o* SUCargo/SUCargo.Drop_Item_Command -- FUNCTION -- Drop selected amount of the selected item from the ship's cargo -- PARAMETERS -- ClientData - Custom data send to the command. -- Interp - Tcl interpreter in which command was executed. -- Argc - Number of arguments passed to the command. Unused -- Argv - Values of arguments passed to the command. -- RESULT -- This function always return TCL_OK -- COMMANDS -- DropItem -- SOURCE function Drop_Item_Command (ClientData: Integer; Interp: Tcl.Tcl_Interp; Argc: Interfaces.C.int; Argv: CArgv.Chars_Ptr_Ptr) return Interfaces.C.int with Convention => C; -- **** function Drop_Item_Command (ClientData: Integer; Interp: Tcl.Tcl_Interp; Argc: Interfaces.C.int; Argv: CArgv.Chars_Ptr_Ptr) return Interfaces.C.int is pragma Unreferenced(Argc); DropAmount, DropAmount2: Natural; ItemDialog: constant Ttk_Frame := Get_Widget(".itemdialog", Interp); SpinBox: constant Ttk_SpinBox := Get_Widget(ItemDialog & ".amount", Interp); ItemIndex: constant Positive := Positive'Value(CArgv.Arg(Argv, 1)); begin DropAmount := Natural'Value(Get(SpinBox)); DropAmount2 := DropAmount; if Items_List(Player_Ship.Cargo(ItemIndex).ProtoIndex).IType = Mission_Items_Type then Check_Drop_Items_Loop : for J in 1 .. DropAmount2 loop Delete_Missions_Loop : for I in AcceptedMissions.Iterate loop if AcceptedMissions(I).MType = Deliver and AcceptedMissions(I).ItemIndex = Player_Ship.Cargo(ItemIndex).ProtoIndex then DeleteMission(Mission_Container.To_Index(I)); DropAmount := DropAmount - 1; exit Delete_Missions_Loop; end if; end loop Delete_Missions_Loop; end loop Check_Drop_Items_Loop; elsif CurrentStory.Index /= Null_Unbounded_String and then Stories_List(CurrentStory.Index).StartData(1) = Player_Ship.Cargo(ItemIndex).ProtoIndex then FinishedStories.Delete(FinishedStories.Last_Index); ClearCurrentStory; end if; if DropAmount > 0 then AddMessage ("You dropped" & Positive'Image(DropAmount) & " " & GetItemName(Player_Ship.Cargo(ItemIndex)) & ".", OtherMessage); UpdateCargo (Ship => Player_Ship, ProtoIndex => Player_Ship.Cargo.Element(ItemIndex).ProtoIndex, Amount => (0 - DropAmount), Durability => Player_Ship.Cargo.Element(ItemIndex).Durability, Price => Player_Ship.Cargo.Element(ItemIndex).Price); end if; if Close_Dialog_Command (ClientData, Interp, 2, CArgv.Empty & "CloseDialog" & ".itemdialog") = TCL_ERROR then return TCL_ERROR; end if; UpdateHeader; Update_Messages; return Sort_Cargo_Command (ClientData, Interp, 2, CArgv.Empty & "SortShipCargo" & "-1"); end Drop_Item_Command; -- ****o* SUCargo/SUCargo.Show_Cargo_Item_Info_Command -- FUNCTION -- Show detailed information about the selected item in the player ship -- cargo -- PARAMETERS -- ClientData - Custom data send to the command. Unused -- Interp - Tcl interpreter in which command was executed. -- Argc - Number of arguments passed to the command. -- Argv - Values of arguments passed to the command. -- RESULT -- This function always return TCL_OK -- COMMANDS -- ValidateMoveAmount -- SOURCE function Show_Cargo_Item_Info_Command (ClientData: Integer; Interp: Tcl.Tcl_Interp; Argc: Interfaces.C.int; Argv: CArgv.Chars_Ptr_Ptr) return Interfaces.C.int with Convention => C; -- **** function Show_Cargo_Item_Info_Command (ClientData: Integer; Interp: Tcl.Tcl_Interp; Argc: Interfaces.C.int; Argv: CArgv.Chars_Ptr_Ptr) return Interfaces.C.int is pragma Unreferenced(ClientData, Interp, Argc); begin Show_Inventory_Item_Info(".", Positive'Value(CArgv.Arg(Argv, 1)), 0); return TCL_OK; end Show_Cargo_Item_Info_Command; -- ****if* SUCargo/SUCargo.Show_Cargo_Menu_Command -- FUNCTION -- Show the menu with available the selected item options -- PARAMETERS -- ClientData - Custom data send to the command. Unused -- Interp - Tcl interpreter in which command was executed. -- Argc - Number of arguments passed to the command. Unused -- Argv - Values of arguments passed to the command. -- RESULT -- This function always return TCL_OK -- COMMANDS -- ShowCargoMenu moduleindex -- ModuleIndex is the index of the item's menu to show -- SOURCE function Show_Cargo_Menu_Command (ClientData: Integer; Interp: Tcl.Tcl_Interp; Argc: Interfaces.C.int; Argv: CArgv.Chars_Ptr_Ptr) return Interfaces.C.int with Convention => C; -- **** function Show_Cargo_Menu_Command (ClientData: Integer; Interp: Tcl.Tcl_Interp; Argc: Interfaces.C.int; Argv: CArgv.Chars_Ptr_Ptr) return Interfaces.C.int is pragma Unreferenced(ClientData, Argc); ItemMenu: Tk_Menu := Get_Widget(".cargoitemmenu", Interp); begin if (Winfo_Get(ItemMenu, "exists")) = "0" then ItemMenu := Create(".cargoitemmenu", "-tearoff false"); end if; Delete(ItemMenu, "0", "end"); Menu.Add (ItemMenu, "command", "-label {Give the item to a crew member} -command {ShowGiveItem " & CArgv.Arg(Argv, 1) & "}"); Menu.Add (ItemMenu, "command", "-label {Drop the item from the ship's cargo} -command {ShowDropItem " & CArgv.Arg(Argv, 1) & "}"); Menu.Add (ItemMenu, "command", "-label {Show more info about the item} -command {ShowCargoItemInfo " & CArgv.Arg(Argv, 1) & "}"); Tk_Popup (ItemMenu, Winfo_Get(Get_Main_Window(Interp), "pointerx"), Winfo_Get(Get_Main_Window(Interp), "pointery")); return TCL_OK; end Show_Cargo_Menu_Command; procedure AddCommands is begin Add_Command("ShowCargo", Show_Cargo_Command'Access); Add_Command("ShowCargoItemInfo", Show_Cargo_Item_Info_Command'Access); Add_Command("ShowGiveItem", Show_Give_Item_Command'Access); Add_Command("GiveItem", Give_Item_Command'Access); Add_Command("ShowDropItem", Show_Drop_Item_Command'Access); Add_Command("DropItem", Drop_Item_Command'Access); Add_Command("ShowCargoMenu", Show_Cargo_Menu_Command'Access); Add_Command("SortShipCargo", Sort_Cargo_Command'Access); end AddCommands; end Ships.UI.Cargo;
with openGL.Light, openGL.Visual, openGL.Model.Sphere.lit_colored_textured, openGL.Model.Sphere.lit_colored, openGL.Palette, openGL.Demo; procedure launch_render_Lighting -- -- Exercise the rendering of lit models. -- is use openGL, openGL.Model, openGL.Math, openGL.linear_Algebra_3d; the_Texture : constant asset_Name := to_Asset ("assets/opengl/texture/Face1.bmp"); begin Demo.print_Usage ("To see the light move, disable 'Sync to VBlank'."); Demo.define ("openGL 'render Lighting' Demo"); Demo.Camera.Position_is ((0.0, 0.0, 10.0), y_Rotation_from (to_Radians (0.0))); declare use openGL.Palette; -- The Models. -- the_Ball_1_Model : constant Model.Sphere.lit_colored_textured.view := openGL.Model.Sphere.lit_colored_textured.new_Sphere (Radius => 1.0, Image => the_Texture); the_Ball_2_Model : constant Model.Sphere.lit_colored.view := openGL.Model.Sphere.lit_colored.new_Sphere (Radius => 1.0, Color => (light_Apricot, Opaque)); -- The Visuals. -- use openGL.Visual.Forge; the_Visuals : constant openGL.Visual.views := (1 => new_Visual (the_Ball_1_Model.all'Access), 2 => new_Visual (the_Ball_2_Model.all'Access)); the_Light : openGL.Light.item := Demo.Renderer.new_Light; -- Light movement. -- initial_Site : constant openGL.Vector_3 := (-10_000.0, 0.0, 10_000.0); site_Delta : openGL.Vector_3 := ( 1.0, 0.0, 0.0); begin the_Visuals (1).Site_is ((0.0, 1.0, 0.0)); the_Visuals (2).Site_is ((0.0, -1.0, 0.0)); -- Set the lights initial position to far behind and far to the left. -- the_Light.Site_is (initial_Site); Demo.Renderer.set (the_Light); -- Main loop. -- while not Demo.Done loop -- Handle user commands. -- Demo.Dolly.evolve; Demo.Done := Demo.Dolly.quit_Requested; -- Move the light. -- if the_Light.Site (1) > 10_000.0 then site_Delta (1) := -1.0; the_Light.Color_is (Palette.dark_Green); elsif the_Light.Site (1) < -10_000.0 then site_Delta (1) := 1.0; the_Light.Color_is (openGL.Palette.dark_Red); end if; the_Light.Site_is (the_Light.Site + site_Delta); Demo.Renderer.set (the_Light); -- Render the sprites. -- Demo.Camera.render (the_Visuals); while not Demo.Camera.cull_Completed loop delay Duration'Small; end loop; Demo.Renderer.render; Demo.FPS_Counter.increment; -- Frames per second display. end loop; end; Demo.destroy; end launch_render_Lighting;
------------------------------------------------------------------------------ -- -- -- GNAT RUN-TIME COMPONENTS -- -- -- -- S Y S T E M . T R A C E B A C K . S Y M B O L I C -- -- -- -- S p e c -- -- -- -- Copyright (C) 1999-2020, AdaCore -- -- -- -- GNAT is free software; you can redistribute it and/or modify it under -- -- terms of the GNU General Public License as published by the Free Soft- -- -- ware Foundation; either version 3, or (at your option) any later ver- -- -- sion. GNAT is distributed in the hope that it will be useful, but WITH- -- -- OUT ANY WARRANTY; without even the implied warranty of MERCHANTABILITY -- -- or FITNESS FOR A PARTICULAR PURPOSE. -- -- -- -- As a special exception under Section 7 of GPL version 3, you are granted -- -- additional permissions described in the GCC Runtime Library Exception, -- -- version 3.1, as published by the Free Software Foundation. -- -- -- -- You should have received a copy of the GNU General Public License and -- -- a copy of the GCC Runtime Library Exception along with this program; -- -- see the files COPYING3 and COPYING.RUNTIME respectively. If not, see -- -- <http://www.gnu.org/licenses/>. -- -- -- -- GNAT was originally developed by the GNAT team at New York University. -- -- Extensive contributions were provided by Ada Core Technologies Inc. -- -- -- ------------------------------------------------------------------------------ -- Run-time symbolic traceback support -- The full capability is currently supported on the following targets: -- GNU/Linux x86, x86_64, ia64 -- Note: on targets other than those listed above, a dummy implementation -- of the body returns a series of LF separated strings of the form "0x..." -- corresponding to the addresses. -- The routines provided in this package assume that your application has been -- compiled with debugging information turned on, since this information is -- used to build a symbolic traceback. -- If you want to retrieve tracebacks from exception occurrences, it is also -- necessary to invoke the binder with -E switch. Please refer to the gnatbind -- documentation for more information. -- Note that it is also possible (and often recommended) to compute symbolic -- traceback outside the program execution, which in addition allows you to -- distribute the executable with no debug info: -- -- - build your executable with debug info -- - archive this executable -- - strip a copy of the executable and distribute/deploy this version -- - at run time, compute absolute traceback (-bargs -E) from your -- executable and log it using Ada.Exceptions.Exception_Information -- - off line, compute the symbolic traceback using the executable archived -- with debug info and addr2line or gdb (using info line *<addr>) on the -- absolute addresses logged by your application. -- In order to retrieve symbolic information, functions in this package will -- read on disk all the debug information of the executable file (found via -- Argument (0), and looked in the PATH if needed) or shared libraries using -- OS facilities, and load them in memory, causing a significant cpu and -- memory overhead. -- Symbolic traceback from shared libraries is only supported for Windows and -- Linux. On other targets symbolic tracebacks are only supported for the main -- executable. You should consider using gdb to obtain symbolic traceback in -- such cases. with Ada.Exceptions; package System.Traceback.Symbolic is pragma Elaborate_Body; function Symbolic_Traceback (Traceback : System.Traceback_Entries.Tracebacks_Array) return String; function Symbolic_Traceback_No_Hex (Traceback : System.Traceback_Entries.Tracebacks_Array) return String; -- Build a string containing a symbolic traceback of the given call -- chain. Note: These procedures may be installed by Set_Trace_Decorator, -- to get a symbolic traceback on all exceptions raised (see -- System.Exception_Traces). function Symbolic_Traceback (E : Ada.Exceptions.Exception_Occurrence) return String; function Symbolic_Traceback_No_Hex (E : Ada.Exceptions.Exception_Occurrence) return String; -- Build string containing symbolic traceback of given exception occurrence -- In the above, _No_Hex means do not print any hexadecimal addresses, even -- if the symbol is not available. This is useful for getting deterministic -- output from tests. procedure Enable_Cache (Include_Modules : Boolean := False); -- Read symbolic information from binary files and cache them in memory. -- This will speed up the above functions but will require more memory. If -- Include_Modules is true, shared modules (or DLL) will also be cached. -- This procedure may do nothing if not supported. The profile of this -- subprogram may change in the future (new parameters can be added -- with default value), but backward compatibility for direct calls -- is supported. end System.Traceback.Symbolic;
-- Institution: Technische Universitaet Muenchen -- Department: Realtime Computer Systems (RCS) -- Project: StratoX -- -- Authors: Emanuel Regnath (emanuel.regnath@tum.de) -- -- Description: Generic vector package -- -- ToDo: -- [ ] Implementation with Ada.Numerics.Generic_Elementary_Functions; generic type Index_Type is (3); type Data_Type is Float; package Generic_Vector3D with SPARK_Mode is type Karthesian_Coordinate_Dimension_Type is (X, Y, Z); type Polar_Coordinate_Dimesion_Type is (Phi, Rho, Psi); type Earth_Coordinate_Dimension_Type is (LONGITUDE, LATITUDE, ALTITUDE); type Vector3D_Type is tagged array (Index_Type) of Float; type Karthesian_Vector_Type is record x : Data_Type; y : Data_Type; z : Data_Type; end record; function norm(vector : Karthesian_Vector_Type) return Data_Type; function "+" (Right : Vector3D_Type) return Vector3D_Type; function "-" (Right : Vector3D_Type) return Vector3D_Type; function "abs" (Right : Vector3D_Type) return Vector3D_Type; end Generic_Vector3D;
with Math; use Math; with Courbes.Visiteurs; use Courbes.Visiteurs; package body Courbes.Droites is function Ctor_Droite (Debut, Fin : Point2D) return Droite is Diff : constant Point2D := Fin - Debut; Longueur : constant Float := Hypot(Diff); begin return (Debut => Debut, Fin => Fin, Longueur => Longueur, Vecteur_Directeur => Diff / Longueur); end; overriding function Obtenir_Point(Self : Droite; X : Coordonnee_Normalisee) return Point2D is begin return Self.Obtenir_Debut + Self.Longueur * X * Self.Vecteur_Directeur; end; overriding procedure Accepter (Self : Droite; Visiteur : Visiteur_Courbe'Class) is begin Visiteur.Visiter (Self); end; end Courbes.Droites;
with Ada.Unchecked_Conversion; with System.Formatting.Address; with System.Long_Long_Integer_Types; with System.Termination; package body Ada.Containers.Binary_Trees.Arne_Andersson.Debug is subtype Word_Unsigned is System.Long_Long_Integer_Types.Word_Unsigned; function To_Address (Value : Node_Access) return System.Address with Import, Convention => Intrinsic; -- Address_To_Named_Access_Conversions could not be used because -- Node_Access is not access "all" type. type AA_Node_Access is access Node; function Downcast is new Unchecked_Conversion (Node_Access, AA_Node_Access); function Height (Container : Node_Access) return Natural; function Height (Container : Node_Access) return Natural is procedure Nonnull_First ( Item : in out Node_Access; Height : in out Natural); procedure Nonnull_First ( Item : in out Node_Access; Height : in out Natural) is begin while Item.Left /= null loop Item := Item.Left; Height := Height + 1; end loop; end Nonnull_First; procedure Next (Item : in out Node_Access; Height : in out Natural); procedure Next (Item : in out Node_Access; Height : in out Natural) is begin if Item.Right /= null then Item := Item.Right; Height := Height + 1; Nonnull_First (Item, Height); else loop declare P : constant Node_Access := Item; begin Item := Item.Parent; Height := Height - 1; exit when Item = null or else Item.Right /= P; end; end loop; end if; end Next; Result : Integer := 0; begin if Container /= null then declare I : Node_Access := Container; H : Natural := 1; begin Nonnull_First (I, H); while I /= null loop Result := Integer'Max (Result, H); Next (I, H); end loop; end; end if; return Result; end Height; -- implementation function Root (Node : not null Node_Access) return not null Node_Access is Result : not null Node_Access := Node; begin while Result.Parent /= null loop Result := Result.Parent; end loop; return Result; end Root; function Dump ( Container : Node_Access; Marker : Node_Access; Message : String := "") return Boolean is subtype Buffer_Type is String (1 .. 256); procedure Put ( Buffer : in out Buffer_Type; Last : in out Natural; S : String); procedure Put ( Buffer : in out Buffer_Type; Last : in out Natural; S : String) is First : constant Natural := Last + 1; begin Last := Last + S'Length; Buffer (First .. Last) := S; end Put; Buffer : Buffer_Type; Last : Natural; Indent_S : String (1 .. 2 * Height (Container)) := (others => ' '); Mark : constant array (Boolean) of Character := "-*"; begin Last := 0; Put (Buffer, Last, "Tree:"); if Message'Length > 0 then Put (Buffer, Last, " "); Put (Buffer, Last, Message); end if; System.Termination.Error_Put_Line (Buffer (1 .. Last)); declare Position : Node_Access := First (Container); begin while Position /= null loop declare Indent : Natural := 2; B : Character; C : Character; begin declare P : Node_Access := Position.Parent; begin while P /= null loop Indent := Indent + 2; P := P.Parent; end loop; end; if Position.Left = null then Indent_S (Indent) := '|'; end if; if Indent > 2 then if Indent_S (Indent - 2) = ' ' then C := '|'; else C := ' '; end if; Indent_S (Indent - 2) := '+'; end if; Indent_S (Indent - 1) := Mark (Position = Marker); B := Indent_S (Indent); if Position.Left = null and then Position.Right = null then Indent_S (Indent) := '-'; else Indent_S (Indent) := '+'; end if; Last := 0; Put (Buffer, Last, Indent_S); Put (Buffer, Last, " 0x"); System.Formatting.Address.Image ( To_Address (Position), Buffer ( Last + 1 .. Last + System.Formatting.Address.Address_String'Length), Set => System.Formatting.Lower_Case); Last := Last + System.Formatting.Address.Address_String'Length; Put (Buffer, Last, " (level = "); declare Error : Boolean; begin System.Formatting.Image ( Word_Unsigned (Downcast (Position).Level), Buffer (Last + 1 .. Buffer'Last), Last, Error => Error); end; Put (Buffer, Last, ")"); System.Termination.Error_Put_Line (Buffer (1 .. Last)); Indent_S (Indent) := B; Indent_S (Indent - 1) := ' '; if Indent > 2 then Indent_S (Indent - 2) := C; end if; if Position.Right = null then Indent_S (Indent) := ' '; end if; end; Position := Next (Position); end loop; end; return True; end Dump; function Valid ( Container : Node_Access; Length : Count_Type; Level_Check : Boolean := True) return Boolean is Position : Node_Access := First (Container); Count : Count_Type := 0; begin while Position /= null loop Count := Count + 1; if Level_Check then if Downcast (Position).Level > 0 then if Position.Left = null or else Position.Right = null then return False; end if; else if Position.Left /= null then return False; end if; end if; if Position.Left /= null then if Downcast (Position).Level /= Downcast (Position.Left).Level + 1 then return False; end if; end if; if Position.Right /= null then if Downcast (Position).Level not in Downcast (Position.Right).Level .. Downcast (Position.Right).Level + 1 then return False; end if; if Position.Right.Right /= null then if Downcast (Position).Level <= Downcast (Position.Right.Right).Level then return False; end if; end if; end if; end if; if Position.Left /= null then if Position.Left.Parent /= Position then return False; end if; end if; if Position.Right /= null then if Position.Right.Parent /= Position then return False; end if; end if; if Position.Parent = null then if Container /= Position then return False; end if; else if Position.Parent.Left /= Position and then Position.Parent.Right /= Position then return False; end if; end if; Position := Next (Position); end loop; return Count = Length; end Valid; end Ada.Containers.Binary_Trees.Arne_Andersson.Debug;
------------------------------------------------------------------------------ -- Copyright (c) 2011, Natacha Porté -- -- -- -- Permission to use, copy, modify, and distribute this software for any -- -- purpose with or without fee is hereby granted, provided that the above -- -- copyright notice and this permission notice appear in all copies. -- -- -- -- THE SOFTWARE IS PROVIDED "AS IS" AND THE AUTHOR DISCLAIMS ALL WARRANTIES -- -- WITH REGARD TO THIS SOFTWARE INCLUDING ALL IMPLIED WARRANTIES OF -- -- MERCHANTABILITY AND FITNESS. IN NO EVENT SHALL THE AUTHOR BE LIABLE FOR -- -- ANY SPECIAL, DIRECT, INDIRECT, OR CONSEQUENTIAL DAMAGES OR ANY DAMAGES -- -- WHATSOEVER RESULTING FROM LOSS OF USE, DATA OR PROFITS, WHETHER IN AN -- -- ACTION OF CONTRACT, NEGLIGENCE OR OTHER TORTIOUS ACTION, ARISING OUT OF -- -- OR IN CONNECTION WITH THE USE OR PERFORMANCE OF THIS SOFTWARE. -- ------------------------------------------------------------------------------ with Ada.Strings; use Ada.Strings; procedure Natools.Chunked_Strings.Tests.CXA4011 (Report : in out Natools.Tests.Reporter'Class) is package NT renames Natools.Tests; procedure Test (Test_Name : String; C_1 : Character; C_2 : Character; Name_1 : String; Name_2 : String); procedure Test (Test_Name : String; C_1 : Character; C_2 : Character; Name_1 : String; Name_2 : String) is begin if C_1 = C_2 then NT.Item (Report, Test_Name, NT.Success); else NT.Item (Report, Test_Name, NT.Fail); NT.Info (Report, Name_1 & ": " & Character'Image (C_1)); NT.Info (Report, Name_2 & ": " & Character'Image (C_2)); end if; end Test; begin NT.Section (Report, "Port of ACATS CXA4011"); declare Cad_String : constant Chunked_String := To_Chunked_String ("cad"); Complete_String : constant Chunked_String := To_Chunked_String ("Incomplete") & Ada.Strings.Space & To_Chunked_String ("String"); Incomplete_String : Chunked_String := To_Chunked_String ("ncomplete Strin"); Incorrect_Spelling : Chunked_String := To_Chunked_String ("Guob Dai"); Magic_String : constant Chunked_String := To_Chunked_String ("abracadabra"); Incantation : Chunked_String := Magic_String; A_Small_G : constant Character := 'g'; A_Small_D : constant Character := 'd'; ABCD_Set : constant Maps.Character_Set := Maps.To_Set ("abcd"); B_Set : constant Maps.Character_Set := Maps.To_Set ("b"); AB_Set : constant Maps.Character_Set := Maps."OR" (Maps.To_Set ('a'), B_Set); Code_Map : constant Maps.Character_Mapping := Maps.To_Mapping (From => "abcd", To => "wxyz"); Reverse_Code_Map : constant Maps.Character_Mapping := Maps.To_Mapping (From => "wxyz", To => "abcd"); Non_Existent_Map : constant Maps.Character_Mapping := Maps.To_Mapping (From => "jkl", To => "mno"); Token_Start : array (1 .. 3) of Positive; Token_End : array (1 .. 3) of Natural := (0, 0, 0); Matching_Letters : Natural := 0; Tests : array (1 .. 5) of Boolean; begin declare Name : constant String := "Operator ""&"""; Tests : array (1 .. 3) of Boolean; begin Incomplete_String := 'I' & Incomplete_String; Incomplete_String := Incomplete_String & A_Small_G; if not Is_Valid (Incomplete_String) or not Is_Valid (Complete_String) then NT.Item (Report, Name, NT.Error); if not Is_Valid (Incomplete_String) then NT.Info (Report, "Incomplete_String is invalid"); end if; if not Is_Valid (Complete_String) then NT.Info (Report, "Complete_String is invalid"); end if; else Tests (1) := Incomplete_String < Complete_String; Tests (2) := Incomplete_String > Complete_String; Tests (3) := Incomplete_String /= Complete_String; if Tests (1) or Tests (2) or Tests (3) then NT.Item (Report, Name, NT.Fail); NT.Info (Report, "Incomplete_String: """ & To_String (Incomplete_String) & '"'); NT.Info (Report, "Complete_String: """ & To_String (Complete_String) & '"'); if Tests (1) then NT.Info (Report, "-> Incomplete_String < Complete_String"); end if; if Tests (2) then NT.Info (Report, "-> Incomplete_String < Complete_String"); end if; if Tests (3) then NT.Info (Report, "-> Incomplete_String /= Complete_String"); end if; else NT.Item (Report, Name, NT.Success); end if; end if; exception when Error : others => NT.Report_Exception (Report, Name, Error); end; NT.Section (Report, "Function Element"); declare Name : constant String := "Element of complete vs constant"; begin Test (Name, Element (Incomplete_String, Length (Incomplete_String)), A_Small_G, "Element (""" & To_String (Incomplete_String) & ',' & Natural'Image (Length (Incomplete_String)) & ')', "A_Small_G"); exception when Error : others => NT.Report_Exception (Report, Name, Error); end; declare Name : constant String := "Element of complete vs Element of Tail"; begin Test (Name, Element (Incomplete_String, 2), Element (Tail (Incomplete_String, 2), 1), "Element (""" & To_String (Incomplete_String) & ", 2)", "Element (""" & To_String (Tail (Incomplete_String, 2)) & ", 1)"); exception when Error : others => NT.Report_Exception (Report, Name, Error); end; declare Name : constant String := "Element of Head vs Element of constant"; begin Test (Name, Element (Head (Incomplete_String, 4), 2), Element (To_Chunked_String ("wnqz"), 2), "Element (""" & To_String (Head (Incomplete_String, 4)) & ", 2)", "Element (""wnqz"", 2)"); exception when Error : others => NT.Report_Exception (Report, Name, Error); end; NT.End_Section (Report); declare Name : constant String := "Procedure Replace_Element"; begin Replace_Element (Incorrect_Spelling, 2, 'o'); Replace_Element (Incorrect_Spelling, Index (Incorrect_Spelling, B_Set), A_Small_D); Replace_Element (Source => Incorrect_Spelling, Index => Length (Incorrect_Spelling), By => 'y'); Test (Report, Name, Incorrect_Spelling, "Good Day"); exception when Error : others => NT.Report_Exception (Report, Name, Error); end; -- Function Count Matching_Letters := Count (Source => Magic_String, Set => ABCD_Set); NT.Item (Report, "Function Count with Set parameter", NT.To_Result (Matching_Letters = 9)); if Matching_Letters /= 9 then NT.Info (Report, "Count (""" & To_String (Magic_String) & """, ABCD_Set) " & Natural'Image (Matching_Letters) & " (should be 9)"); Dump (Report, Magic_String); end if; Tests (1) := Count (Magic_String, "ab") = Count (Magic_String, "ac") + Count (Magic_String, "ad"); Tests (2) := Count (Magic_String, "ab") = 2; NT.Item (Report, "Function Count with String parameter", NT.To_Result (Tests (1) and Tests (2))); if not Tests (1) or not Tests (2) then NT.Info (Report, "Count (""" & To_String (Magic_String) & """, ""ab"") " & Natural'Image (Count (Magic_String, "ab")) & " (should be 2)"); NT.Info (Report, "Count (""" & To_String (Magic_String) & """, ""ac"") " & Natural'Image (Count (Magic_String, "ac"))); NT.Info (Report, "Count (""" & To_String (Magic_String) & """, ""ad"") " & Natural'Image (Count (Magic_String, "ad"))); end if; -- Find_Token Find_Token (Magic_String, AB_Set, Ada.Strings.Inside, Token_Start (1), Token_End (1)); Tests (1) := Natural (Token_Start (1)) = To_String (Magic_String)'First and Token_End (1) = Index (Magic_String, B_Set); Find_Token (Source => Magic_String, Set => ABCD_Set, Test => Ada.Strings.Outside, First => Token_Start (2), Last => Token_End (2)); Tests (2) := Natural (Token_Start (2)) = 3 and Token_End (2) = 3; Find_Token (Magic_String, Maps.To_Set (A_Small_G), Ada.Strings.Inside, First => Token_Start (3), Last => Token_End (3)); Tests (3) := Token_Start (3) = To_String (Magic_String)'First and Token_End (3) = 0; NT.Item (Report, "Procedure Find_Token", NT.To_Result (Tests (1) and Tests (2) and Tests (3))); if not Tests (1) then NT.Info (Report, "Start: " & Positive'Image (Token_Start (1)) & " /= " & Positive'Image (To_String (Magic_String)'First) & " (should be both 1)"); NT.Info (Report, "End: " & Natural'Image (Token_End (1)) & " /= " & Natural'Image (Index (Magic_String, B_Set)) & " (should be both 2)"); end if; if not Tests (2) then NT.Info (Report, "Start: " & Positive'Image (Token_Start (2)) & " (should be 3)"); NT.Info (Report, "End: " & Natural'Image (Token_End (2)) & " (should be 3)"); end if; if not Tests (3) then NT.Info (Report, "Start: " & Positive'Image (Token_Start (3)) & " /= " & Positive'Image (To_String (Magic_String)'First) & " (should be 1)"); NT.Info (Report, "End: " & Natural'Image (Token_End (3)) & " (should be 0)"); end if; -- Translate Incantation := Translate (Magic_String, Code_Map); Tests (1) := Incantation = To_Chunked_String ("wxrwywzwxrw"); NT.Item (Report, "Function Translate", NT.To_Result (Tests (1))); if not Tests (1) then NT.Info (Report, '"' & To_String (Incantation) & """ /= ""wxrwywzwxrw"""); end if; Translate (Incantation, Reverse_Code_Map); Tests (1) := Incantation = Translate (Magic_String, Non_Existent_Map); NT.Item (Report, "Procedure Translate", NT.To_Result (Tests (1))); if not Tests (1) then NT.Info (Report, '"' & To_String (Incantation) & """ /= """ & To_String (Translate (Magic_String, Non_Existent_Map)) & """ (should be """ & To_String (Magic_String) & """)"); end if; -- Trim declare XYZ_Set : constant Maps.Character_Set := Maps.To_Set ("xyz"); PQR_Set : constant Maps.Character_Set := Maps.To_Set ("pqr"); Pad : constant Chunked_String := To_Chunked_String ("Pad"); The_New_Ada : constant Chunked_String := To_Chunked_String ("Ada9X"); Space_Array : constant array (1 .. 4) of Chunked_String := (To_Chunked_String (" Pad "), To_Chunked_String ("Pad "), To_Chunked_String (" Pad"), Pad); String_Array : constant array (1 .. 5) of Chunked_String := (To_Chunked_String ("xyzxAda9Xpqr"), To_Chunked_String ("Ada9Xqqrp"), To_Chunked_String ("zxyxAda9Xqpqr"), To_Chunked_String ("xxxyAda9X"), The_New_Ada); begin for I in 1 .. 4 loop Tests (I) := Trim (Space_Array (I), Ada.Strings.Both) = Pad; end loop; NT.Item (Report, "Trim spaces", NT.To_Result (Tests (1) and Tests (2) and Tests (3) and Tests (4))); for I in 1 .. 4 loop if not Tests (I) then NT.Info (Report, "Part" & Positive'Image (I) & ": Trim (""" & To_String (Space_Array (I)) & """, Both) -> """ & To_String (Trim (Space_Array (I), Ada.Strings.Both)) & """ (shoud be """ & To_String (Pad) & '"'); end if; end loop; for I in 1 .. 5 loop Tests (I) := Trim (String_Array (I), Left => XYZ_Set, Right => PQR_Set) = The_New_Ada; end loop; NT.Item (Report, "Trim sets of characters", NT.To_Result (Tests (1) and Tests (2) and Tests (3) and Tests (4) and Tests (5))); for I in 1 .. 5 loop if not Tests (I) then NT.Info (Report, "Part" & Positive'Image (I) & ": Trim (""" & To_String (String_Array (I)) & """, XYZ_Set, PQR_Set) -> """ & To_String (Trim (String_Array (I), XYZ_Set, PQR_Set)) & """ (shoud be """ & To_String (The_New_Ada) & '"'); end if; end loop; end; -- Delete Tests (1) := Delete (Source => Delete (Magic_String, 8, Length (Magic_String)), From => To_String (Magic_String)'First, Through => 4) = Cad_String; NT.Item (Report, "Function Delete", NT.To_Result (Tests (1))); if not Tests (1) then NT.Info (Report, '"' & To_String (Delete (Delete (Magic_String, 8, Length (Magic_String)), To_String (Magic_String)'First, 4)) & """ /= """ & To_String (Cad_String) & '"'); end if; -- Constructors "*" declare SOS : Chunked_String; Dot : constant Chunked_String := To_Chunked_String ("Dot_"); Dash : constant String := "Dash_"; Distress : constant Chunked_String := To_Chunked_String ("Dot_Dot_Dot_") & To_Chunked_String ("Dash_Dash_Dash_") & To_Chunked_String ("Dot_Dot_Dot"); Repeat : constant Natural := 3; Separator : constant Character := '_'; Separator_Set : constant Maps.Character_Set := Maps.To_Set (Separator); begin SOS := Repeat * Dot; SOS := SOS & Repeat * Dash & Repeat * Dot; if Trim (SOS, Maps.Null_Set, Separator_Set) /= Distress then NT.Item (Report, "Function ""*""", NT.Fail); NT.Info (Report, '"' & To_String (Trim (SOS, Maps.Null_Set, Separator_Set)) & """ /= """ & To_String (Distress) & '"'); else NT.Item (Report, "Function ""*""", NT.Success); end if; end; exception when Error : others => NT.Report_Exception (Report, "Preparation", Error); end; NT.End_Section (Report); end Natools.Chunked_Strings.Tests.CXA4011;
with Tarmi.Environments; use Tarmi.Environments; package Tarmi.Combiners is type Combiner_R is abstract new Datum_R with null record; type Combiner is not null access constant Combiner_R'Class; type Operative_R is new Combiner_R with record Param_Tree_Formals : Datum; Dyn_Env_Formal : Datum; Static_Env : Environment; Body_Form : Datum; end record; type Operative is not null access constant Operative_R; type Applicative_R is new Combiner_R with record Underlying : Combiner; end record; type Applicative is not null access constant Applicative_R; end Tarmi.Combiners;
with Ada.Text_IO; procedure Count_The_Coins is type Counter_Type is range 0 .. 2**63-1; -- works with gnat type Coin_List is array(Positive range <>) of Positive; function Count(Goal: Natural; Coins: Coin_List) return Counter_Type is Cnt: array(0 .. Goal) of Counter_Type := (0 => 1, others => 0); -- 0 => we already know one way to choose (no) coins that sum up to zero -- 1 .. Goal => we do not (yet) other ways to choose coins begin for C in Coins'Range loop for Amount in 1 .. Cnt'Last loop if Coins(C) <= Amount then Cnt(Amount) := Cnt(Amount) + Cnt(Amount-Coins(C)); -- Amount-Coins(C) plus Coins(C) sums up to Amount; end if; end loop; end loop; return Cnt(Goal); end Count; procedure Print(C: Counter_Type) is begin Ada.Text_IO.Put_Line(Counter_Type'Image(C)); end Print; begin Print(Count( 1_00, (25, 10, 5, 1))); Print(Count(1000_00, (100, 50, 25, 10, 5, 1))); end Count_The_Coins;
pragma License (Unrestricted); -- optional runtime unit with System; package nosig is pragma Preelaborate; procedure Install_Exception_Handler (SEH : System.Address) is null with Export, -- for weak linking Convention => Ada, External_Name => "__drake_install_exception_handler"; procedure Install_Task_Exception_Handler ( SEH : System.Address; Signal_Stack : System.Address) is null with Export, Convention => Ada, External_Name => "__drake_install_task_exception_handler"; procedure Reinstall_Exception_Handler is null with Export, Convention => Ada, External_Name => "__drake_reinstall_exception_handler"; -- Win64 SEH only function New_Machine_Occurrence_From_SEH ( Exception_Record : System.Address) return System.Address is (System.Null_Address) with Export, Convention => Ada, External_Name => "__drake_new_machine_occurrence_from_seh"; end nosig;
------------------------------------------------------------------------------ -- A d a r u n - t i m e s p e c i f i c a t i o n -- -- ASIS implementation for Gela project, a portable Ada compiler -- -- http://gela.ada-ru.org -- -- - - - - - - - - - - - - - - - -- -- Read copyright and license at the end of ada.ads file -- ------------------------------------------------------------------------------ -- $Revision: 209 $ $Date: 2013-11-30 21:03:24 +0200 (Сб., 30 нояб. 2013) $ package Interfaces is pragma Pure(Interfaces); type Integer_8 is range -2**(8-1) .. 2**(8-1) - 1; type Unsigned_8 is mod 2**8; function Shift_Left (Value : Unsigned_8; Amount : Natural) return Unsigned_8; function Shift_Right (Value : Unsigned_8; Amount : Natural) return Unsigned_8; function Shift_Right_Arithmetic (Value : Unsigned_8; Amount : Natural) return Unsigned_8; function Rotate_Left (Value : Unsigned_8; Amount : Natural) return Unsigned_8; function Rotate_Right (Value : Unsigned_8; Amount : Natural) return Unsigned_8; type Integer_16 is range -2**(16-1) .. 2**(16-1) - 1; type Unsigned_16 is mod 2**16; function Shift_Left (Value : Unsigned_16; Amount : Natural) return Unsigned_16; function Shift_Right (Value : Unsigned_16; Amount : Natural) return Unsigned_16; function Shift_Right_Arithmetic (Value : Unsigned_16; Amount : Natural) return Unsigned_16; function Rotate_Left (Value : Unsigned_16; Amount : Natural) return Unsigned_16; function Rotate_Right (Value : Unsigned_16; Amount : Natural) return Unsigned_16; type Integer_32 is range -2**(32-1) .. 2**(32-1) - 1; type Unsigned_32 is mod 2**32; function Shift_Left (Value : Unsigned_32; Amount : Natural) return Unsigned_32; function Shift_Right (Value : Unsigned_32; Amount : Natural) return Unsigned_32; function Shift_Right_Arithmetic (Value : Unsigned_32; Amount : Natural) return Unsigned_32; function Rotate_Left (Value : Unsigned_32; Amount : Natural) return Unsigned_32; function Rotate_Right (Value : Unsigned_32; Amount : Natural) return Unsigned_32; type Integer_64 is range -2**(64-1) .. 2**(64-1) - 1; type Unsigned_64 is mod 2**64; function Shift_Left (Value : Unsigned_64; Amount : Natural) return Unsigned_64; function Shift_Right (Value : Unsigned_64; Amount : Natural) return Unsigned_64; function Shift_Right_Arithmetic (Value : Unsigned_64; Amount : Natural) return Unsigned_64; function Rotate_Left (Value : Unsigned_64; Amount : Natural) return Unsigned_64; function Rotate_Right (Value : Unsigned_64; Amount : Natural) return Unsigned_64; end Interfaces;
package GESTE_Fonts.FreeSerif12pt7b is Font : constant Bitmap_Font_Ref; private FreeSerif12pt7bBitmaps : aliased constant Font_Bitmap := ( 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#01#, 16#80#, 16#00#, 16#07#, 16#00#, 16#00#, 16#1C#, 16#00#, 16#00#, 16#70#, 16#00#, 16#01#, 16#80#, 16#00#, 16#02#, 16#00#, 16#00#, 16#08#, 16#00#, 16#00#, 16#20#, 16#00#, 16#00#, 16#80#, 16#00#, 16#02#, 16#00#, 16#00#, 16#08#, 16#00#, 16#00#, 16#20#, 16#00#, 16#00#, 16#00#, 16#00#, 16#06#, 16#00#, 16#00#, 16#1C#, 16#00#, 16#00#, 16#60#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#02#, 16#20#, 16#00#, 16#19#, 16#80#, 16#00#, 16#22#, 16#00#, 16#00#, 16#88#, 16#00#, 16#02#, 16#20#, 16#00#, 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16#00#, 16#00#, 16#00#, 16#00#, 16#00#, 16#00#); Font_D : aliased constant Bitmap_Font := ( Bytes_Per_Glyph => 77, Glyph_Width => 22, Glyph_Height => 28, Data => FreeSerif12pt7bBitmaps'Access); Font : constant Bitmap_Font_Ref := Font_D'Access; end GESTE_Fonts.FreeSerif12pt7b;
----------------------------------------------------------------------- -- mat-frames - Representation of stack frames -- Copyright (C) 2014, 2015, 2021 Stephane Carrez -- Written by Stephane Carrez (Stephane.Carrez@gmail.com) -- -- Licensed under the Apache License, Version 2.0 (the "License"); -- you may not use this file except in compliance with the License. -- You may obtain a copy of the License at -- -- http://www.apache.org/licenses/LICENSE-2.0 -- -- Unless required by applicable law or agreed to in writing, software -- distributed under the License is distributed on an "AS IS" BASIS, -- WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. -- See the License for the specific language governing permissions and -- limitations under the License. ----------------------------------------------------------------------- with MAT.Types; package MAT.Frames is Not_Found : exception; type Frame_Type is private; type Frame_Table is array (Natural range <>) of MAT.Types.Target_Addr; -- Return the parent frame. function Parent (Frame : in Frame_Type) return Frame_Type; -- Returns the backtrace of the current frame (up to the root). -- When <tt>Max_Level</tt> is positive, limit the number of PC frames to the value. function Backtrace (Frame : in Frame_Type; Max_Level : in Natural := 0) return Frame_Table; -- Returns all the direct calls made by the current frame. function Calls (Frame : in Frame_Type) return Frame_Table; -- Returns the number of children in the frame. -- When recursive is true, compute in the sub-tree. function Count_Children (Frame : in Frame_Type; Recursive : in Boolean := False) return Natural; -- Returns the current stack depth (# of calls from the root -- to reach the frame). function Current_Depth (Frame : in Frame_Type) return Natural; -- Find the child frame which has the given PC address. -- Returns that frame pointer or raises the Not_Found exception. function Find (Frame : in Frame_Type; Pc : in MAT.Types.Target_Addr) return Frame_Type; -- Check whether the frame contains a call to the function described by the address range. function In_Function (Frame : in Frame_Type; From : in MAT.Types.Target_Addr; To : in MAT.Types.Target_Addr) return Boolean; -- Check whether the inner most frame contains a call to the function described by -- the address range. This function looks only at the inner most frame and not the -- whole stack frame. function By_Function (Frame : in Frame_Type; From : in MAT.Types.Target_Addr; To : in MAT.Types.Target_Addr) return Boolean; private type Frame; type Frame_Type is access all Frame; -- The frame information is readonly and we can safely use the By_Function, In_Function -- and Backtrace without protection. Insertion and creation of stack frame must be -- protected through a protected type managed by Target_Frames. All the frame instances -- are released when the Target_Frames protected type is released. type Frame (Parent : Frame_Type; Depth : Natural; Pc : MAT.Types.Target_Addr) is limited record Next : Frame_Type := null; Children : Frame_Type := null; Used : Natural := 0; end record; -- Create a root for stack frame representation. function Create_Root return Frame_Type; -- Insert in the frame tree the new stack frame represented by <tt>Pc</tt>. -- If the frame is already known, the frame reference counter is incremented. -- The frame represented by <tt>Pc</tt> is returned in <tt>Result</tt>. procedure Insert (Frame : in Frame_Type; Pc : in Frame_Table; Result : out Frame_Type); -- Destroy the frame tree recursively. procedure Destroy (Frame : in out Frame_Type); end MAT.Frames;
package body gel.remote.World is function refined (Self : in coarse_Vector_3) return math.Vector_3 is begin return (math.Real (Self (1)), math.Real (Self (2)), math.Real (Self (3))); end refined; function coarsen (Self : in math.Vector_3) return coarse_Vector_3 is Result : coarse_Vector_3; begin begin Result (1) := coarse_Real (Self (1)); exception when constraint_Error => if Self (1) > 0.0 then Result (1) := coarse_Real'Last; else Result (1) := coarse_Real'First; end if; end; begin Result (2) := coarse_Real (Self (2)); exception when constraint_Error => if Self (2) > 0.0 then Result (2) := coarse_Real'Last; else Result (2) := coarse_Real'First; end if; end; begin Result (3) := coarse_Real (Self (3)); exception when constraint_Error => if Self (3) > 0.0 then Result (3) := coarse_Real'Last; else Result (3) := coarse_Real'First; end if; end; return Result; end coarsen; function refined (Self : in coarse_Quaternion) return math.Quaternion is begin return (R => math.Real (Self (1)), V => (math.Real (Self (2)), math.Real (Self (3)), math.Real (Self (4)))); end refined; function coarsen (Self : in math.Quaternion) return coarse_Quaternion is Result : coarse_Quaternion; begin begin Result (1) := coarse_Real2 (Self.R); exception when constraint_Error => if Self.R > 0.0 then Result (1) := coarse_Real2'Last; else Result (1) := coarse_Real2'First; end if; end; begin Result (2) := coarse_Real2 (Self.V (1)); exception when constraint_Error => if Self.V (1) > 0.0 then Result (2) := coarse_Real2'Last; else Result (2) := coarse_Real2'First; end if; end; begin Result (3) := coarse_Real2 (Self.V (2)); exception when constraint_Error => if Self.V (2) > 0.0 then Result (3) := coarse_Real2'Last; else Result (3) := coarse_Real2'First; end if; end; begin Result (4) := coarse_Real2 (Self.V (3)); exception when Constraint_Error => if Self.V (3) > 0.0 then Result (4) := coarse_Real2'Last; else Result (4) := coarse_Real2'First; end if; end; return Result; end coarsen; ----------- --- Streams -- use ada.Streams; number_of_stream_Elements_for_a_motion_Update : constant Stream_Element_Offset := motion_Update'Size / Stream_Element'Size; procedure motion_Updates_write (Stream : access ada.Streams.Root_Stream_type'Class; Item : in motion_Updates) is stream_element_array_Length : constant Stream_Element_Offset := Item'Length * number_of_stream_Elements_for_a_Motion_Update; subtype the_Stream_Element_Array is Stream_Element_Array (1 .. stream_element_array_Length); function to_Stream_Element_Array is new ada.unchecked_Conversion (motion_Updates, the_Stream_Element_Array); begin write (Stream.all, to_Stream_Element_Array (Item)); end motion_Updates_write; procedure motion_Updates_read (Stream : access ada.Streams.Root_Stream_type'Class; Item : out motion_Updates) is subtype the_Stream_Element_Array is Stream_Element_Array (1 .. Item'Length * number_of_stream_Elements_for_a_motion_Update); subtype the_motion_Updates is motion_Updates (1 .. Item'Length); function to_motion_Updates is new ada.unchecked_Conversion (the_Stream_Element_Array, the_motion_Updates); the_Stream_Array : the_Stream_Element_Array; Last : Stream_Element_Offset; begin read (Stream.all, the_Stream_Array, Last); pragma assert (Last = the_Stream_Array'Last); Item := to_motion_Updates (the_Stream_Array (1 .. Last)); end motion_Updates_read; procedure Write (Stream : not null access ada.Streams.Root_Stream_type'Class; the_Event : in new_model_Event) is begin openGL.remote_Model.item'Class'Output (Stream, the_Event.Model.all); end Write; procedure Read (Stream : not null access ada.Streams.Root_Stream_type'Class; the_Event : out new_model_Event) is begin the_Event.Model := new openGL.remote_Model.item'Class' (openGL.remote_Model.item'Class'Input (Stream)); end Read; procedure Write (Stream : not null access ada.Streams.Root_Stream_type'Class; the_Event : in new_physics_model_Event) is begin physics.Remote.Model.item'Class'Output (Stream, the_Event.Model.all); end Write; procedure Read (Stream : not null access ada.Streams.Root_Stream_type'Class; the_Event : out new_physics_model_Event) is begin the_Event.Model := new physics.remote.Model.item'Class' (physics.remote.Model.item'Class'Input (Stream)); end Read; end gel.remote.World;
with Ada.Text_IO; with Ada.Unchecked_Deallocation; with ARM_Output; with ARM_Contents; package ARM_Texinfo is -- -- Ada reference manual formatter. -- -- This package defines the TEXINFO output object. -- Output objects are responsible for implementing the details of -- a particular format. -- -- --------------------------------------- -- -- Copyright (C) 2003, 2007, 2011, 2013, 2018 Stephen Leake. All Rights Reserved. -- E-Mail: stephen_leake@stephe-leake.org -- -- This library is free software; you can redistribute it and/or -- modify it under terms of the GNU General Public License as -- published by the Free Software Foundation; either version 3, or (at -- your option) any later version. This library is distributed in the -- hope that it will be useful, but WITHOUT ANY WARRANTY; without even -- the implied warranty of MERCHANTABILITY or FITNESS FOR A PARTICULAR -- PURPOSE. See the GNU General Public License for more details. You -- should have received a copy of the GNU General Public License -- distributed with this program; see file gnu-3-0.txt. If not, write to -- the Free Software Foundation, 59 Temple Place - Suite 330, Boston, -- MA 02111-1307, USA. -- --------------------------------------- -- -- Edit History: -- -- Ancient - S L - Developed package as add-on to Arm_Form. -- 10/19/11 - RLB - Integrated outside-developed package into Arm_Form. -- Commented out/replaced Ada 2005 features (this is -- Ada 95 code). Updated for a few other changes since -- the last update. -- 10/25/11 - RLB - Added old insertion version to Revised_Clause_Header. -- 4/ 1/12 - S L - Various revisions. -- 8/31/12 - RLB - Added Output_Path. -- 11/26/12 - RLB - Added subdivision names to Clause_Header and -- Revised_Clause_Header. type Texinfo_Output_Type is new ARM_Output.Output_Type with private; --not overriding - Ada 2005-only procedure Create (Output_Object : in out Texinfo_Output_Type; File_Prefix : in String; Output_Path : in String; Change_Version : in ARM_Contents.Change_Version_Type; Title : in String); -- Create an Output_Object for a document. -- overriding - Ada 2005-only procedure Close (Output_Object : in out Texinfo_Output_Type); -- overriding procedure Section (Output_Object : in out Texinfo_Output_Type; Section_Title : in String; Section_Name : in String); -- overriding procedure Set_Columns (Output_Object : in out Texinfo_Output_Type; Number_of_Columns : in ARM_Output.Column_Count); -- overriding procedure Start_Paragraph (Output_Object : in out Texinfo_Output_Type; Style : in ARM_Output.Paragraph_Style_Type; Indent : in ARM_Output.Paragraph_Indent_Type; Number : in String; No_Prefix : in Boolean := False; Tab_Stops : in ARM_Output.Tab_Info := ARM_Output.NO_TABS; No_Breaks : in Boolean := False; Keep_with_Next : in Boolean := False; Space_After : in ARM_Output.Space_After_Type := ARM_Output.Normal; Justification : in ARM_Output.Justification_Type := ARM_Output.Default); -- overriding procedure End_Paragraph (Output_Object : in out Texinfo_Output_Type); -- overriding procedure Category_Header (Output_Object : in out Texinfo_Output_Type; Header_Text : String); -- overriding procedure Clause_Header (Output_Object : in out Texinfo_Output_Type; Header_Text : in String; Level : in ARM_Contents.Level_Type; Clause_Number : in String; Top_Level_Subdivision_Name : in ARM_Output.Top_Level_Subdivision_Name_Kind; No_Page_Break : in Boolean := False); -- overriding procedure Revised_Clause_Header (Output_Object : in out Texinfo_Output_Type; New_Header_Text : in String; Old_Header_Text : in String; Level : in ARM_Contents.Level_Type; Clause_Number : in String; Version : in ARM_Contents.Change_Version_Type; Old_Version : in ARM_Contents.Change_Version_Type; Top_Level_Subdivision_Name : in ARM_Output.Top_Level_Subdivision_Name_Kind; No_Page_Break : in Boolean := False); -- overriding procedure TOC_Marker (Output_Object : in out Texinfo_Output_Type; For_Start : in Boolean); -- overriding procedure New_Page (Output_Object : in out Texinfo_Output_Type; Kind : ARM_Output.Page_Kind_Type := ARM_Output.Any_Page); -- overriding procedure New_Column (Output_Object : in out Texinfo_Output_Type); -- overriding procedure Separator_Line (Output_Object : in out Texinfo_Output_Type; Is_Thin : Boolean := True); -- overriding procedure Start_Table (Output_Object : in out Texinfo_Output_Type; Columns : in ARM_Output.Column_Count; First_Column_Width : in ARM_Output.Column_Count; Last_Column_Width : in ARM_Output.Column_Count; Alignment : in ARM_Output.Column_Text_Alignment; No_Page_Break : in Boolean; Has_Border : in Boolean; Small_Text_Size : in Boolean; Header_Kind : in ARM_Output.Header_Kind_Type); -- overriding procedure Table_Marker (Output_Object : in out Texinfo_Output_Type; Marker : in ARM_Output.Table_Marker_Type); -- overriding procedure Ordinary_Text (Output_Object : in out Texinfo_Output_Type; Text : in String); -- overriding procedure Ordinary_Character (Output_Object : in out Texinfo_Output_Type; Char : in Character); -- overriding procedure Hard_Space (Output_Object : in out Texinfo_Output_Type); -- overriding procedure Line_Break (Output_Object : in out Texinfo_Output_Type); -- overriding procedure Index_Line_Break (Output_Object : in out Texinfo_Output_Type; Clear_Keep_with_Next : in Boolean); -- overriding procedure Soft_Line_Break (Output_Object : in out Texinfo_Output_Type); -- overriding procedure Soft_Hyphen_Break (Output_Object : in out Texinfo_Output_Type); -- overriding procedure Tab (Output_Object : in out Texinfo_Output_Type); -- overriding procedure Special_Character (Output_Object : in out Texinfo_Output_Type; Char : in ARM_Output.Special_Character_Type); -- overriding procedure Unicode_Character (Output_Object : in out Texinfo_Output_Type; Char : in ARM_Output.Unicode_Type); -- overriding procedure End_Hang_Item (Output_Object : in out Texinfo_Output_Type); -- overriding procedure Text_Format (Output_Object : in out Texinfo_Output_Type; Format : in ARM_Output.Format_Type); -- overriding procedure Clause_Reference (Output_Object : in out Texinfo_Output_Type; Text : in String; Clause_Number : in String); -- overriding procedure Index_Target (Output_Object : in out Texinfo_Output_Type; Index_Key : in Natural); -- overriding procedure Index_Reference (Output_Object : in out Texinfo_Output_Type; Text : in String; Index_Key : in Natural; Clause_Number : in String); -- overriding procedure DR_Reference (Output_Object : in out Texinfo_Output_Type; Text : in String; DR_Number : in String); -- overriding procedure AI_Reference (Output_Object : in out Texinfo_Output_Type; Text : in String; AI_Number : in String); -- overriding procedure Local_Target (Output_Object : in out Texinfo_Output_Type; Text : in String; Target : in String); -- overriding procedure Local_Link (Output_Object : in out Texinfo_Output_Type; Text : in String; Target : in String; Clause_Number : in String); -- overriding procedure Local_Link_Start (Output_Object : in out Texinfo_Output_Type; Target : in String; Clause_Number : in String); -- overriding procedure Local_Link_End (Output_Object : in out Texinfo_Output_Type; Target : in String; Clause_Number : in String); -- overriding procedure URL_Link (Output_Object : in out Texinfo_Output_Type; Text : in String; URL : in String); -- overriding procedure Picture (Output_Object : in out Texinfo_Output_Type; Name : in String; Descr : in String; Alignment : in ARM_Output.Picture_Alignment; Height, Width : in Natural; Border : in ARM_Output.Border_Kind); private subtype Column_Index_Type is Integer range 1 .. 5; type Column_Text_Item_Type; type Column_Text_Ptr is access Column_Text_Item_Type; type Column_Text_Item_Type is record Text : String (1 .. 80); Length : Natural; Row : Natural; -- Which row in the column. Next : Column_Text_Ptr; end record; type Column_Text_Ptrs_Type is array (Column_Index_Type) of Column_Text_Ptr; type Column_Widths_Type is array (Column_Index_Type) of Natural; procedure Free is new Ada.Unchecked_Deallocation (Column_Text_Item_Type, Column_Text_Ptr); type State_Type is (Title, Contents, Table_Header, Multi_Column, Normal, Index_Start, Index); type Texinfo_Output_Type is new ARM_Output.Output_Type with record File : Ada.Text_IO.File_Type; Is_Valid : Boolean := False; State : State_Type; In_Paragraph : Boolean := False; -- Sub-state within major states Style : ARM_Output.Paragraph_Style_Type; Indent : ARM_Output.Paragraph_Indent_Type; Format : ARM_Output.Format_Type := ARM_Output.Normal_Format; End_Hang_Seen : Boolean; -- Detecting end of title page Line_Empty : Boolean := False; -- True if current line contains only whitespace. First_Word : String (1 .. 80); First_Word_Last : Natural; -- Building menus Menu_Section : ARM_Contents.Section_Number_Type := 0; Menu_Clause : Natural := 0; -- Table and Multi-Column format Column_Count : ARM_Output.Column_Count; Current_Column : Natural; Current_Row : Natural; Column_Text : Column_Text_Ptrs_Type := (others => null); Column_Widths : Column_Widths_Type; Max_Row : Natural := 0; end record; end ARM_Texinfo;
package Vect15 is type Sarray is array (1 .. 4) of Long_Float; for Sarray'Alignment use 16; procedure Add (X, Y : Sarray; R : out Sarray); end Vect15;
package body Setup is protected body Motor_Setup is procedure Calibrate_Motors_If_Required is begin if not Setup_Done then --Calibrating left and right ESC Put("Start Setup"); delay 4.0; --Write(3,1000); --Set_Analog_Period_Us(20000); --Write(28,1000); --Set_Analog_Period_Us(20000); --NRF52_DK.Time.Delay_Ms(2000); --Write(3,2000); --Set_Analog_Period_Us(20000); --Write(28,2000); --Set_Analog_Period_Us(20000); --NRF52_DK.Time.Delay_Ms (2000); Setup_Done := True; end if; end Calibrate_Motors_If_Required; end Motor_Setup; end Setup;
-- -- Copyright (C) 2015 secunet Security Networks AG -- -- This program is free software; you can redistribute it and/or modify -- it under the terms of the GNU General Public License as published by -- the Free Software Foundation; either version 2 of the License, or -- (at your option) any later version. -- -- This program is distributed in the hope that it will be useful, -- but WITHOUT ANY WARRANTY; without even the implied warranty of -- MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the -- GNU General Public License for more details. -- package HW.Debug is procedure Put (Item : String); procedure Put_Line (Item : String); procedure New_Line; procedure Put_Word8 (Item : Word8); procedure Put_Word16 (Item : Word16); procedure Put_Word32 (Item : Word32); procedure Put_Word64 (Item : Word64); procedure Put_Int8 (Item : Int8); procedure Put_Int16 (Item : Int16); procedure Put_Int32 (Item : Int32); procedure Put_Int64 (Item : Int64); procedure Put_Reg8 (Name : String; Item : Word8); procedure Put_Reg16 (Name : String; Item : Word16); procedure Put_Reg32 (Name : String; Item : Word32); procedure Put_Reg64 (Name : String; Item : Word64); procedure Put_Buffer (Name : String; Buf : in Buffer; Len : in Buffer_Range); procedure Set_Register_Write_Delay (Value : Word64); Procedure Register_Write_Wait; end HW.Debug; -- vim: set ts=8 sts=3 sw=3 et:
-- This file is covered by the Internet Software Consortium (ISC) License -- Reference: ../../License.txt with AdaBase.Results.Field; with Ada.Containers.Vectors; with Ada.Containers.Indefinite_Hashed_Maps; with Ada.Strings.Hash; package AdaBase.Results.Sets is package ARF renames AdaBase.Results.Field; type Datarow is tagged private; type Datarow_Access is access all Datarow; type Datarow_Set is array (Positive range <>) of Datarow; Empty_Datarow : constant Datarow; function column (row : Datarow; index : Positive) return ARF.Std_Field; function column (row : Datarow; heading : String) return ARF.Std_Field; function count (row : Datarow) return Natural; function data_exhausted (row : Datarow) return Boolean; -- Since it doesn't seem to be possible to construct this type with -- descriminates, it needs to be created first and populated with data, -- field by field. The "push" procedure is public only for the driver -- or driver's statement, but when pushing is done, the record is locked -- to block any attempt by user to push more data onto this. procedure push (row : out Datarow; heading : String; field : ARF.Std_Field; last_field : Boolean := False); private use type ARF.Std_Field; function Same_Strings (S, T : String) return Boolean; package field_crate is new Ada.Containers.Vectors (Index_Type => Positive, Element_Type => ARF.Std_Field); package heading_map is new Ada.Containers.Indefinite_Hashed_Maps (Key_Type => String, Element_Type => Positive, Equivalent_Keys => Same_Strings, Hash => Ada.Strings.Hash); type Datarow is tagged record crate : field_crate.Vector; map : heading_map.Map; locked : Boolean := False; done : Boolean := False; end record; Empty_Datarow : constant Datarow := (field_crate.Empty_Vector, heading_map.Empty_Map, True, True); end AdaBase.Results.Sets;
------------------------------------------------------------------------------ -- -- -- GNAT ncurses Binding Samples -- -- -- -- ncurses -- -- -- -- B O D Y -- -- -- ------------------------------------------------------------------------------ -- Copyright (c) 2000,2004 Free Software Foundation, Inc. -- -- -- -- Permission is hereby granted, free of charge, to any person obtaining a -- -- copy of this software and associated documentation files (the -- -- "Software"), to deal in the Software without restriction, including -- -- without limitation the rights to use, copy, modify, merge, publish, -- -- distribute, distribute with modifications, sublicense, and/or sell -- -- copies of the Software, and to permit persons to whom the Software is -- -- furnished to do so, subject to the following conditions: -- -- -- -- The above copyright notice and this permission notice shall be included -- -- in all copies or substantial portions of the Software. -- -- -- -- THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS -- -- OR IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF -- -- MERCHANTABILITY, FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. -- -- IN NO EVENT SHALL THE ABOVE COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, -- -- DAMAGES OR OTHER LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR -- -- OTHERWISE, ARISING FROM, OUT OF OR IN CONNECTION WITH THE SOFTWARE OR -- -- THE USE OR OTHER DEALINGS IN THE SOFTWARE. -- -- -- -- Except as contained in this notice, the name(s) of the above copyright -- -- holders shall not be used in advertising or otherwise to promote the -- -- sale, use or other dealings in this Software without prior written -- -- authorization. -- ------------------------------------------------------------------------------ -- Author: Eugene V. Melaragno <aldomel@ix.netcom.com> 2000 -- Version Control -- $Revision: 1.4 $ -- $Date: 2004/08/21 21:37:00 $ -- Binding Version 01.00 ------------------------------------------------------------------------------ with ncurses2.util; use ncurses2.util; with Terminal_Interface.Curses; use Terminal_Interface.Curses; with Terminal_Interface.Curses.Panels; use Terminal_Interface.Curses.Panels; with Terminal_Interface.Curses.Panels.User_Data; with ncurses2.genericPuts; procedure ncurses2.demo_panels (nap_mseci : Integer) is use Int_IO; function mkpanel (color : Color_Number; rows : Line_Count; cols : Column_Count; tly : Line_Position; tlx : Column_Position) return Panel; procedure rmpanel (pan : in out Panel); procedure pflush; procedure wait_a_while (msec : Integer); procedure saywhat (text : String); procedure fill_panel (pan : Panel); nap_msec : Integer := nap_mseci; function mkpanel (color : Color_Number; rows : Line_Count; cols : Column_Count; tly : Line_Position; tlx : Column_Position) return Panel is win : Window; pan : Panel := Null_Panel; begin win := New_Window (rows, cols, tly, tlx); if Null_Window /= win then pan := New_Panel (win); if pan = Null_Panel then Delete (win); elsif Has_Colors then declare fg, bg : Color_Number; begin if color = Blue then fg := White; else fg := Black; end if; bg := color; Init_Pair (Color_Pair (color), fg, bg); Set_Background (win, (Ch => ' ', Attr => Normal_Video, Color => Color_Pair (color))); end; else Set_Background (win, (Ch => ' ', Attr => (Bold_Character => True, others => False), Color => Color_Pair (color))); end if; end if; return pan; end mkpanel; procedure rmpanel (pan : in out Panel) is win : Window := Panel_Window (pan); begin Delete (pan); Delete (win); end rmpanel; procedure pflush is begin Update_Panels; Update_Screen; end pflush; procedure wait_a_while (msec : Integer) is begin -- The C version had some #ifdef blocks here if msec = 1 then Getchar; else Nap_Milli_Seconds (msec); end if; end wait_a_while; procedure saywhat (text : String) is begin Move_Cursor (Line => Lines - 1, Column => 0); Clear_To_End_Of_Line; Add (Str => text); end saywhat; -- from sample-curses_demo.adb type User_Data is new String (1 .. 2); type User_Data_Access is access all User_Data; package PUD is new Panels.User_Data (User_Data, User_Data_Access); use PUD; procedure fill_panel (pan : Panel) is win : constant Window := Panel_Window (pan); num : constant Character := Get_User_Data (pan) (2); tmp6 : String (1 .. 6) := "-panx-"; maxy : Line_Count; maxx : Column_Count; begin Move_Cursor (win, 1, 1); tmp6 (5) := num; Add (win, Str => tmp6); Clear_To_End_Of_Line (win); Box (win); Get_Size (win, maxy, maxx); for y in 2 .. maxy - 2 loop for x in 1 .. maxx - 2 loop Move_Cursor (win, y, x); Add (win, num); end loop; end loop; end fill_panel; modstr : constant array (0 .. 5) of String (1 .. 5) := ("test ", "TEST ", "(**) ", "*()* ", "<--> ", "LAST " ); package p is new ncurses2.genericPuts (1024); use p; use p.BS; -- the C version said register int y, x; tmpb : BS.Bounded_String; begin Refresh; for y in 0 .. Integer (Lines - 2) loop for x in 0 .. Integer (Columns - 1) loop myPut (tmpb, (y + x) mod 10); myAdd (Str => tmpb); end loop; end loop; for y in 0 .. 4 loop declare p1, p2, p3, p4, p5 : Panel; U1 : constant User_Data_Access := new User_Data'("p1"); U2 : constant User_Data_Access := new User_Data'("p2"); U3 : constant User_Data_Access := new User_Data'("p3"); U4 : constant User_Data_Access := new User_Data'("p4"); U5 : constant User_Data_Access := new User_Data'("p5"); begin p1 := mkpanel (Red, Lines / 2 - 2, Columns / 8 + 1, 0, 0); Set_User_Data (p1, U1); p2 := mkpanel (Green, Lines / 2 + 1, Columns / 7, Lines / 4, Columns / 10); Set_User_Data (p2, U2); p3 := mkpanel (Yellow, Lines / 4, Columns / 10, Lines / 2, Columns / 9); Set_User_Data (p3, U3); p4 := mkpanel (Blue, Lines / 2 - 2, Columns / 8, Lines / 2 - 2, Columns / 3); Set_User_Data (p4, U4); p5 := mkpanel (Magenta, Lines / 2 - 2, Columns / 8, Lines / 2, Columns / 2 - 2); Set_User_Data (p5, U5); fill_panel (p1); fill_panel (p2); fill_panel (p3); fill_panel (p4); fill_panel (p5); Hide (p4); Hide (p5); pflush; saywhat ("press any key to continue"); wait_a_while (nap_msec); saywhat ("h3 s1 s2 s4 s5; press any key to continue"); Move (p1, 0, 0); Hide (p3); Show (p1); Show (p2); Show (p4); Show (p5); pflush; wait_a_while (nap_msec); saywhat ("s1; press any key to continue"); Show (p1); pflush; wait_a_while (nap_msec); saywhat ("s2; press any key to continue"); Show (p2); pflush; wait_a_while (nap_msec); saywhat ("m2; press any key to continue"); Move (p2, Lines / 3 + 1, Columns / 8); pflush; wait_a_while (nap_msec); saywhat ("s3;"); Show (p3); pflush; wait_a_while (nap_msec); saywhat ("m3; press any key to continue"); Move (p3, Lines / 4 + 1, Columns / 15); pflush; wait_a_while (nap_msec); saywhat ("b3; press any key to continue"); Bottom (p3); pflush; wait_a_while (nap_msec); saywhat ("s4; press any key to continue"); Show (p4); pflush; wait_a_while (nap_msec); saywhat ("s5; press any key to continue"); Show (p5); pflush; wait_a_while (nap_msec); saywhat ("t3; press any key to continue"); Top (p3); pflush; wait_a_while (nap_msec); saywhat ("t1; press any key to continue"); Top (p1); pflush; wait_a_while (nap_msec); saywhat ("t2; press any key to continue"); Top (p2); pflush; wait_a_while (nap_msec); saywhat ("t3; press any key to continue"); Top (p3); pflush; wait_a_while (nap_msec); saywhat ("t4; press any key to continue"); Top (p4); pflush; wait_a_while (nap_msec); for itmp in 0 .. 5 loop declare w4 : constant Window := Panel_Window (p4); w5 : constant Window := Panel_Window (p5); begin saywhat ("m4; press any key to continue"); Move_Cursor (w4, Lines / 8, 1); Add (w4, modstr (itmp)); Move (p4, Lines / 6, Column_Position (itmp) * (Columns / 8)); Move_Cursor (w5, Lines / 6, 1); Add (w5, modstr (itmp)); pflush; wait_a_while (nap_msec); saywhat ("m5; press any key to continue"); Move_Cursor (w4, Lines / 6, 1); Add (w4, modstr (itmp)); Move (p5, Lines / 3 - 1, (Column_Position (itmp) * 10) + 6); Move_Cursor (w5, Lines / 8, 1); Add (w5, modstr (itmp)); pflush; wait_a_while (nap_msec); end; end loop; saywhat ("m4; press any key to continue"); Move (p4, Lines / 6, 6 * (Columns / 8)); -- Move(p4, Lines / 6, itmp * (Columns / 8)); pflush; wait_a_while (nap_msec); saywhat ("t5; press any key to continue"); Top (p5); pflush; wait_a_while (nap_msec); saywhat ("t2; press any key to continue"); Top (p2); pflush; wait_a_while (nap_msec); saywhat ("t1; press any key to continue"); Top (p1); pflush; wait_a_while (nap_msec); saywhat ("d2; press any key to continue"); rmpanel (p2); pflush; wait_a_while (nap_msec); saywhat ("h3; press any key to continue"); Hide (p3); pflush; wait_a_while (nap_msec); saywhat ("d1; press any key to continue"); rmpanel (p1); pflush; wait_a_while (nap_msec); saywhat ("d4; press any key to continue"); rmpanel (p4); pflush; wait_a_while (nap_msec); saywhat ("d5; press any key to continue"); rmpanel (p5); pflush; wait_a_while (nap_msec); if nap_msec = 1 then exit; else nap_msec := 100; end if; end; end loop; Erase; End_Windows; end ncurses2.demo_panels;
generic type Character_Type is (<>); -- Character, Wide_Character, Wide_Wide_Character (or whatever) type String_Type is array(Positive range <>) of Character_Type; Carriage_Return: in Character_Type; -- CR in the corresponding type Line_Feed: in Character_Type; -- LF in the corresponding type type Coder_Base is abstract tagged private; -- Type to derive package Encodings.Line_Endings.Generic_Add_CR is type Coder is new Coder_Base with private; procedure Convert( This: in out Coder; -- Coder state Source: in String_Type; -- String to be converted Source_Last: out Natural; -- Last index of source string read (length if string is starting at 1) Target: out String_Type; -- Converted string Target_Last: out Natural -- Last Index of destination string written ); private type Coder_State is ( Initial, Have_CR, Need_LF ); type Coder is new Coder_Base with record State: Coder_State := Initial; end record; end Encodings.Line_Endings.Generic_Add_CR;
with Ada.Text_IO; procedure A_Plus_B is type Small_Integers is range -2_000 .. +2_000; subtype Input_Values is Small_Integers range -1_000 .. +1_000; package IO is new Ada.Text_IO.Integer_IO (Num => Small_Integers); A, B : Input_Values; begin IO.Get (A); IO.Get (B); IO.Put (A + B, Width => 4, Base => 10); end A_Plus_B;
package Forward_AD.Hamiltonian is function Func (Q, V : in Real_Array; T : in Real) return AD_Type; end Forward_AD.Hamiltonian;
with OpenAL.Types; package OpenAL.Error is type Error_t is (No_Error, Invalid_Name, Invalid_Enumeration, Invalid_Value, Invalid_Operation, Out_Of_Memory, Unknown_Error); -- proc_map : alGetError function Get_Error return Error_t; private function Map_Constant_To_Error (Error : in Types.Enumeration_t) return Error_t; end OpenAL.Error;
with Ada.Text_IO; package body HIL.UART is procedure configure is null; procedure write (Device : in Device_ID_Type; Data : in Data_Type) is begin --ada.Text_IO.Put (String (Data)); null; end write; procedure read (Device : in Device_ID_Type; Data : out Data_Type; n_read : out Natural) is begin null; end; function toData_Type (Message : String) return Data_Type is a : Data_Type(1..2); begin return a; end; end HIL.UART;
----------------------------------------------------------------------- -- ado-utils-streams -- IO stream utilities -- Copyright (C) 2018, 2019 Stephane Carrez -- Written by Stephane Carrez (Stephane.Carrez@gmail.com) -- -- Licensed under the Apache License, Version 2.0 (the "License"); -- you may not use this file except in compliance with the License. -- You may obtain a copy of the License at -- -- http://www.apache.org/licenses/LICENSE-2.0 -- -- Unless required by applicable law or agreed to in writing, software -- distributed under the License is distributed on an "AS IS" BASIS, -- WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. -- See the License for the specific language governing permissions and -- limitations under the License. ----------------------------------------------------------------------- package body ADO.Utils.Streams is use type Ada.Streams.Stream_Element_Offset; subtype Offset is Ada.Streams.Stream_Element_Offset; -- ------------------------------ -- Initialize the blob stream to read the content of the blob. -- ------------------------------ procedure Initialize (Stream : in out Blob_Input_Stream; Blob : in ADO.Blob_Ref) is begin Stream.Data := Blob; Stream.Pos := 1; end Initialize; -- ------------------------------ -- Read into the buffer as many bytes as possible and return in -- <b>last</b> the position of the last byte read. -- ------------------------------ overriding procedure Read (Stream : in out Blob_Input_Stream; Into : out Ada.Streams.Stream_Element_Array; Last : out Ada.Streams.Stream_Element_Offset) is begin if Stream.Data.Is_Null then Last := Into'First - 1; else declare Blob : constant Blob_Accessor := Stream.Data.Value; Avail : Offset := Blob.Data'Last - Stream.Pos + 1; begin if Avail > Into'Length then Avail := Into'Length; end if; Last := Into'First + Avail - 1; if Avail > 0 then Into (Into'First .. Last) := Blob.Data (Stream.Pos .. Stream.Pos + Avail - 1); Stream.Pos := Stream.Pos + Avail; end if; end; end if; end Read; function Get_Blob (Stream : in Blob_Output_Stream) return Blob_Ref is Size : constant Offset := Offset (Stream.Get_Size); Buffer : constant Util.Streams.Buffered.Buffer_Access := Stream.Get_Buffer; begin return Create_Blob (Data => Buffer (Buffer'First .. Buffer'First + Size - 1)); end Get_Blob; end ADO.Utils.Streams;
-- { dg-do run } -- { dg-options "-gnatws -gnatVa" } pragma Initialize_Scalars; procedure Invalid1 is X : Boolean; A : Boolean := False; procedure Uninit (B : out Boolean) is begin if A then B := True; raise Program_Error; end if; end; begin -- first, check that initialize_scalars is enabled begin if X then A := False; end if; raise Program_Error; exception when Constraint_Error => null; end; -- second, check if copyback of an invalid value raises constraint error begin Uninit (A); if A then -- we expect constraint error in the 'if' above according to gnat ug: -- .... -- call. Note that there is no specific option to test `out' -- parameters, but any reference within the subprogram will be tested -- in the usual manner, and if an invalid value is copied back, any -- reference to it will be subject to validity checking. -- ... raise Program_Error; end if; raise Program_Error; exception when Constraint_Error => null; end; end;
------------------------------------------------------------------------------ -- AGAR CORE LIBRARY -- -- A G A R . E R R O R -- -- B o d y -- -- -- -- Copyright (c) 2018-2019, Julien Nadeau Carriere (vedge@csoft.net) -- -- Copyright (c) 2010, coreland (mark@coreland.ath.cx) -- -- -- -- Permission to use, copy, modify, and/or distribute this software for any -- -- purpose with or without fee is hereby granted, provided that the above -- -- copyright notice and this permission notice appear in all copies. -- -- -- -- THE SOFTWARE IS PROVIDED "AS IS" AND THE AUTHOR DISCLAIMS ALL WARRANTIES -- -- WITH REGARD TO THIS SOFTWARE INCLUDING ALL IMPLIED WARRANTIES OF -- -- MERCHANTABILITY AND FITNESS. IN NO EVENT SHALL THE AUTHOR BE LIABLE FOR -- -- ANY SPECIAL, DIRECT, INDIRECT, OR CONSEQUENTIAL DAMAGES OR ANY DAMAGES -- -- WHATSOEVER RESULTING FROM LOSS OF USE, DATA OR PROFITS, WHETHER IN AN -- -- ACTION OF CONTRACT, NEGLIGENCE OR OTHER TORTIOUS ACTION, ARISING OUT OF -- -- OR IN CONNECTION WITH THE USE OR PERFORMANCE OF THIS SOFTWARE. -- ------------------------------------------------------------------------------ package body Agar.Error is function Get_Error return String is begin return C.To_Ada (CS.Value (AG_GetError)); end; procedure Set_Error (Message : in String) is Ch_Message : aliased C.char_array := C.To_C (Message); begin AG_SetErrorS (Message => CS.To_Chars_Ptr (Ch_Message'Unchecked_Access)); end; procedure Fatal_Error (Message : in String) is Ch_Message : aliased C.char_array := C.To_C (Message); begin AG_FatalError (Message => CS.To_Chars_Ptr (Ch_Message'Unchecked_Access)); end; -- -- Proxy procedure to call error callback from C code. -- Error_Callback_Fn : Error_Callback_Access := null; procedure Error_Callback_Proxy (Message : CS.chars_ptr) with Convention => C; procedure Error_Callback_Proxy (Message : CS.chars_ptr) is begin if Error_Callback_Fn /= null then Error_Callback_Fn.all (C.To_Ada (CS.Value (Message))); end if; end; procedure Set_Fatal_Callback (Callback : Error_Callback_Access) is begin Error_Callback_Fn := Callback; AG_SetFatalCallback (Error_Callback_Proxy'Access); end; end Agar.Error;
with Interfaces.C_Streams; with Simple_Logging; use Simple_Logging; with Simple_Logging.Decorators; package body CLIC.TTY is use all type ANSI.Colors; use all type ANSI.Styles; Use_Color : Boolean := False; -- Err on the safe side function Regular_Decorator (Level : Simple_Logging.Levels; Message : String) return String; function Verbose_Decorator (Level : Simple_Logging.Levels; Message : String) return String; Disabled_By_User : Boolean := False; ----------------------- -- Force_Disable_TTY -- ----------------------- procedure Force_Disable_TTY is begin Disabled_By_User := True; end Force_Disable_TTY; --------------- -- Check_TTY -- --------------- function Check_TTY return Boolean is use Interfaces.C_Streams; begin return isatty (fileno (stdout)) /= 0; end Check_TTY; ------------ -- Is_TTY -- ------------ function Is_TTY return Boolean is (if Disabled_By_User then False else Check_TTY); ------------------- -- Color_Enabled -- ------------------- function Color_Enabled return Boolean is (Use_Color); ------------------- -- Disable_Color -- ------------------- procedure Disable_Color is begin Use_Color := False; end Disable_Color; ------------------ -- Enable_Color -- ------------------ procedure Enable_Color (Force : Boolean := False) is begin -- Enable when appropriate if Force or else Is_TTY then Use_Color := True; Simple_Logging.Debug ("Color output enabled"); else Simple_Logging.Debug ("Color output was requested but not enabled:" & " force=" & Force'Img & "; Is_TTY=" & Is_TTY'Img); end if; -- Set debug colors. When Detail/Debug are also enabled, we add the -- "info:" prefix to otherwise normal output, so it's seen more easily. if Use_Color then case Simple_Logging.Level is when Always .. Info => Decorators.Level_Decorator := Regular_Decorator'Access; when others => Decorators.Level_Decorator := Verbose_Decorator'Access; end case; end if; end Enable_Color; ------------ -- Format -- ------------ function Format (Text : String; Fore : ANSI.Colors := ANSI.Default; Back : ANSI.Colors := ANSI.Default; Style : ANSI.Styles := ANSI.Default) return String is use ANSI; begin if not Use_Color then return Text; end if; return ((if Fore /= Default then Foreground (Fore) else "") & (if Back /= Default then Background (Fore) else "") & (if Style /= Default then ANSI.Style (Style, On) else "") & Text & (if Fore /= Default then Foreground (Default) else "") & (if Back /= Default then Background (Default) else "") & (if Style /= Default then ANSI.Style (Style, Off) else "")); end Format; ----------------------- -- Regular_Decorator -- ----------------------- function Regular_Decorator (Level : Simple_Logging.Levels; Message : String) return String is (case Level is when Info => Message, when others => Verbose_Decorator (Level, Message)); ----------------------- -- Verbose_Decorator -- ----------------------- function Verbose_Decorator (Level : Simple_Logging.Levels; Message : String) return String is use ANSI; begin return (case Level is when Always => Message, when Error => ANSI.Wrap (Text => "error:", Style => Bright, Foreground => ANSI.Foreground (Red)) & " " & Message, when Warning => ANSI.Wrap (Text => "warn:", Style => Bright, Foreground => ANSI.Foreground (Yellow)) & " " & Message, when Info => ANSI.Wrap (Text => "info:", Style => Bright, Foreground => ANSI.Foreground (Green)) & " " & Message, when Detail => ANSI.Wrap (Text => "detail:", Style => Bright, Foreground => ANSI.Foreground (Cyan)) & " " & Message, when Debug => ANSI.Wrap (Text => "debug:", Style => Default, Foreground => ANSI.Foreground (Grey)) & " " & ANSI.Wrap (Text => Message, Style => Dim)); end Verbose_Decorator; end CLIC.TTY;
with Raylib; with Surface.elements; with tracker.datasource; package body tracker.presentation is PURE_BLUE : constant := 16#0000FFFF#; PURE_RED : constant := 16#FF0000FF#; PURE_GREEN : constant := 16#00FF00FF#; WHITE : constant := 16#FFFFFFFF#; BLUE : constant := 16#447FFFFF#; GOLD : constant := 16#FF8833FF#; CYAN : constant := 16#11AABBFF#; DARKGRAY : constant := 16#101A1AFF#; -- BG ; SHADE ; SHADOW ; TEXT ; LABEL Theme : array (element'range) of Raylib.Color; procedure setup (self : in out instance) is begin Background_Color (self, Theme(BG)); Size (self, 800, 800); Title (self, "Tracker"); tracker.datasource.Load; end setup; procedure update (self : in out instance ; dt : Float) is use Surface.elements; I : Item; --book renames self.book_Completion; begin quad (100, 90, 250, 25); print (100, 90, Activities.Collections(1).name); raylib.shapes.draw_rectangle_lines_ex ( rec => (96.0, 121.0, 250.0+8.0, 25.0+8.0), line_thick => 2, c => theme(HIGHLIGHT)); for number in 1..Activities.Collections(1).Items_Count loop I := Activities.Collections(1).Items(number); raylib.shapes.draw_rectangle_rounded( rec => (100.0,125.0 + float(number-1) *40.0,250.0,25.0), roundness => 0.2, segments => 6, c => Theme (SHADE)); print (100, 125 + (number-1) * 40, I.name(1..I.name_length)); end loop; end update; procedure Set_Color (E : Element ; C : Color_Value) is begin Theme (E) := raylib.colors.get_color(raylib.unsigned(C)); end Set_Color; begin Set_Color (BG, BLUE); Set_Color (SHADE, WHITE); Set_Color (HIGHLIGHT, GOLD); Set_Color (SHADOW, DARKGRAY); Set_Color (TEXT, DARKGRAY); Set_Color (LABEL, DARKGRAY); end tracker.presentation;
with HAL; use HAL; with STM32.GPIO; use STM32.GPIO; with STM32.Timers; use STM32.Timers; with STM32.PWM; use STM32.PWM; with STM32.CORDIC; use STM32.CORDIC; with STM_Board; use STM_Board; with Inverter_ADC; use Inverter_ADC; package Inverter_PWM is ----------------- -- Definitions -- ----------------- type PWM_Phase is (A, B); -- Each phase of a full bridge circuit. type PWM_Alignment is (Edge, -- Positive edge Center -- Center of positive part ); -- Describes where on the PWM waveform the signals shall be aligned. -- The final maximum amplitude for the sine voltage is defined by the -- maximum sine value, that is 1.0. -- Considering that the battery nominal voltage is 12 Volts, this will -- be the peak AC value, which corresponds to a primary AC RMS voltage -- of 12 V / sqrt(2) = 8.485 V. -- With a minimum battery voltage of 10 V, the minimum AC RMS voltage -- will be 10 V / sqrt(2) = 7.07 V. -- The transformer voltage ratio between the primary and secondary, for -- a maximum output voltage of 230 V RMS, will be 230 V / 7.07 V = 32.5, -- so the turns ratio of the transformer will be (Ns / Np) = 33. subtype Sine_Range is Float range 0.0 .. 1.0; Sine_Amplitude : Sine_Range := 0.0; subtype Duty_Cycle is Float range 0.0 .. 100.0; -- The upload frequency of the duty cycle is defined by the number of points -- for each semi-sinusoid. -- For 50 Hz we have 2 half senoids * 50 Hz * 256 points = 25600 Hz. -- For 60 Hz we have 2 half senoids * 60 Hz * 256 points = 30720 Hz. -- For 400 Hz we have 2 half senoids * 400 Hz * 256 points = 204800 Hz. PWM_Frequency_Hz : Frequency_Hz := 30_720.0; -- for 60 Hz -- Actually the STM32G474 operates at 150 MHz with 150 MHz into Prescaler. -- With (10 - 1) for prescaler we have 15 MHz for counter period, that has -- values of 586, 488 and 73 for 25.597, 30.7377 and 205.479 KHz, that -- will result in 49.99, 60.035 and 401.327 Hz. subtype Deadtime_Range is Float range 0.0 .. 400.0e-9; -- Maximum deadtime permissible is 126 us. -- Maximum deadtime chosen is 1% of the PWM_Frequency_Hz = 0.01/25_000. PWM_Deadtime : constant Deadtime_Range := 166.7e-9; -- The delay exists in the rising edges. -- It depends on the electronic circuit rise and fall times. -- 166.7e-9 * 30 kHz * 100 = 0.5% of the total period. ----------------------------- -- Procedures and function -- ----------------------------- procedure Initialize_CORDIC; -- Enable clock and configure CORDIC coprocessor with sine function. procedure Initialize_PWM (Frequency : Frequency_Hz; Deadtime : Deadtime_Range; Alignment : PWM_Alignment); -- Initialize the timer peripheral for PWM. -- Each phase needs to be enabled manually after this. procedure Enable_Phase (This : PWM_Phase) with inline; -- Enable PWM generation for the specified phase. procedure Disable_Phase (This : PWM_Phase) with inline; -- Disable PWM generation for the specified phase. procedure Start_PWM with Pre => Is_Initialized; -- Start the generation of sinusoid wave by enabling interrupt. procedure Stop_PWM with Pre => Is_Initialized; -- Stop the generation of sinusoid wave by disabling interrupt. function Get_Duty_Resolution return Duty_Cycle; -- Return the minimum step that the duty can be changed, in percent. procedure Set_Duty_Cycle (This : PWM_Phase; Value : Duty_Cycle); -- Sets the duty cycle in percent for the specified phase. procedure Set_Duty_Cycle (This : PWM_Phase; Amplitude : Sine_Range; Gain : Gain_Range); -- Sets the duty cycle for the specified phase. procedure Set_PWM_Gate_Power (Enabled : in Boolean) with Pre => STM_Board.Is_Initialized and (if Enabled then Is_Initialized); -- Enable or disable the output of the gate drivers. This routine must be -- altered in accordance to your hardware because some chips enable with -- True and others with False. procedure Reset_Sine_Step; -- Set the Sine_Step variable to the first angle value, or 0.0 whose -- amplitude value is 0. procedure Safe_State; -- Forces the inverter into a state that is considered safe. -- Typically this disables the PWM generation (all switches off), and -- turns off the power to the gate drivers. function Is_Initialized return Boolean; -- Returns True if the board specifics are initialized. private Initialized : Boolean := False; -- A table for sine generation is produced knowing the number of points -- to complete 1/2 sine period. The sine function goes from 0 to 1 to 0 in -- 1/2 sine period, that corresponds to 0 to Pi/2 to Pi. -- The equation which defines the value of each point is: -- -- D = A * sin(pi * x/N) -- D = Duty cycle at a given discrete point; -- A = Signal amplitude of the maximum duty cycle. We adopt 1. -- pi = 1/2 of the sine period -- x = Step number -- N = Number of points = 256 -- The STM32F474 CPU has hardware acceleration of mathematical functions -- (mainly trigonometric ones), so we benefit of it with sine calculations -- and, instead of using a sine table, we calculate it directly. -- The values introduced into the CORDIC doesn't need the Pi multiplication, -- so Pi corresponds to 1.0 and -Pi corresponds to -1.0. See the definition -- for Fraction_16 and Fraction_32 in the stm32-cordic.ads file. -- The only limitation is that any value introduced into the CORDIC must be -- a multiple of 2**(-31) when using Fraction_32 or 2**(-15) when using -- Fraction_16. Sine_Step_Number : constant Positive := 256; -- Number of steps for the half-sine. Increment : constant Q1_15 := 1.0 / Sine_Step_Number; -- This value must be a multiple of delta (2.0**(-15)). -- The Increment value determine the number of points to complete 1/2 -- sine period, so the interval is between 0.0 and 1.0 (0 to Pi). The -- complete sinusoid or sine period is completed with these same points but -- using the second half-bridge, so it will be 512 points. subtype Sine_Step_Range is Q1_15 range 0.0 .. 1.0 - Increment; -- This range gives exactly 256 x Increment values. -- For sine function, the first argument is the angle, while the second -- argument is the modulus, that in this case doesn't change. Sine_Step : Sine_Step_Range; Modulus : constant UInt16 := 16#7FFF#; -- 1 - 2**(-31) Initial_Step : constant Sine_Step_Range := Sine_Step_Range'Last; -- The initial angle would be the first point after 0.0, and the last point -- would be 1.0. But this CORDIC only accept values between -1.0 and -- 1.0 - 2**(-15), so the last point couldn't be 1.0. Then we choose to -- count down from [1.0 - Increment] to 0.0 and restart this same count down -- for the next semi-senoid. This way we have exactly 256 points for the -- semi-senoid and the last point (0.0) will return a sine value of 0.0. -- Buffers with the data in and out to the CORDIC. Data_In : UInt16_Array := (Q1_15_To_UInt16 (Initial_Step), Modulus); Data_Out : UInt16_Array := (0, 0); PWM_Timer_Ref : access Timer := PWM_Timer'Access; Modulators : array (PWM_Phase'Range) of PWM_Modulator; type Gate_Setting is record Channel : Timer_Channel; Pin_H : GPIO_Point; Pin_L : GPIO_Point; Pin_AF : STM32.GPIO_Alternate_Function; end record; type Gate_Settings is array (PWM_Phase'Range) of Gate_Setting; Gate_Phase_Settings : constant Gate_Settings := ((A) => Gate_Setting'(Channel => PWM_A_Channel, Pin_H => PWM_A_H_Pin, Pin_L => PWM_A_L_Pin, Pin_AF => PWM_A_GPIO_AF), (B) => Gate_Setting'(Channel => PWM_B_Channel, Pin_H => PWM_B_H_Pin, Pin_L => PWM_B_L_Pin, Pin_AF => PWM_B_GPIO_AF)); protected PWM_Handler is pragma Interrupt_Priority (PWM_ISR_Priority); private Counter : Integer := 0; -- For testing the output. Semi_Senoid : Boolean := False; -- Defines False = 1'st half sinusoid, True = 2'nd half sinusoid. procedure PWM_ISR_Handler with Attach_Handler => PWM_Interrupt; end PWM_Handler; end Inverter_PWM;
-- Copyright (c) 2019 Maxim Reznik <reznikmm@gmail.com> -- -- SPDX-License-Identifier: MIT -- License-Filename: LICENSE ------------------------------------------------------------- with Ada.Directories; package body Torrent.Storages is use type Ada.Streams.Stream_Element_Count; protected body Storage is ---------------- -- Initialize -- ---------------- procedure Initialize (Path : League.Strings.Universal_String) is Offset : Ada.Streams.Stream_Element_Count := 0; begin Root_Path := Path; Is_Empty := True; for J in 1 .. Meta.File_Count loop declare use type League.Strings.Universal_String; Name : constant League.Strings.Universal_String := Path & "/" & Meta.File_Path (J).Join ("/"); File : constant String := Name.To_UTF_8_String; Dir : constant String := Ada.Directories.Containing_Directory (File); begin if not Ada.Directories.Exists (Dir) then Ada.Directories.Create_Path (Dir); end if; if not Ada.Directories.Exists (File) then declare Dummy : Ada.Streams.Stream_IO.File_Type; begin Ada.Streams.Stream_IO.Create (Dummy, Name => File); Ada.Streams.Stream_IO.Close (Dummy); end; elsif Ada.Directories.Size (File) not in 0 then Is_Empty := False; end if; end; if Meta.File_Length (J) > 0 then Files.Insert (Offset, J); Offset := Offset + Meta.File_Length (J); end if; end loop; end Initialize; ---------------------- -- Is_Empty_Storage -- ---------------------- function Is_Empty_Storage return Boolean is begin return Is_Empty; end Is_Empty_Storage; ---------- -- Read -- ---------- entry Read (Offset : Ada.Streams.Stream_Element_Count; Data : out Ada.Streams.Stream_Element_Array) when Reading is use type League.Strings.Universal_String; Name : League.Strings.Universal_String; From : Ada.Streams.Stream_Element_Count := Data'First; Last : Ada.Streams.Stream_Element_Count; Cursor : File_Index_Maps.Cursor := Files.Floor (Offset); -- The last node whose key is not greater (i.e. less or equal). -- The first key in map is 0, so we expect Floor fine some item. Skip : Ada.Streams.Stream_Element_Count := -- Offset inside a file Offset - File_Index_Maps.Key (Cursor); File : Positive := File_Index_Maps.Element (Cursor); File_Length : Ada.Streams.Stream_Element_Count := Meta.File_Length (File); begin if Skip >= File_Length then return; -- Offset is greater then torrent size. end if; loop Name := Root_Path & "/" & Meta.File_Path (File).Join ('/'); if Skip + Data'Last - From + 1 > File_Length then Last := From + File_Length - Skip - 1; else Last := Data'Last; end if; if Read_Cache.Name /= Name then if Ada.Streams.Stream_IO.Is_Open (Read_Cache.Input) then Ada.Streams.Stream_IO.Close (Read_Cache.Input); end if; Ada.Streams.Stream_IO.Open (Read_Cache.Input, Ada.Streams.Stream_IO.In_File, Name.To_UTF_8_String, Form => "shared=no"); Read_Cache.Name := Name; end if; declare use type Ada.Streams.Stream_IO.Count; Done : Ada.Streams.Stream_Element_Offset; begin if Ada.Streams.Stream_IO.Size (Read_Cache.Input) >= Ada.Streams.Stream_IO.Count (Skip + Last - From + 1) then Ada.Streams.Stream_IO.Read (File => Read_Cache.Input, Item => Data (From .. Last), Last => Done, From => Ada.Streams.Stream_IO.Count (Skip + 1)); pragma Assert (Done = Last); else Data := (others => 0); end if; end; exit when Last >= Data'Last; File_Index_Maps.Next (Cursor); Skip := 0; File := File_Index_Maps.Element (Cursor); File_Length := Meta.File_Length (File); From := Last + 1; end loop; end Read; ------------------- -- Start_Reading -- ------------------- entry Start_Reading when not Reading is begin Reading := True; end Start_Reading; ------------------ -- Stop_Reading -- ------------------ entry Stop_Reading when Reading is begin Reading := False; end Stop_Reading; ----------- -- Write -- ----------- entry Write (Offset : Ada.Streams.Stream_Element_Count; Data : Ada.Streams.Stream_Element_Array) when not Reading is Cursor : File_Index_Maps.Cursor := Files.Floor (Offset); -- The last node whose key is not greater (i.e. less or equal). -- The first key in map is 0, so we expect Floor fine some item. Skip : Ada.Streams.Stream_Element_Count := -- File offset Offset - File_Index_Maps.Key (Cursor); File : Positive := File_Index_Maps.Element (Cursor); File_Length : Ada.Streams.Stream_Element_Count := Meta.File_Length (File); From : Ada.Streams.Stream_Element_Count := Data'First; Last : Ada.Streams.Stream_Element_Count; begin if Skip >= File_Length then return; -- Offset is greater then torrent size. end if; loop if Skip + Data'Last - From + 1 > File_Length then Last := From + File_Length - Skip - 1; else Last := Data'Last; end if; declare use type League.Strings.Universal_String; Output : Ada.Streams.Stream_IO.File_Type; Name : constant League.Strings.Universal_String := Root_Path & "/" & Meta.File_Path (File).Join ('/'); begin if Read_Cache.Name = Name then Read_Cache.Name.Clear; Ada.Streams.Stream_IO.Close (Read_Cache.Input); end if; Ada.Streams.Stream_IO.Open (Output, Ada.Streams.Stream_IO.Out_File, Name.To_UTF_8_String, Form => "shared=no"); Ada.Streams.Stream_IO.Write (File => Output, Item => Data (From .. Last), To => Ada.Streams.Stream_IO.Count (Skip + 1)); Ada.Streams.Stream_IO.Close (Output); end; exit when Last >= Data'Last; File_Index_Maps.Next (Cursor); Skip := 0; File := File_Index_Maps.Element (Cursor); File_Length := Meta.File_Length (File); From := Last + 1; end loop; end Write; end Storage; end Torrent.Storages;
-- -- A characteristic of Ada task is that if an exception happens they -- silently die. This can make debugging difficult. The procedure -- Install_Reaper installs a handler that print some useful information -- to standard error when a task dies. -- package Utilities.Task_Reaper is type Verbosity_Level is (Exception_Only, Abort_Or_Exception, Always); procedure Install_Reaper (Level : Verbosity_Level := Exception_Only); -- Install a reaper. If Level is Exception_Only, a message is printed -- only if a task die because of an exception; if Level is -- Abort_Or_Exception a message is printed if the task call is aborted -- or die by an exception; if Level is Always the message is printed -- also for normal termination. end Utilities.Task_Reaper;
----------------------------------------------------------------------- -- import -- Import some HTML content and generate Wiki text -- Copyright (C) 2015, 2016, 2020, 2021 Stephane Carrez -- Written by Stephane Carrez (Stephane.Carrez@gmail.com) -- -- Licensed under the Apache License, Version 2.0 (the "License"); -- you may not use this file except in compliance with the License. -- You may obtain a copy of the License at -- -- http://www.apache.org/licenses/LICENSE-2.0 -- -- Unless required by applicable law or agreed to in writing, software -- distributed under the License is distributed on an "AS IS" BASIS, -- WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. -- See the License for the specific language governing permissions and -- limitations under the License. ----------------------------------------------------------------------- with Ada.Text_IO; with Ada.Wide_Wide_Text_IO; with Ada.IO_Exceptions; with Ada.Strings.Unbounded; with Ada.Strings.UTF_Encoding.Wide_Wide_Strings; with GNAT.Command_Line; with Util.Files; with Util.Streams.Pipes; with Util.Streams.Buffered; with Util.Strings.Transforms; with Wiki.Strings; with Wiki.Filters.Html; with Wiki.Filters.TOC; with Wiki.Streams.Builders; with Wiki.Streams.Html.Builders; with Wiki.Render.Html; with Wiki.Render.Text; with Wiki.Render.Wiki; with Wiki.Documents; with Wiki.Parsers; procedure Import is use GNAT.Command_Line; use Ada.Strings.Unbounded; use Ada.Strings.UTF_Encoding; procedure Usage; function Is_Url (Name : in String) return Boolean; procedure Parse_Url (Url : in String); procedure Parse (Content : in String); procedure Print (Item : in Wiki.Strings.WString); Html_Filter : aliased Wiki.Filters.Html.Html_Filter_Type; TOC : aliased Wiki.Filters.TOC.TOC_Filter; Count : Natural := 0; Html_Mode : Boolean := True; Wiki_Mode : Boolean := False; Syntax : Wiki.Wiki_Syntax := Wiki.SYNTAX_MARKDOWN; procedure Usage is begin Ada.Text_IO.Put_Line ("Import HTML into a target Wiki format"); Ada.Text_IO.Put_Line ("Usage: import [-t] [-m] [-M] [-H] [-d] [-c] {URL | file}"); Ada.Text_IO.Put_Line (" -t Convert to text only"); Ada.Text_IO.Put_Line (" -m Convert to Markdown"); Ada.Text_IO.Put_Line (" -M Convert to Mediawiki"); Ada.Text_IO.Put_Line (" -H Convert to HTML"); Ada.Text_IO.Put_Line (" -d Convert to Dotclear"); Ada.Text_IO.Put_Line (" -c Convert to Creole"); end Usage; procedure Print (Item : in Wiki.Strings.WString) is begin Ada.Wide_Wide_Text_IO.Put (Item); end Print; procedure Parse (Content : in String) is Doc : Wiki.Documents.Document; Engine : Wiki.Parsers.Parser; begin Engine.Add_Filter (TOC'Unchecked_Access); Engine.Add_Filter (Html_Filter'Unchecked_Access); if Wiki_Mode then declare Stream : aliased Wiki.Streams.Builders.Output_Builder_Stream; Renderer : aliased Wiki.Render.Wiki.Wiki_Renderer; begin Engine.Set_Syntax (Wiki.SYNTAX_HTML); Engine.Parse (Wide_Wide_Strings.Decode (Content), Doc); Renderer.Set_Output_Stream (Stream'Unchecked_Access, Syntax); Renderer.Render (Doc); Stream.Iterate (Print'Access); end; elsif Html_Mode then declare Stream : aliased Wiki.Streams.Html.Builders.Html_Output_Stream; Renderer : aliased Wiki.Render.Html.Html_Renderer; begin Engine.Set_Syntax (Syntax); Engine.Parse (Wide_Wide_Strings.Decode (Content), Doc); Renderer.Set_Output_Stream (Stream'Unchecked_Access); Renderer.Render (Doc); Stream.Iterate (Print'Access); end; else declare Stream : aliased Wiki.Streams.Builders.Output_Builder_Stream; Renderer : aliased Wiki.Render.Text.Text_Renderer; begin Engine.Set_Syntax (Syntax); Engine.Parse (Wide_Wide_Strings.Decode (Content), Doc); Renderer.Set_Output_Stream (Stream'Unchecked_Access); Renderer.Render (Doc); Stream.Iterate (Print'Access); end; end if; Ada.Wide_Wide_Text_IO.New_Line; end Parse; procedure Parse_Url (Url : in String) is Command : constant String := "wget -q -O - " & Url; Pipe : aliased Util.Streams.Pipes.Pipe_Stream; Buffer : Util.Streams.Buffered.Input_Buffer_Stream; Content : Ada.Strings.Unbounded.Unbounded_String; begin Pipe.Open (Command); Buffer.Initialize (Pipe'Unchecked_Access, 1024 * 1024); Buffer.Read (Content); Pipe.Close; if Pipe.Get_Exit_Status /= 0 then Ada.Text_IO.Put_Line (Command & " exited with status " & Integer'Image (Pipe.Get_Exit_Status)); else Parse (To_String (Content)); end if; end Parse_Url; function Is_Url (Name : in String) return Boolean is begin if Name'Length <= 9 then return False; else return Name (Name'First .. Name'First + 6) = "http://" or Name (Name'First .. Name'First + 7) = "https://"; end if; end Is_Url; begin loop case Getopt ("m M H d c t f:") is when 'm' => Syntax := Wiki.SYNTAX_MARKDOWN; Wiki_Mode := True; when 'M' => Syntax := Wiki.SYNTAX_MEDIA_WIKI; Wiki_Mode := True; when 'H' => Syntax := Wiki.SYNTAX_HTML; when 'c' => Syntax := Wiki.SYNTAX_CREOLE; Wiki_Mode := True; when 'd' => Syntax := Wiki.SYNTAX_DOTCLEAR; Wiki_Mode := True; when 't' => Html_Mode := False; when 'f' => declare Value : constant String := Util.Strings.Transforms.To_Upper_Case (Parameter); begin Html_Filter.Hide (Wiki.Html_Tag'Value (Value & "_TAG")); exception when Constraint_Error => Ada.Text_IO.Put_Line ("Invalid tag " & Value); end; when others => exit; end case; end loop; loop declare Name : constant String := GNAT.Command_Line.Get_Argument; Data : Unbounded_String; begin if Name = "" then if Count = 0 then Usage; end if; return; end if; Count := Count + 1; if Is_Url (Name) then Parse_Url (Name); else Util.Files.Read_File (Name, Data); Parse (To_String (Data)); end if; exception when Ada.IO_Exceptions.Name_Error => Ada.Text_IO.Put_Line ("Cannot read file '" & Name & "'"); end; end loop; exception when Invalid_Switch => Ada.Text_IO.Put_Line ("Invalid option."); Usage; end Import;
with Text_IO; use Text_IO; procedure Nextdate is type Month_Type is (Jan, Feb, Mar, Apr, May, Jun, Jul, Aug, Sep, Oct, Nov, Dec); subtype Day_Subtype is Integer range 1 .. 31; type Date is record Day : Day_Subtype; Month : Month_Type; Year : Positive; end record; Passed : Boolean := True; function Tomorrow(Today : in Date) return Date is separate; procedure Display (S : in String; D : in Date) is package Int_IO is new Integer_IO(Integer); use Int_IO; begin Put(S); Put(D.Day, Width => 3); Put(" " & Month_Type'Image(D.Month)); Put(D.Year, Width => 5); New_Line; end Display; procedure Compare(Today, Right_Answer : in Date) is My_Answer : Date := Tomorrow(Today); begin if My_Answer /= Right_Answer then Display("Today: ", Today); Display("My answer: ", My_Answer); Display("Right answer:", Right_Answer); New_Line; Passed := False; end if; end Compare; begin Compare((12,Dec,1815), (13,Dec,1815)); -- ordinary date Compare(( 3,Feb,1986), ( 4,Feb,1986)); -- ordinary date in Feb. Compare((30,Jun,1981), ( 1,Jul,1981)); -- last day of 30-day month Compare((30,Sep,3999), ( 1,Oct,3999)); -- last day of 30-day month Compare((31,Mar,1876), ( 1,Apr,1876)); -- last day of 31-day month Compare((31,Aug,1984), ( 1,Sep,1984)); -- last day of 31-day month Compare((31,Dec,1966), ( 1,Jan,1967)); -- last day of year Compare((28,Feb,1980), (29,Feb,1980)); -- leap year Compare((28,Feb,1600), (29,Feb,1600)); -- century leap year Compare((28,Feb,2200), ( 1,Mar,2200)); -- century non-leap year Compare((28,Feb,1982), ( 1,Mar,1982)); -- non-leap year Compare((29,Feb,1980), ( 1,Mar,1980)); -- leap day in leap year if Passed then Put_Line("Congratulations, you completed the assignment!"); end if; end Nextdate;
package body afrl.cmasi.keyValuePair is function getFullLmcpTypeName (this : KeyValuePair) return String is ("afrl.cmasi.keyValuePair.KeyValuePair"); function getLmcpTypeName (this : KeyValuePair) return String is ("KeyValuePair"); function getLmcpType (this : KeyValuePair) return UInt32_t is (CMASIEnum'Pos(KEYVALUEPAIR_ENUM)); function getKey (this : KeyValuePair'Class) return Unbounded_String is (this.Key); procedure setKey(this : out KeyValuePair'Class; Key : in Unbounded_String) is begin this.Key := Key; end setKey; function getValue (this : KeyValuePair'Class) return Unbounded_String is (this.Value); procedure setValue (this : out KeyValuePair'Class; Value : in Unbounded_String) is begin this.Value := Value; end setValue; end afrl.cmasi.keyValuePair;
------------------------------------------------------------------------------ -- -- -- GNAT RUN-TIME COMPONENTS -- -- -- -- A D A . S T R I N G S . W I D E _ M A P S . W I D E _ C O N S T A N T S -- -- -- -- S p e c -- -- -- -- Copyright (C) 1992-2019, Free Software Foundation, Inc. -- -- -- -- This specification is derived from the Ada Reference Manual for use with -- -- GNAT. The copyright notice above, and the license provisions that follow -- -- apply solely to the contents of the part following the private keyword. -- -- -- -- GNAT is free software; you can redistribute it and/or modify it under -- -- terms of the GNU General Public License as published by the Free Soft- -- -- ware Foundation; either version 3, or (at your option) any later ver- -- -- sion. GNAT is distributed in the hope that it will be useful, but WITH- -- -- OUT ANY WARRANTY; without even the implied warranty of MERCHANTABILITY -- -- or FITNESS FOR A PARTICULAR PURPOSE. -- -- -- -- As a special exception under Section 7 of GPL version 3, you are granted -- -- additional permissions described in the GCC Runtime Library Exception, -- -- version 3.1, as published by the Free Software Foundation. -- -- -- -- You should have received a copy of the GNU General Public License and -- -- a copy of the GCC Runtime Library Exception along with this program; -- -- see the files COPYING3 and COPYING.RUNTIME respectively. If not, see -- -- <http://www.gnu.org/licenses/>. -- -- -- -- GNAT was originally developed by the GNAT team at New York University. -- -- Extensive contributions were provided by Ada Core Technologies Inc. -- -- -- ------------------------------------------------------------------------------ with Ada.Characters.Wide_Latin_1; package Ada.Strings.Wide_Maps.Wide_Constants is pragma Preelaborate; Control_Set : constant Wide_Maps.Wide_Character_Set; Graphic_Set : constant Wide_Maps.Wide_Character_Set; Letter_Set : constant Wide_Maps.Wide_Character_Set; Lower_Set : constant Wide_Maps.Wide_Character_Set; Upper_Set : constant Wide_Maps.Wide_Character_Set; Basic_Set : constant Wide_Maps.Wide_Character_Set; Decimal_Digit_Set : constant Wide_Maps.Wide_Character_Set; Hexadecimal_Digit_Set : constant Wide_Maps.Wide_Character_Set; Alphanumeric_Set : constant Wide_Maps.Wide_Character_Set; Special_Graphic_Set : constant Wide_Maps.Wide_Character_Set; ISO_646_Set : constant Wide_Maps.Wide_Character_Set; Character_Set : constant Wide_Maps.Wide_Character_Set; Lower_Case_Map : constant Wide_Maps.Wide_Character_Mapping; -- Maps to lower case for letters, else identity Upper_Case_Map : constant Wide_Maps.Wide_Character_Mapping; -- Maps to upper case for letters, else identity Basic_Map : constant Wide_Maps.Wide_Character_Mapping; -- Maps to basic letter for letters, else identity private package W renames Ada.Characters.Wide_Latin_1; subtype WC is Wide_Character; Control_Ranges : aliased constant Wide_Character_Ranges := ((W.NUL, W.US), (W.DEL, W.APC)); Control_Set : constant Wide_Character_Set := (AF.Controlled with Control_Ranges'Unrestricted_Access); Graphic_Ranges : aliased constant Wide_Character_Ranges := ((W.Space, W.Tilde), (WC'Val (256), WC'Last)); Graphic_Set : constant Wide_Character_Set := (AF.Controlled with Graphic_Ranges'Unrestricted_Access); Letter_Ranges : aliased constant Wide_Character_Ranges := (('A', 'Z'), (W.LC_A, W.LC_Z), (W.UC_A_Grave, W.UC_O_Diaeresis), (W.UC_O_Oblique_Stroke, W.LC_O_Diaeresis), (W.LC_O_Oblique_Stroke, W.LC_Y_Diaeresis)); Letter_Set : constant Wide_Character_Set := (AF.Controlled with Letter_Ranges'Unrestricted_Access); Lower_Ranges : aliased constant Wide_Character_Ranges := (1 => (W.LC_A, W.LC_Z), 2 => (W.LC_German_Sharp_S, W.LC_O_Diaeresis), 3 => (W.LC_O_Oblique_Stroke, W.LC_Y_Diaeresis)); Lower_Set : constant Wide_Character_Set := (AF.Controlled with Lower_Ranges'Unrestricted_Access); Upper_Ranges : aliased constant Wide_Character_Ranges := (1 => ('A', 'Z'), 2 => (W.UC_A_Grave, W.UC_O_Diaeresis), 3 => (W.UC_O_Oblique_Stroke, W.UC_Icelandic_Thorn)); Upper_Set : constant Wide_Character_Set := (AF.Controlled with Upper_Ranges'Unrestricted_Access); Basic_Ranges : aliased constant Wide_Character_Ranges := (1 => ('A', 'Z'), 2 => (W.LC_A, W.LC_Z), 3 => (W.UC_AE_Diphthong, W.UC_AE_Diphthong), 4 => (W.LC_AE_Diphthong, W.LC_AE_Diphthong), 5 => (W.LC_German_Sharp_S, W.LC_German_Sharp_S), 6 => (W.UC_Icelandic_Thorn, W.UC_Icelandic_Thorn), 7 => (W.LC_Icelandic_Thorn, W.LC_Icelandic_Thorn), 8 => (W.UC_Icelandic_Eth, W.UC_Icelandic_Eth), 9 => (W.LC_Icelandic_Eth, W.LC_Icelandic_Eth)); Basic_Set : constant Wide_Character_Set := (AF.Controlled with Basic_Ranges'Unrestricted_Access); Decimal_Digit_Ranges : aliased constant Wide_Character_Ranges := (1 => ('0', '9')); Decimal_Digit_Set : constant Wide_Character_Set := (AF.Controlled with Decimal_Digit_Ranges'Unrestricted_Access); Hexadecimal_Digit_Ranges : aliased constant Wide_Character_Ranges := (1 => ('0', '9'), 2 => ('A', 'F'), 3 => (W.LC_A, W.LC_F)); Hexadecimal_Digit_Set : constant Wide_Character_Set := (AF.Controlled with Hexadecimal_Digit_Ranges'Unrestricted_Access); Alphanumeric_Ranges : aliased constant Wide_Character_Ranges := (1 => ('0', '9'), 2 => ('A', 'Z'), 3 => (W.LC_A, W.LC_Z), 4 => (W.UC_A_Grave, W.UC_O_Diaeresis), 5 => (W.UC_O_Oblique_Stroke, W.LC_O_Diaeresis), 6 => (W.LC_O_Oblique_Stroke, W.LC_Y_Diaeresis)); Alphanumeric_Set : constant Wide_Character_Set := (AF.Controlled with Alphanumeric_Ranges'Unrestricted_Access); Special_Graphic_Ranges : aliased constant Wide_Character_Ranges := (1 => (Wide_Space, W.Solidus), 2 => (W.Colon, W.Commercial_At), 3 => (W.Left_Square_Bracket, W.Grave), 4 => (W.Left_Curly_Bracket, W.Tilde), 5 => (W.No_Break_Space, W.Inverted_Question), 6 => (W.Multiplication_Sign, W.Multiplication_Sign), 7 => (W.Division_Sign, W.Division_Sign)); Special_Graphic_Set : constant Wide_Character_Set := (AF.Controlled with Special_Graphic_Ranges'Unrestricted_Access); ISO_646_Ranges : aliased constant Wide_Character_Ranges := (1 => (W.NUL, W.DEL)); ISO_646_Set : constant Wide_Character_Set := (AF.Controlled with ISO_646_Ranges'Unrestricted_Access); Character_Ranges : aliased constant Wide_Character_Ranges := (1 => (W.NUL, WC'Val (255))); Character_Set : constant Wide_Character_Set := (AF.Controlled with Character_Ranges'Unrestricted_Access); Lower_Case_Mapping : aliased constant Wide_Character_Mapping_Values := (Length => 56, Domain => "ABCDEFGHIJKLMNOPQRSTUVWXYZ" & W.UC_A_Grave & W.UC_A_Acute & W.UC_A_Circumflex & W.UC_A_Tilde & W.UC_A_Diaeresis & W.UC_A_Ring & W.UC_AE_Diphthong & W.UC_C_Cedilla & W.UC_E_Grave & W.UC_E_Acute & W.UC_E_Circumflex & W.UC_E_Diaeresis & W.UC_I_Grave & W.UC_I_Acute & W.UC_I_Circumflex & W.UC_I_Diaeresis & W.UC_Icelandic_Eth & W.UC_N_Tilde & W.UC_O_Grave & W.UC_O_Acute & W.UC_O_Circumflex & W.UC_O_Tilde & W.UC_O_Diaeresis & W.UC_O_Oblique_Stroke & W.UC_U_Grave & W.UC_U_Acute & W.UC_U_Circumflex & W.UC_U_Diaeresis & W.UC_Y_Acute & W.UC_Icelandic_Thorn, Rangev => "abcdefghijklmnopqrstuvwxyz" & W.LC_A_Grave & W.LC_A_Acute & W.LC_A_Circumflex & W.LC_A_Tilde & W.LC_A_Diaeresis & W.LC_A_Ring & W.LC_AE_Diphthong & W.LC_C_Cedilla & W.LC_E_Grave & W.LC_E_Acute & W.LC_E_Circumflex & W.LC_E_Diaeresis & W.LC_I_Grave & W.LC_I_Acute & W.LC_I_Circumflex & W.LC_I_Diaeresis & W.LC_Icelandic_Eth & W.LC_N_Tilde & W.LC_O_Grave & W.LC_O_Acute & W.LC_O_Circumflex & W.LC_O_Tilde & W.LC_O_Diaeresis & W.LC_O_Oblique_Stroke & W.LC_U_Grave & W.LC_U_Acute & W.LC_U_Circumflex & W.LC_U_Diaeresis & W.LC_Y_Acute & W.LC_Icelandic_Thorn); Lower_Case_Map : constant Wide_Character_Mapping := (AF.Controlled with Map => Lower_Case_Mapping'Unrestricted_Access); Upper_Case_Mapping : aliased constant Wide_Character_Mapping_Values := (Length => 56, Domain => "abcdefghijklmnopqrstuvwxyz" & W.LC_A_Grave & W.LC_A_Acute & W.LC_A_Circumflex & W.LC_A_Tilde & W.LC_A_Diaeresis & W.LC_A_Ring & W.LC_AE_Diphthong & W.LC_C_Cedilla & W.LC_E_Grave & W.LC_E_Acute & W.LC_E_Circumflex & W.LC_E_Diaeresis & W.LC_I_Grave & W.LC_I_Acute & W.LC_I_Circumflex & W.LC_I_Diaeresis & W.LC_Icelandic_Eth & W.LC_N_Tilde & W.LC_O_Grave & W.LC_O_Acute & W.LC_O_Circumflex & W.LC_O_Tilde & W.LC_O_Diaeresis & W.LC_O_Oblique_Stroke & W.LC_U_Grave & W.LC_U_Acute & W.LC_U_Circumflex & W.LC_U_Diaeresis & W.LC_Y_Acute & W.LC_Icelandic_Thorn, Rangev => "ABCDEFGHIJKLMNOPQRSTUVWXYZ" & W.UC_A_Grave & W.UC_A_Acute & W.UC_A_Circumflex & W.UC_A_Tilde & W.UC_A_Diaeresis & W.UC_A_Ring & W.UC_AE_Diphthong & W.UC_C_Cedilla & W.UC_E_Grave & W.UC_E_Acute & W.UC_E_Circumflex & W.UC_E_Diaeresis & W.UC_I_Grave & W.UC_I_Acute & W.UC_I_Circumflex & W.UC_I_Diaeresis & W.UC_Icelandic_Eth & W.UC_N_Tilde & W.UC_O_Grave & W.UC_O_Acute & W.UC_O_Circumflex & W.UC_O_Tilde & W.UC_O_Diaeresis & W.UC_O_Oblique_Stroke & W.UC_U_Grave & W.UC_U_Acute & W.UC_U_Circumflex & W.UC_U_Diaeresis & W.UC_Y_Acute & W.UC_Icelandic_Thorn); Upper_Case_Map : constant Wide_Character_Mapping := (AF.Controlled with Upper_Case_Mapping'Unrestricted_Access); Basic_Mapping : aliased constant Wide_Character_Mapping_Values := (Length => 55, Domain => W.UC_A_Grave & W.UC_A_Acute & W.UC_A_Circumflex & W.UC_A_Tilde & W.UC_A_Diaeresis & W.UC_A_Ring & W.UC_C_Cedilla & W.UC_E_Grave & W.UC_E_Acute & W.UC_E_Circumflex & W.UC_E_Diaeresis & W.UC_I_Grave & W.UC_I_Acute & W.UC_I_Circumflex & W.UC_I_Diaeresis & W.UC_N_Tilde & W.UC_O_Grave & W.UC_O_Acute & W.UC_O_Circumflex & W.UC_O_Tilde & W.UC_O_Diaeresis & W.UC_O_Oblique_Stroke & W.UC_U_Grave & W.UC_U_Acute & W.UC_U_Circumflex & W.UC_U_Diaeresis & W.UC_Y_Acute & W.LC_A_Grave & W.LC_A_Acute & W.LC_A_Circumflex & W.LC_A_Tilde & W.LC_A_Diaeresis & W.LC_A_Ring & W.LC_C_Cedilla & W.LC_E_Grave & W.LC_E_Acute & W.LC_E_Circumflex & W.LC_E_Diaeresis & W.LC_I_Grave & W.LC_I_Acute & W.LC_I_Circumflex & W.LC_I_Diaeresis & W.LC_N_Tilde & W.LC_O_Grave & W.LC_O_Acute & W.LC_O_Circumflex & W.LC_O_Tilde & W.LC_O_Diaeresis & W.LC_O_Oblique_Stroke & W.LC_U_Grave & W.LC_U_Acute & W.LC_U_Circumflex & W.LC_U_Diaeresis & W.LC_Y_Acute & W.LC_Y_Diaeresis, Rangev => 'A' & -- UC_A_Grave 'A' & -- UC_A_Acute 'A' & -- UC_A_Circumflex 'A' & -- UC_A_Tilde 'A' & -- UC_A_Diaeresis 'A' & -- UC_A_Ring 'C' & -- UC_C_Cedilla 'E' & -- UC_E_Grave 'E' & -- UC_E_Acute 'E' & -- UC_E_Circumflex 'E' & -- UC_E_Diaeresis 'I' & -- UC_I_Grave 'I' & -- UC_I_Acute 'I' & -- UC_I_Circumflex 'I' & -- UC_I_Diaeresis 'N' & -- UC_N_Tilde 'O' & -- UC_O_Grave 'O' & -- UC_O_Acute 'O' & -- UC_O_Circumflex 'O' & -- UC_O_Tilde 'O' & -- UC_O_Diaeresis 'O' & -- UC_O_Oblique_Stroke 'U' & -- UC_U_Grave 'U' & -- UC_U_Acute 'U' & -- UC_U_Circumflex 'U' & -- UC_U_Diaeresis 'Y' & -- UC_Y_Acute 'a' & -- LC_A_Grave 'a' & -- LC_A_Acute 'a' & -- LC_A_Circumflex 'a' & -- LC_A_Tilde 'a' & -- LC_A_Diaeresis 'a' & -- LC_A_Ring 'c' & -- LC_C_Cedilla 'e' & -- LC_E_Grave 'e' & -- LC_E_Acute 'e' & -- LC_E_Circumflex 'e' & -- LC_E_Diaeresis 'i' & -- LC_I_Grave 'i' & -- LC_I_Acute 'i' & -- LC_I_Circumflex 'i' & -- LC_I_Diaeresis 'n' & -- LC_N_Tilde 'o' & -- LC_O_Grave 'o' & -- LC_O_Acute 'o' & -- LC_O_Circumflex 'o' & -- LC_O_Tilde 'o' & -- LC_O_Diaeresis 'o' & -- LC_O_Oblique_Stroke 'u' & -- LC_U_Grave 'u' & -- LC_U_Acute 'u' & -- LC_U_Circumflex 'u' & -- LC_U_Diaeresis 'y' & -- LC_Y_Acute 'y'); -- LC_Y_Diaeresis Basic_Map : constant Wide_Character_Mapping := (AF.Controlled with Basic_Mapping'Unrestricted_Access); end Ada.Strings.Wide_Maps.Wide_Constants;
pragma License (Unrestricted); -- implementation unit package Ada.Containers.Binary_Trees.Simple is pragma Preelaborate; Node_Size : constant := Standard'Address_Size * 3; type Node is new Binary_Trees.Node; for Node'Size use Node_Size; procedure Insert ( Container : in out Node_Access; Length : in out Count_Type; Before : Node_Access; New_Item : not null Node_Access); procedure Remove ( Container : in out Node_Access; Length : in out Count_Type; Position : not null Node_Access); procedure Copy ( Target : out Node_Access; Length : out Count_Type; Source : Node_Access; Copy : not null access procedure ( Target : out Node_Access; Source : not null Node_Access)); -- set operations procedure Merge is new Binary_Trees.Merge (Insert => Insert, Remove => Remove); procedure Copying_Merge is new Binary_Trees.Copying_Merge (Insert => Insert); end Ada.Containers.Binary_Trees.Simple;
----------------------------------------------------------------------- -- awa-workspaces-module -- Module workspaces -- Copyright (C) 2011, 2012, 2017 Stephane Carrez -- Written by Stephane Carrez (Stephane.Carrez@gmail.com) -- -- Licensed under the Apache License, Version 2.0 (the "License"); -- you may not use this file except in compliance with the License. -- You may obtain a copy of the License at -- -- http://www.apache.org/licenses/LICENSE-2.0 -- -- Unless required by applicable law or agreed to in writing, software -- distributed under the License is distributed on an "AS IS" BASIS, -- WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. -- See the License for the specific language governing permissions and -- limitations under the License. ----------------------------------------------------------------------- with ADO.Objects; with ADO.Sessions; with Security.Permissions; with ASF.Applications; with AWA.Modules; with AWA.Services.Contexts; with AWA.Workspaces.Models; with AWA.Users.Services; with AWA.Users.Models; with AWA.Permissions.Services; with AWA.Events; private with Ada.Strings.Unbounded; -- == Events == -- The *workspaces* module provides several events that are posted when some action are performed. -- -- === invite-user === -- This event is posted when an invitation is created for a user. The event can be used to -- send the associated invitation email to the invitee. The event contains the following -- attributes: -- -- key -- email -- name -- message -- inviter -- -- === accept-invitation === -- This event is posted when an invitation is accepted by a user. package AWA.Workspaces.Modules is subtype Permission_Index_Array is Security.Permissions.Permission_Index_Array; Not_Found : exception; -- The name under which the module is registered. NAME : constant String := "workspaces"; -- The configuration parameter that defines the list of permissions to grant -- to a user when his workspace is created. PARAM_PERMISSIONS_LIST : constant String := "permissions_list"; -- A boolean configuration parameter that indicates that new users can create -- a workspace. When a user is created, the 'workspace-create' permission is -- added so that they can create the workspace. PARAM_ALLOW_WORKSPACE_CREATE : constant String := "allow_workspace_create"; -- Permission to create a workspace. package ACL_Create_Workspace is new Security.Permissions.Definition ("workspace-create"); package ACL_Invite_User is new Security.Permissions.Definition ("workspace-invite-user"); package ACL_Delete_User is new Security.Permissions.Definition ("workspace-delete-user"); package Invite_User_Event is new AWA.Events.Definition (Name => "invite-user"); package Accept_Invitation_Event is new AWA.Events.Definition (Name => "accept-invitation"); -- ------------------------------ -- Module workspaces -- ------------------------------ type Workspace_Module is new AWA.Modules.Module and AWA.Users.Services.Listener with private; type Workspace_Module_Access is access all Workspace_Module'Class; -- Initialize the workspaces module. overriding procedure Initialize (Plugin : in out Workspace_Module; App : in AWA.Modules.Application_Access; Props : in ASF.Applications.Config); -- Configures the module after its initialization and after having read its XML configuration. overriding procedure Configure (Plugin : in out Workspace_Module; Props : in ASF.Applications.Config); -- Get the list of permissions for the workspace owner. function Get_Owner_Permissions (Manager : in Workspace_Module) return Permission_Index_Array; -- Get the workspace module. function Get_Workspace_Module return Workspace_Module_Access; -- Get the current workspace associated with the current user. -- If the user has not workspace, create one. procedure Get_Workspace (Session : in out ADO.Sessions.Master_Session; Context : in AWA.Services.Contexts.Service_Context_Access; Workspace : out AWA.Workspaces.Models.Workspace_Ref); -- Create a workspace for the user. procedure Create_Workspace (Module : in Workspace_Module; Workspace : out AWA.Workspaces.Models.Workspace_Ref); -- Load the invitation from the access key and verify that the key is still valid. procedure Load_Invitation (Module : in Workspace_Module; Key : in String; Invitation : in out AWA.Workspaces.Models.Invitation_Ref'Class; Inviter : in out AWA.Users.Models.User_Ref); -- Accept the invitation identified by the access key. procedure Accept_Invitation (Module : in Workspace_Module; Key : in String); -- Send the invitation to the user. procedure Send_Invitation (Module : in Workspace_Module; Invitation : in out AWA.Workspaces.Models.Invitation_Ref'Class); -- Delete the member from the workspace. Remove the invitation if there is one. procedure Delete_Member (Module : in Workspace_Module; Member_Id : in ADO.Identifier); -- Add a list of permissions for all the users of the workspace that have the appropriate -- role. Workspace members will be able to access the given database entity for the -- specified list of permissions. procedure Add_Permission (Session : in out ADO.Sessions.Master_Session; User : in ADO.Identifier; Entity : in ADO.Objects.Object_Ref'Class; Workspace : in ADO.Identifier; List : in Security.Permissions.Permission_Index_Array); -- The `On_Create` procedure is called by `Notify_Create` to notify the creation of the user. overriding procedure On_Create (Module : in Workspace_Module; User : in AWA.Users.Models.User_Ref'Class); -- The `On_Update` procedure is called by `Notify_Update` to notify the update of the user. overriding procedure On_Update (Module : in Workspace_Module; User : in AWA.Users.Models.User_Ref'Class) is null; -- The `On_Delete` procedure is called by `Notify_Delete` to notify the deletion of the user. overriding procedure On_Delete (Module : in Workspace_Module; User : in AWA.Users.Models.User_Ref'Class) is null; private type Workspace_Module is new AWA.Modules.Module and AWA.Users.Services.Listener with record User_Manager : AWA.Users.Services.User_Service_Access; -- The permission manager. Perm_Manager : AWA.Permissions.Services.Permission_Manager_Access; -- The list of permissions to grant to a user who creates the workspace. Owner_Permissions : Ada.Strings.Unbounded.Unbounded_String; -- When set, allow new users to create a workspace. Allow_WS_Create : Boolean := False; end record; end AWA.Workspaces.Modules;
with Cairo; use Cairo; with Cairo.Png; use Cairo.Png; with Cairo.Image_Surface; use Cairo.Image_Surface; procedure XorPattern is type xorable is mod 256; Surface : Cairo_Surface; Data : RGB24_Array_Access; Status : Cairo_Status; Num : Byte; begin Data := new RGB24_Array(0..256*256-1); for x in Natural range 0..255 loop for y in Natural range 0..255 loop Num := Byte(xorable(x) xor xorable(y)); Data(x+256*y) := RGB24_Data'(Num,0,Num); end loop; end loop; Surface := Create_For_Data_RGB24(Data, 256, 256); Status := Write_To_Png (Surface, "AdaXorPattern.png"); pragma Assert (Status = Cairo_Status_Success); end XorPattern;
procedure Access_Variable is type Button is null record; type ButtonRef is access all Button; procedure Press (B : ButtonRef) is begin null; end Press; Red_Button : aliased Button; begin Press(Red_Button'Access); end Access_Variable;
-- This file is an Ada file containing test data -- for etags (Ada83 and Ada95 support). package Pkg1 is type Private_T is private; package Inner1 is procedure Private_T; end Inner1; package Inner2 is task Private_T; end Inner2; type Public_T is record A : Integer; B : Integer; end record; procedure Pkg1_Proc1; procedure Pkg1_Proc2 (I : Integer); function Pkg1_Func1 return Boolean; function Pkg1_Func2 (Ijk : Integer; Z : Integer) return Natural; package Pkg1_Pkg1 is procedure Pkg1_Pkg1_Proc1; end Pkg1_Pkg1; task type Task_Type is entry Entry1; entry Entry2 (I : Integer); end; private type Private_T is record Z : Integer; W : Boolean; end record; end Pkg1; package body Pkg1 is procedure Pkg1_Proc1 is begin null; end; package body Inner1 is procedure Private_T is begin null; end; end Inner1; package body Inner2 is task body Private_T is begin loop null; end loop; end; end Inner2; task body Task_Type is begin select accept Entry1 do null; end; or accept Entry2 (I : Integer) do null; end; end select; end; procedure Pkg1_Proc2 (I : Integer) is begin null; end Pkg1_Proc2; function Pkg1_Func1 return Boolean is separate; function Pkg1_Func2 (Ijk : Integer; Z : Integer) return Natural is begin return 1; end; package body Pkg1_Pkg1 is separate; end Pkg1; separate (Pkg1) package body Pkg1_Pkg1 is procedure Pkg1_Pkg1_Proc1 is begin null; end; end Pkg1_Pkg1; separate (Pkg1) function Pkg1_Func1 return Boolean is begin return False; end; -- from now on, this is Ada 95 specific. package Truc is I : Integer; end Truc; with Pkg1; package Truc.Bidule is use type Pkg1.Public_T; use Pkg1; use type Pkg1.Public_T; use -- comment type -- comment Pkg1.Public_T; protected Bidule is entry Basar; private Ok : Boolean; end Bidule; protected type Machin_T is entry Truc; private Ok : Boolean; end Machin_T; end Truc.Bidule; package body Truc.Bidule is protected body Bidule is entry Basar when Ok is begin null; end; end Bidule; protected body Machin_T is entry Truc when Ok is begin null; end; end Machin_T; end Truc.Bidule;
with Ada.Text_IO; use Ada.Text_IO; procedure Adventofcode.Day_24.Main is begin Put_Line ("Day-24"); end Adventofcode.Day_24.Main;
with Ada.Tags; with Generic_Logging; with Langkit_Support.Slocs; with Langkit_Support.Text; With System.Address_Image; package body Lal_Adapter.Node is package Slocs renames Langkit_Support.Slocs; package Text renames Langkit_Support.Text; ----------------------------------------------------------------------------- -- Element_ID support -- Unlike ASIS Elements, libadalang Nodes have no unique ID as far as I can tell. -- Until we can come up with something better, we will just use an incrementing -- counter. THIS GIVES A DIFFERENT ANSWER EVERY TIME Get_Element_ID IS CALLED. -- This is good to keep all nodes from having the same ID, but it is bad for -- determinining if two nodes are the same. -- TODO: Implement by storing and hashing Nodes? Last_Node_ID : Natural := anhS.Empty_ID; Node_Map : Node_ID_Map.Map := Node_ID_Map.Empty_Map; ------------ -- EXPORTED: ------------ function Get_Element_ID (Node : in LAL.Ada_Node'Class) return Element_ID is -- Tried to use address for mapping but got nodes with same address. -- Use Image for now till we have better option for the mapping. Node_Image : String := LAL.Image(Node); C : constant Node_ID_Map.Cursor := Node_Map.Find (Node_Image); use type Node_ID_Map.Cursor; Node_Id : Integer := 0; begin -- Put_Line("Node: " & Node_Image); if LAL.Is_Null (Node) then return No_Element_ID; else if C = Node_ID_Map.No_Element then Last_Node_ID := Last_Node_ID + 1; Node_Map.Insert (Node_Image, Last_Node_ID); Node_Id := Last_Node_ID; else Node_Id := Node_ID_Map.Element (C); end if; return (Node_ID => Node_Id, Kind => Node.Kind); end if; end Get_Element_ID; ------------ -- EXPORTED: ------------ function To_Element_ID (This : in Element_ID) return a_nodes_h.Element_ID is Result : Integer; begin Result := Integer (This.Node_ID) * 1000 + LALCO.Ada_Node_Kind_Type'Pos(This.Kind); return a_nodes_h.Element_ID (Result); end To_Element_ID; ------------ -- EXPORTED: ------------ function Get_Element_ID (Element : in LAL.Ada_Node'Class) return a_nodes_h.Element_ID is (To_Element_ID (Get_Element_ID (Element))); ------------ -- EXPORTED: ------------ function To_String (This : in a_nodes_h.Element_ID) return String is (To_String (This, Element_ID_Kind)); -- END Element_ID support ----------------------------------------------------------------------------- ---------------------- -- EXPORTED (private): ---------------------- procedure Add_To_Dot_Label (This : in out Class; Value : in String) is begin Add_To_Dot_Label (Dot_Label => This.Dot_Label, Outputs => This.Outputs, Value => Value); end Add_To_Dot_Label; procedure Add_To_Dot_Label (This : in out Class; Name : in String; Value : in String) is begin Add_To_Dot_Label (Dot_Label => This.Dot_Label, Outputs => This.Outputs, Name => Name, Value => Value); end Add_To_Dot_Label; procedure Add_To_Dot_Label (This : in out Class; Name : in String; Value : in a_nodes_h.Element_ID) is begin This.Add_To_Dot_Label (Name, To_String (Value)); end Add_To_Dot_Label; procedure Add_To_Dot_Label (This : in out Class; Name : in String; Value : in Boolean) is begin Add_To_Dot_Label (Dot_Label => This.Dot_Label, Outputs => This.Outputs, Name => Name, Value => Value); end Add_To_Dot_Label; procedure Add_Dot_Edge (This : in out Class; From : in a_nodes_h.Element_ID; To : in a_nodes_h.Element_ID; Label : in String) is begin Add_Dot_Edge (Outputs => This.Outputs, From => From, From_Kind => Element_ID_Kind, To => To, To_Kind => Element_ID_Kind, Label => Label); end Add_Dot_Edge; procedure Add_To_Dot_Label_And_Edge (This : in out Class; Label : in String; To : in a_nodes_h.Element_ID) is begin This.Add_To_Dot_Label (Label, To_String (To)); This.Add_Dot_Edge (From => This.Element_IDs.First_Element, To => To, Label => Label); end Add_To_Dot_Label_And_Edge; procedure Add_Not_Implemented (This : in out Class; Ada_Version : in Ada_Versions := Supported_Ada_Version) is begin if Ada_Version <= Supported_Ada_Version then This.Add_To_Dot_Label ("LIBADALANG_PROCESSING", String'("NOT_IMPLEMENTED_COMPLETELY")); This.Outputs.A_Nodes.Add_Not_Implemented; else This.Add_To_Dot_Label ("LIBADALANG_PROCESSING", Ada_Version'Image & "_FEATURE_NOT_IMPLEMENTED_IN_" & Supported_Ada_Version'Image); end if; end Add_Not_Implemented; ------------ -- Exported: ------------ procedure Process_Ada_Abort_Node (This : in out Class; -- Node : in LAL.Stmt'Class; Node : in LAL.Ada_Node'Class) is Parent_Name : constant String := Module_Name; Module_Name : constant String := Parent_Name & ".Process_Abort_Node"; package Logging is new Generic_Logging (Module_Name); use Logging; -- Auto : Logging.Auto_Logger; -- Logs BEGIN and END -- Will raise Constraint_Error if Node.Kind is not in Ada_Stmt: Kind : constant LALCO.Ada_Abort_Node := Node.Kind; use LALCO; -- For subtype names in case stmt begin -- Process_Ada_Abort_Node case Kind is when Ada_Abort_Absent => declare Abort_Absent_Node : constant LAL.Abort_Absent := LAL.As_Abort_Absent (Node); begin NULL; end; when Ada_Abort_Present => declare Abort_Present_Node : constant LAL.Abort_Present := LAL.As_Abort_Present (Node); begin NULL; end; end case; end Process_Ada_Abort_Node; procedure Process_Ada_Abstract_Node (This : in out Class; -- Node : in LAL.Stmt'Class; Node : in LAL.Ada_Node'Class) is Parent_Name : constant String := Module_Name; Module_Name : constant String := Parent_Name & ".Process_Abstract_Node"; package Logging is new Generic_Logging (Module_Name); use Logging; -- Auto : Logging.Auto_Logger; -- Logs BEGIN and END -- Will raise Constraint_Error if Node.Kind is not in Ada_Stmt: Kind : constant LALCO.Ada_Abstract_Node := Node.Kind; use LALCO; -- For subtype names in case stmt begin -- Process_Ada_Abstract_Node case Kind is when Ada_Abstract_Absent => declare Abstract_Absent_Node : constant LAL.Abstract_Absent := LAL.As_Abstract_Absent (Node); begin NULL; end; when Ada_Abstract_Present => declare Abstract_Present_Node : constant LAL.Abstract_Present := LAL.As_Abstract_Present (Node); begin NULL; end; end case; end Process_Ada_Abstract_Node; procedure Process_Ada_Ada_List (This : in out Class; -- Node : in LAL.Stmt'Class; Node : in LAL.Ada_Node'Class) is Parent_Name : constant String := Module_Name; Module_Name : constant String := Parent_Name & ".Process_Ada_List"; package Logging is new Generic_Logging (Module_Name); use Logging; -- Auto : Logging.Auto_Logger; -- Logs BEGIN and END -- Will raise Constraint_Error if Node.Kind is not in Ada_Stmt: Kind : constant LALCO.Ada_Ada_List := Node.Kind; use LALCO; -- For subtype names in case stmt begin -- Process_Ada_Ada_List case Kind is when Ada_Ada_Node_List => declare Ada_Node_List_Node : constant LAL.Ada_Node_List := LAL.As_Ada_Node_List (Node); NodeListFirst : constant Positive := LAL.Ada_Node_List_First (Ada_Node_List_Node); begin Log ("NodeListFirst: " & NodeListFirst'Image); end; when Ada_Alternatives_List => declare Alternatives_List_Node : constant LAL.Alternatives_List := LAL.As_Alternatives_List (Node); begin NULL; end; when Ada_Constraint_List => declare Constraint_List_Node : constant LAL.Constraint_List := LAL.As_Constraint_List (Node); begin NULL; end; when Ada_Decl_List => declare Decl_List_Node : constant LAL.Decl_List := LAL.As_Decl_List (Node); begin NULL; end; when Ada_Stmt_List => declare Stmt_List_Node : constant LAL.Stmt_List := LAL.As_Stmt_List (Node); begin NULL; end; when Ada_Aspect_Assoc_List => declare Aspect_Assoc_List_Node : constant LAL.Aspect_Assoc_List := LAL.As_Aspect_Assoc_List (Node); AspectAsoocListFirst : constant Positive := LAL.Aspect_Assoc_List_First (Aspect_Assoc_List_Node); begin Log ("AspectAsoocListFirst: " & AspectAsoocListFirst'Image); end; when Ada_Base_Assoc_List => declare Base_Assoc_List_Node : constant LAL.Base_Assoc_List := LAL.As_Base_Assoc_List (Node); BaseAsoocListFirst : constant Positive := LAL.Base_Assoc_List_First (Base_Assoc_List_Node); begin Log ("BaseAsoocListFirst: " & BaseAsoocListFirst'Image); end; when Ada_Assoc_List => declare Assoc_list_Node : constant LAL.Assoc_list := LAL.As_Assoc_list (Node); begin NULL; end; when Ada_Case_Expr_Alternative_List => declare Case_Expr_Alternative_List_Node : constant LAL.Case_Expr_Alternative_List := LAL.As_Case_Expr_Alternative_List (Node); CaseExprAlternativeListFirst : constant Positive := LAL.Case_Expr_Alternative_List_First (Case_Expr_Alternative_List_Node); begin Log ("CaseExprAlternativeListFirst: " & CaseExprAlternativeListFirst'Image); end; when Ada_Case_Stmt_Alternative_List => declare Case_Stmt_Alternative_List_Node : constant LAL.Case_Stmt_Alternative_List := LAL.As_Case_Stmt_Alternative_List (Node); CaseStmtAlernativeListFirst : constant Positive := LAL.Case_Stmt_Alternative_List_First (Case_Stmt_Alternative_List_Node); begin Log ("CaseStmtAlernativeListFirst: " & CaseStmtAlernativeListFirst'Image); end; when Ada_Compilation_Unit_List => declare Compilation_Unit_List_Node : constant LAL.Compilation_Unit_List := LAL.As_Compilation_Unit_List (Node); CompilationUnitListFirst : constant Positive := LAL.Compilation_Unit_List_First (Compilation_Unit_List_Node); begin Log ("CompilationUnitListFirst: " & CompilationUnitListFirst'Image); end; when Ada_Contract_Case_Assoc_List => declare Contract_Case_Assoc_List_Node : constant LAL.Contract_Case_Assoc_List := LAL.As_Contract_Case_Assoc_List (Node); ContractCastAssocListFirst : constant Positive := LAL.Contract_Case_Assoc_List_First (Contract_Case_Assoc_List_Node); begin Log ("ContractCastAssocListFirst: " & ContractCastAssocListFirst'Image); end; when Ada_Defining_Name_List => declare Defining_Name_List_Node : constant LAL.Defining_Name_List := LAL.As_Defining_Name_List (Node); DefiningNameListFirst : constant Positive := LAL.Defining_Name_List_First (Defining_Name_List_Node); begin Log ("DefiningNameListFirst: " & DefiningNameListFirst'Image); end; when Ada_Discriminant_Spec_List => declare Discriminant_Spec_List_Node : constant LAL.Discriminant_Spec_List := LAL.As_Discriminant_Spec_List (Node); DiscriminantSpecListNodeFirst : constant Positive := LAL.Discriminant_Spec_List_First (Discriminant_Spec_List_Node); begin Log ("DiscriminantSpecListNodeFirst: " & DiscriminantSpecListNodeFirst'Image); end; when Ada_Elsif_Expr_Part_List => declare Elsif_Expr_Part_List_Node : constant LAL.Elsif_Expr_Part_List := LAL.As_Elsif_Expr_Part_List (Node); ElsifExprPartListNodeFirst : constant Positive := LAL.Elsif_Expr_Part_List_First (Elsif_Expr_Part_List_Node); begin Log ("ElsifExprPartListNodeFirst: " & ElsifExprPartListNodeFirst'Image); end; when Ada_Elsif_Stmt_Part_List => declare Elsif_Stmt_Part_List_Node : constant LAL.Elsif_Stmt_Part_List := LAL.As_Elsif_Stmt_Part_List (Node); ElsifStmtPartListNodeFirst : constant Positive := LAL.Elsif_Stmt_Part_List_First (Elsif_Stmt_Part_List_Node); begin Log ("ElsifExprPartListNodeFirst: " & ElsifStmtPartListNodeFirst'Image); end; when Ada_Enum_Literal_Decl_List => declare Enum_Literal_Decl_List_Node : constant LAL.Enum_Literal_Decl_List := LAL.As_Enum_Literal_Decl_List (Node); EnumLiteralDeclListNodeFirst : constant Positive := LAL.Enum_Literal_Decl_List_First (Enum_Literal_Decl_List_Node); begin Log ("EnumLiteralDeclListNodeFirst: " & EnumLiteralDeclListNodeFirst'Image); end; when Ada_Expr_Alternatives_List => declare Expr_Alternatives_List_Node : constant LAL.Expr_Alternatives_List := LAL.As_Expr_Alternatives_List (Node); begin NULL; end; when Ada_Discriminant_Choice_List => declare Discriminant_Choice_List_Node : constant LAL.Discriminant_Choice_List := LAL.As_Discriminant_Choice_List (Node); begin NULL; end; when Ada_Name_List => declare Name_List_Node : constant LAL.Name_List := LAL.As_Name_List (Node); NameListFirst : constant Positive := LAL.Name_List_First (Name_List_Node); begin Log ("NameListFirst: " & NameListFirst'Image); end; when Ada_Parent_List => declare Parent_List_Node : constant LAL.Parent_List := LAL.As_Parent_List (Node); begin NULL; end; when Ada_Param_Spec_List => declare Param_Spec_List_Node : constant LAL.Param_Spec_List := LAL.As_Param_Spec_List (Node); ParamSpecListFirst : constant Positive := LAL.Param_Spec_List_First (Param_Spec_List_Node); begin Log ("ParamSpecListFirst: " & ParamSpecListFirst'Image); end; when Ada_Pragma_Node_List => declare Pragma_Node_List_Node : constant LAL.Pragma_Node_List := LAL.As_Pragma_Node_List (Node); PragmaNodeListFirst : constant Positive := LAL.Pragma_Node_List_First (Pragma_Node_List_Node); begin Log ("PragmaNodeListFirst: " & PragmaNodeListFirst'Image); end; when Ada_Select_When_Part_List => declare Select_When_Part_List_Node : constant LAL.Select_When_Part_List := LAL.As_Select_When_Part_List (Node); SelectWhenPartListFirst : constant Positive := LAL.Select_When_Part_List_First (Select_When_Part_List_Node); begin Log ("SelectWhenPartListFirst: " & SelectWhenPartListFirst'Image); end; when Ada_Unconstrained_Array_Index_List => declare Unconstrained_Array_Index_List_Node : constant LAL.Unconstrained_Array_Index_List := LAL.As_Unconstrained_Array_Index_List (Node); UnconstrainedArrayIndexListFirst : constant Positive := LAL.Unconstrained_Array_Index_List_First (Unconstrained_Array_Index_List_Node); begin Log ("UnconstrainedArrayIndexListFirst: " & UnconstrainedArrayIndexListFirst'Image); end; when Ada_Variant_List => declare Variant_List_Node : constant LAL.Variant_List := LAL.As_Variant_List (Node); VariantListFirst : constant Positive := LAL.Variant_List_First (Variant_List_Node); begin Log ("VariantListFirst: " & VariantListFirst'Image); end; end case; end Process_Ada_Ada_List; procedure Process_Ada_Aliased_Node (This : in out Class; -- Node : in LAL.Stmt'Class; Node : in LAL.Ada_Node'Class) is Parent_Name : constant String := Module_Name; Module_Name : constant String := Parent_Name & ".Process_Aliased_Node"; package Logging is new Generic_Logging (Module_Name); use Logging; -- Auto : Logging.Auto_Logger; -- Logs BEGIN and END -- Will raise Constraint_Error if Node.Kind is not in Ada_Stmt: Kind : constant LALCO.Ada_Aliased_Node := Node.Kind; use LALCO; -- For subtype names in case stmt begin -- Process_Ada_Aliased_Node case Kind is when Ada_Aliased_Absent => declare Aliased_Absent_Node : constant LAL.Aliased_Absent := LAL.As_Aliased_Absent (Node); begin NULL; end; when Ada_Aliased_Present => declare Aliased_Present_Node : constant LAL.Aliased_Present := LAL.As_Aliased_Present (Node); begin NULL; end; end case; end Process_Ada_Aliased_Node; procedure Process_Ada_All_Node (This : in out Class; -- Node : in LAL.Stmt'Class; Node : in LAL.Ada_Node'Class) is Parent_Name : constant String := Module_Name; Module_Name : constant String := Parent_Name & ".Process_All_Node"; package Logging is new Generic_Logging (Module_Name); use Logging; -- Auto : Logging.Auto_Logger; -- Logs BEGIN and END -- Will raise Constraint_Error if Node.Kind is not in Ada_Stmt: Kind : constant LALCO.Ada_All_Node := Node.Kind; use LALCO; -- For subtype names in case stmt begin -- Process_Ada_All_Node case Kind is when Ada_All_Absent => declare All_Absent_Node : constant LAL.All_Absent := LAL.As_All_Absent (Node); begin NULL; end; when Ada_All_Present => declare All_Present_Node : constant LAL.All_Present := LAL.As_All_Present (Node); begin NULL; end; end case; end Process_Ada_All_Node; procedure Process_Ada_Array_Indices (This : in out Class; -- Node : in LAL.Stmt'Class; Node : in LAL.Ada_Node'Class) is Parent_Name : constant String := Module_Name; Module_Name : constant String := Parent_Name & ".Process_Array_Indices"; package Logging is new Generic_Logging (Module_Name); use Logging; -- Auto : Logging.Auto_Logger; -- Logs BEGIN and END -- Will raise Constraint_Error if Node.Kind is not in Ada_Stmt: Kind : constant LALCO.Ada_Array_Indices := Node.Kind; use LALCO; -- For subtype names in case stmt begin -- Process_Ada_Array_Indices case Kind is when Ada_Constrained_Array_Indices => declare Constrained_Array_Indices_Node : constant LAL.Constrained_Array_Indices := LAL.As_Constrained_Array_Indices (Node); ConstraintList : constant LAL.Constraint_List := LAL.F_List (Constrained_Array_Indices_Node); begin Log ("ConstraintList: " & ConstraintList.Debug_Text); end; when Ada_Unconstrained_Array_Indices => declare Unconstrained_Array_Indices_Node : constant LAL.Unconstrained_Array_Indices := LAL.As_Unconstrained_Array_Indices (Node); UnconstrainedArrayIndexList : constant LAL.Unconstrained_Array_Index_List := LAL.F_Types (Unconstrained_Array_Indices_Node); begin Log ("UnconstrainedArrayIndexList: " & UnconstrainedArrayIndexList.Debug_Text); end; end case; end Process_Ada_Array_Indices; procedure Process_Ada_Aspect_Assoc_Range (This : in out Class; -- Node : in LAL.Stmt'Class; Node : in LAL.Ada_Node'Class) is Parent_Name : constant String := Module_Name; Module_Name : constant String := Parent_Name & ".Process_Aspect_Assoc_Range"; package Logging is new Generic_Logging (Module_Name); use Logging; -- Auto : Logging.Auto_Logger; -- Logs BEGIN and END -- Will raise Constraint_Error if Node.Kind is not in Ada_Stmt: Kind : constant LALCO.Ada_Aspect_Assoc_Range := Node.Kind; use LALCO; -- For subtype names in case stmt begin -- Process_Ada_Aspect_Assoc_Range case Kind is when Ada_Aspect_Assoc => declare Aspect_Assoc_Node : constant LAL.Aspect_Assoc := LAL.As_Aspect_Assoc (Node); name : constant LAL.Name := LAL.F_Id (Aspect_Assoc_Node); expr : constant LAL.Expr := LAL.F_Expr (Aspect_Assoc_Node); begin Log ("name: " & name.Debug_Text); if not expr.Is_Null then Log ("expr: " & expr.Debug_Text); end if; end; end case; end Process_Ada_Aspect_Assoc_Range; procedure Process_Ada_Aspect_Clause (This : in out Class; -- Node : in LAL.Stmt'Class; Node : in LAL.Ada_Node'Class) is Parent_Name : constant String := Module_Name; Module_Name : constant String := Parent_Name & ".Process_Aspect_Clause"; package Logging is new Generic_Logging (Module_Name); use Logging; -- Auto : Logging.Auto_Logger; -- Logs BEGIN and END -- Will raise Constraint_Error if Node.Kind is not in Ada_Stmt: Kind : constant LALCO.Ada_Aspect_Clause := Node.Kind; use LALCO; -- For subtype names in case stmt begin -- Process_Ada_Aspect_Clause case Kind is when Ada_At_Clause => declare At_Clause_Node : constant LAL.At_Clause := LAL.As_At_Clause (Node); baseID : constant LAL.Base_Id := LAL.F_Name (At_Clause_Node); expr : constant LAL.Expr := LAL.F_Expr (At_Clause_Node); begin Log ("baseID: " & baseID.Debug_Text); Log ("expr: " & expr.Debug_Text); end; when Ada_Attribute_Def_Clause => declare Attribute_Def_Clause_Node : constant LAL.Attribute_Def_Clause := LAL.As_Attribute_Def_Clause (Node); name : constant LAL.Name := LAL.F_Attribute_Expr (Attribute_Def_Clause_Node); expr : constant LAL.Expr := LAL.F_Expr (Attribute_Def_Clause_Node); begin Log ("name: " & name.Debug_Text); Log ("expr: " & expr.Debug_Text); end; when Ada_Enum_Rep_Clause => declare Enum_Rep_Clause_Node : constant LAL.Enum_Rep_Clause := LAL.As_Enum_Rep_Clause (Node); name : constant LAL.Name := LAL.F_Type_Name (Enum_Rep_Clause_Node); baseAggregate : constant LAL.Base_Aggregate := LAL.F_Aggregate (Enum_Rep_Clause_Node); begin Log ("name: " & name.Debug_Text); Log ("baseAggregate: " & baseAggregate.Debug_Text); end; when Ada_Record_Rep_Clause => declare Record_Rep_Clause_Node : constant LAL.Record_Rep_Clause := LAL.As_Record_Rep_Clause (Node); name : constant LAL.Name := LAL.F_Name (Record_Rep_Clause_Node); expr : constant LAL.Expr := LAL.F_At_Expr (Record_Rep_Clause_Node); nodeList : constant LAL.Ada_Node_List := LAL.F_Components (Record_Rep_Clause_Node); begin Log ("name: " & name.Debug_Text); if not expr.Is_Null then Log ("expr: " & expr.Debug_Text); end if; Log ("nodeList: " & nodeList.Debug_Text); end; end case; end Process_Ada_Aspect_Clause; procedure Process_Ada_Aspect_Spec_Range (This : in out Class; -- Node : in LAL.Stmt'Class; Node : in LAL.Ada_Node'Class) is Parent_Name : constant String := Module_Name; Module_Name : constant String := Parent_Name & ".Process_Aspect_Spec_Range"; package Logging is new Generic_Logging (Module_Name); use Logging; -- Auto : Logging.Auto_Logger; -- Logs BEGIN and END -- Will raise Constraint_Error if Node.Kind is not in Ada_Stmt: Kind : constant LALCO.Ada_Aspect_Spec_Range := Node.Kind; use LALCO; -- For subtype names in case stmt begin -- Process_Ada_Aspect_Spec_Range case Kind is when Ada_Aspect_Spec => declare Aspect_Spec_Node : constant LAL.Aspect_Spec := LAL.As_Aspect_Spec (Node); aspectAssocList : constant LAL.Aspect_Assoc_List := LAL.F_Aspect_Assocs (Aspect_Spec_Node); begin Log ("aspectAssocList: " & aspectAssocList.Debug_Text); end; end case; end Process_Ada_Aspect_Spec_Range; procedure Process_Ada_Base_Assoc (This : in out Class; -- Node : in LAL.Stmt'Class; Node : in LAL.Ada_Node'Class) is Parent_Name : constant String := Module_Name; Module_Name : constant String := Parent_Name & ".Process_Base_Assoc"; package Logging is new Generic_Logging (Module_Name); use Logging; -- Auto : Logging.Auto_Logger; -- Logs BEGIN and END -- Will raise Constraint_Error if Node.Kind is not in Ada_Stmt: Kind : constant LALCO.Ada_Base_Assoc := Node.Kind; use LALCO; -- For subtype names in case stmt begin -- Process_Ada_Base_Assoc case Kind is when Ada_Contract_Case_Assoc => declare Contract_Case_Assoc_Node : constant LAL.Contract_Case_Assoc := LAL.As_Contract_Case_Assoc (Node); guard : constant LAL.Ada_Node := LAL.F_Guard (Contract_Case_Assoc_Node); consequence : constant LAL.Expr := LAL.F_Consequence (Contract_Case_Assoc_Node); begin Log ("guard: " & guard.Debug_Text); Log ("consequence: " & consequence.Debug_Text); end; when Ada_Pragma_Argument_Assoc => declare Pragma_Argument_Assoc_Node : constant LAL.Pragma_Argument_Assoc := LAL.As_Pragma_Argument_Assoc (Node); id : constant LAL.Identifier := LAL.F_Id (Pragma_Argument_Assoc_Node); expr : constant LAL.Expr := LAL.F_Expr (Pragma_Argument_Assoc_Node); begin if not id.Is_Null then Log ("id: " & id.Debug_Text); end if; if not expr.Is_Null then Log ("expr: " & expr.Debug_Text); end if; end; end case; end Process_Ada_Base_Assoc; procedure Process_Ada_Base_Formal_Param_Holder (This : in out Class; -- Node : in LAL.Stmt'Class; Node : in LAL.Ada_Node'Class) is Parent_Name : constant String := Module_Name; Module_Name : constant String := Parent_Name & ".Process_Base_Formal_Param_Holder"; package Logging is new Generic_Logging (Module_Name); use Logging; -- Auto : Logging.Auto_Logger; -- Logs BEGIN and END -- Will raise Constraint_Error if Node.Kind is not in Ada_Stmt: Kind : constant LALCO.Ada_Base_Formal_Param_Holder := Node.Kind; use LALCO; -- For subtype names in case stmt begin -- Process_Ada_Base_Formal_Param_Holder case Kind is when Ada_Entry_Spec => declare Entry_Spec_Node : constant LAL.Entry_Spec := LAL.As_Entry_Spec (Node); entryName : constant LAL.Defining_Name := LAL.F_Entry_Name (Entry_Spec_Node); familyType : constant LAL.Ada_Node := LAL.F_Family_Type (Entry_Spec_Node); entryParams : constant LAL.Params := LAL.F_Entry_Params (Entry_Spec_Node); begin Log ("entryName: " & entryName.Debug_Text); if not familyType.Is_Null then Log ("familyType: " & familyType.Debug_Text); end if; if not entryParams.Is_Null then Log ("entryParams: " & entryParams.Debug_Text); end if; end; when Ada_Enum_Subp_Spec => declare Enum_Subp_Spec_Node : constant LAL.Enum_Subp_Spec := LAL.As_Enum_Subp_Spec (Node); begin NULL; end; when Ada_Subp_Spec => declare Subp_Spec_Node : constant LAL.Subp_Spec := LAL.As_Subp_Spec (Node); subpKind : constant LAL.Subp_Kind := LAL.F_Subp_Kind (Subp_Spec_Node); subpName : constant LAL.Defining_Name := LAL.F_Subp_Name (Subp_Spec_Node); subpParams : constant LAL.Params := LAL.F_Subp_Params (Subp_Spec_Node); subpReturn : constant LAL.Type_Expr := LAL.F_Subp_Returns (Subp_Spec_Node); begin Log ("subpKind: " & subpKind.Debug_Text); if not subpName.Is_Null then Log ("subpName: " & subpName.Debug_Text); end if; if not subpParams.Is_Null then Log ("subpParams: " & subpParams.Debug_Text); end if; if not subpReturn.Is_Null then Log ("subpReturn: " & subpReturn.Debug_Text); end if; end; when Ada_Component_List => declare Component_List_Node : constant LAL.Component_List := LAL.As_Component_List (Node); components : constant LAL.Ada_Node_List := LAL.F_Components (Component_List_Node); variantPart : constant LAL.Variant_Part := LAL.F_Variant_Part (Component_List_Node); begin Log ("components: " & components.Debug_Text); if not variantPart.Is_Null then Log ("variantPart: " & variantPart.Debug_Text); end if; end; when Ada_Known_Discriminant_Part => declare Known_Discriminant_Part_Node : constant LAL.Known_Discriminant_Part := LAL.As_Known_Discriminant_Part (Node); discrSpecs : constant LAL.Discriminant_Spec_List := LAL.F_Discr_Specs (Known_Discriminant_Part_Node); begin Log ("discrSpecs: " & discrSpecs.Debug_Text); end; when Ada_Unknown_Discriminant_Part => declare Unknown_Discriminant_Part_Node : constant LAL.Unknown_Discriminant_Part := LAL.As_Unknown_Discriminant_Part (Node); begin NULL; end; when Ada_Entry_Completion_Formal_Params => declare Entry_Completion_Formal_Params_Node : constant LAL.Entry_Completion_Formal_Params := LAL.As_Entry_Completion_Formal_Params (Node); params : constant LAL.Params := LAL.F_Params (Entry_Completion_Formal_Params_Node); begin if not params.Is_Null then Log ("params: " & params.Debug_Text); end if; end; when Ada_Generic_Formal_Part => declare Generic_Formal_Part_Node : constant LAL.Generic_Formal_Part := LAL.As_Generic_Formal_Part (Node); decls : constant LAL.Ada_Node_List := LAL.F_Decls (Generic_Formal_Part_Node); begin Log ("decls: " & decls.Debug_Text); end; end case; end Process_Ada_Base_Formal_Param_Holder; procedure Process_Ada_Base_Record_Def (This : in out Class; -- Node : in LAL.Stmt'Class; Node : in LAL.Ada_Node'Class) is Parent_Name : constant String := Module_Name; Module_Name : constant String := Parent_Name & ".Process_Base_Record_Def"; package Logging is new Generic_Logging (Module_Name); use Logging; -- Auto : Logging.Auto_Logger; -- Logs BEGIN and END -- Will raise Constraint_Error if Node.Kind is not in Ada_Stmt: Kind : constant LALCO.Ada_Base_Record_Def := Node.Kind; use LALCO; -- For subtype names in case stmt begin -- Process_Ada_Base_Record_Def case Kind is when Ada_Null_Record_Def => declare Null_Record_Def_Node : constant LAL.Null_Record_Def := LAL.As_Null_Record_Def (Node); begin NULL; end; when Ada_Record_Def => declare Record_Def_Node : constant LAL.Record_Def := LAL.As_Record_Def (Node); begin NULL; end; end case; end Process_Ada_Base_Record_Def; procedure Process_Ada_Basic_Assoc (This : in out Class; -- Node : in LAL.Stmt'Class; Node : in LAL.Ada_Node'Class) is Parent_Name : constant String := Module_Name; Module_Name : constant String := Parent_Name & ".Process_Basic_Assoc"; package Logging is new Generic_Logging (Module_Name); use Logging; -- Auto : Logging.Auto_Logger; -- Logs BEGIN and END -- Will raise Constraint_Error if Node.Kind is not in Ada_Stmt: Kind : constant LALCO.Ada_Basic_Assoc := Node.Kind; use LALCO; -- For subtype names in case stmt begin -- Process_Ada_Basic_Assoc case Kind is when Ada_Aggregate_Assoc => declare Aggregate_Assoc_Node : constant LAL.Aggregate_Assoc := LAL.As_Aggregate_Assoc (Node); designators : constant LAL.Alternatives_List := LAL.F_Designators (Aggregate_Assoc_Node); rExpr : constant LAL.Expr := LAL.F_R_Expr (Aggregate_Assoc_Node); begin Log ("designators: " & designators.Debug_Text); Log ("rExpr: " & rExpr.Debug_Text); end; when Ada_Multi_Dim_Array_Assoc => declare Multi_Dim_Array_Assoc_Node : constant LAL.Multi_Dim_Array_Assoc := LAL.As_Multi_Dim_Array_Assoc (Node); begin NULL; end; when Ada_Discriminant_Assoc => declare Discriminant_Assoc_Node : constant LAL.Discriminant_Assoc := LAL.As_Discriminant_Assoc (Node); ids : constant LAL.Discriminant_Choice_List := LAL.F_Ids (Discriminant_Assoc_Node); discrExpr : constant LAL.Expr := LAL.F_Discr_Expr (Discriminant_Assoc_Node); begin Log ("ids: " & ids.Debug_Text); Log ("discrExpr: " & discrExpr.Debug_Text); end; when Ada_Param_Assoc => declare Param_Assoc_Node : constant LAL.Param_Assoc := LAL.As_Param_Assoc (Node); designators : constant LAL.Ada_Node := LAL.F_Designator (Param_Assoc_Node); rExpr : constant LAL.Expr := LAL.F_R_Expr (Param_Assoc_Node); begin if not designators.Is_Null then Log ("designators: " & designators.Debug_Text); end if; if not rExpr.Is_Null then Log ("rExpr: " & rExpr.Debug_Text); end if; end; end case; end Process_Ada_Basic_Assoc; procedure Process_Ada_Basic_Decl (This : in out Class; -- Node : in LAL.Stmt'Class; Node : in LAL.Ada_Node'Class) is Parent_Name : constant String := Module_Name; Module_Name : constant String := Parent_Name & ".Process_Ada_Basic_Decl"; package Logging is new Generic_Logging (Module_Name); use Logging; -- Auto : Logging.Auto_Logger; -- Logs BEGIN and END -- Will raise Constraint_Error if Node.Kind is not in Ada_Stmt: Kind : constant LALCO.Ada_Basic_Decl := Node.Kind; use LALCO; -- For subtype names in case stmt begin -- Process_Ada_Basic_Decl case Kind is --when Ada_Base_Formal_Param_Decl => -- This.Add_Not_Implemented; when Ada_Component_Decl => declare Component_Decl_Node : constant LAL.Component_Decl := LAL.As_Component_Decl (Node); NameList : constant LAL.Defining_Name_List := LAL.F_Ids (Component_Decl_Node); Component_Def : constant LAL.Component_Def := LAL.F_Component_Def (Component_Decl_Node); Expr : constant LAL.Expr := LAL.F_Default_Expr (Component_Decl_Node); begin Log ("NameList: " & NameList.Debug_Text); Log ("Component_Def: " & Component_Def.Debug_Text); if not Expr.Is_Null then Log ("Expr: " & Expr.Debug_Text); end if; end; This.Add_Not_Implemented; when Ada_Discriminant_Spec => declare Discriminant_Spec_Node : constant LAL.Discriminant_Spec := LAL.As_Discriminant_Spec (Node); NameList : constant LAL.Defining_Name_List := LAL.F_Ids (Discriminant_Spec_Node); TypeExpr : constant LAL.Type_Expr := LAL.F_Type_Expr (Discriminant_Spec_Node); DefaultExpr : constant LAL.Expr := LAL.F_Default_Expr (Discriminant_Spec_Node); begin Log ("NameList: " & NameList.Debug_Text); Log ("TypeExpr: " & TypeExpr.Debug_Text); if not DefaultExpr.Is_Null then Log ("DefaultExpr: " & DefaultExpr.Debug_Text); end if; end; This.Add_Not_Implemented; --when Ada_Generic_Formal => -- This.Add_Not_Implemented; when Ada_Generic_Formal_Obj_Decl => declare Generic_Formal_Obj_Decl_Node : constant LAL.Generic_Formal_Obj_Decl := LAL.As_Generic_Formal_Obj_Decl (Node); begin NULL; end; This.Add_Not_Implemented; when Ada_Generic_Formal_Package => declare Generic_Formal_Package_Node : constant LAL.Generic_Formal_Package := LAL.As_Generic_Formal_Package (Node); begin NULL; end; This.Add_Not_Implemented; when Ada_Generic_Formal_Subp_Decl => declare Generic_Formal_Subp_Decl_Node : constant LAL.Generic_Formal_Subp_Decl := LAL.As_Generic_Formal_Subp_Decl (Node); begin NULL; end; This.Add_Not_Implemented; when Ada_Generic_Formal_Type_Decl => declare Generic_Formal_Type_Decl_Node : constant LAL.Generic_Formal_Type_Decl := LAL.As_Generic_Formal_Type_Decl (Node); begin NULL; end; This.Add_Not_Implemented; when Ada_Param_Spec => declare Param_Spec_Node : constant LAL.Param_Spec := LAL.As_Param_Spec (Node); NameList : constant LAL.Defining_Name_List := LAL.F_Ids (Param_Spec_Node); Has_Aliased : constant Boolean := LAL.F_Has_Aliased (Param_Spec_Node); Mode : constant LAL.Mode := LAL.F_Mode (Param_Spec_Node); begin Log ("NameList: " & NameList.Debug_Text); Log ("Has_Alias: " & Boolean'Image (Has_Aliased)); Log ("Mode: " & Mode.Debug_Text); end; This.Add_Not_Implemented; --when Ada_Base_Package_Decl => -- This.Add_Not_Implemented; when Ada_Generic_Package_Internal => declare Generic_Package_Internal_Node : constant LAL.Generic_Package_Internal := LAL.As_Generic_Package_Internal (Node); begin NULL; end; This.Add_Not_Implemented; when Ada_Package_Decl => declare Package_Decl_Node : constant LAL.Package_Decl := LAL.As_Package_Decl (Node); begin NULL; end; This.Add_Not_Implemented; --when Ada_Base_Type_Decl => -- This.Add_Not_Implemented; --when Ada_Base_Subtype_Decl => -- This.Add_Not_Implemented; when Ada_Discrete_Base_Subtype_Decl => declare Discrete_Base_Subtype_Decl_Node : constant LAL.Discrete_Base_Subtype_Decl := LAL.As_Discrete_Base_Subtype_Decl (Node); begin NULL; end; This.Add_Not_Implemented; when Ada_Subtype_Decl => declare Subtype_Decl_Node : constant LAL.Subtype_Decl := LAL.As_Subtype_Decl (Node); bareSubtype : constant LAL.Subtype_Indication := LAL.F_Subtype (Subtype_Decl_Node); begin Log ("bareSubtype: " & bareSubtype.Debug_Text); end; This.Add_Not_Implemented; when Ada_Classwide_Type_Decl => declare Classwide_Type_Decl_Node : constant LAL.Classwide_Type_Decl := LAL.As_Classwide_Type_Decl (Node); begin NULL; end; This.Add_Not_Implemented; when Ada_Incomplete_Type_Decl => declare Incomplete_Type_Decl_Node : constant LAL.Incomplete_Type_Decl := LAL.As_Incomplete_Type_Decl (Node); Discriminants : constant LAL.Discriminant_Part := LAL.F_Discriminants (Incomplete_Type_Decl_Node); begin if not Discriminants.Is_Null then Log ("Discriminants: " & Discriminants.Debug_Text); end if; end; This.Add_Not_Implemented; when Ada_Incomplete_Tagged_Type_Decl => declare Incomplete_Tagged_Type_Decl_Node : constant LAL.Incomplete_Tagged_Type_Decl := LAL.As_Incomplete_Tagged_Type_Decl (Node); Has_Abstract : constant Boolean := LAL.F_Has_Abstract (Incomplete_Tagged_Type_Decl_Node); begin Log ("Has_Abstract: " & Boolean'Image (Has_Abstract)); end; This.Add_Not_Implemented; when Ada_Protected_Type_Decl => declare Protected_Type_Decl_Node : constant LAL.Protected_Type_Decl := LAL.As_Protected_Type_Decl (Node); Discriminants : constant LAL.Discriminant_Part := LAL.F_Discriminants (Protected_Type_Decl_Node); Definition : constant LAL.Protected_Def := LAL.F_Definition (Protected_Type_Decl_Node); begin if not Discriminants.Is_Null then Log ("Discriminants: " & Discriminants.Debug_Text); end if; if not Definition.Is_Null then Log ("Definition: " & Definition.Debug_Text); end if; end; This.Add_Not_Implemented; when Ada_Task_Type_Decl => declare Task_Type_Decl_Node : constant LAL.Task_Type_Decl := LAL.As_Task_Type_Decl (Node); Discriminants : constant LAL.Discriminant_Part := LAL.F_Discriminants (Task_Type_Decl_Node); Definition : constant LAL.Task_Def := LAL.F_Definition (Task_Type_Decl_Node); begin if not Discriminants.Is_Null then Log ("Discriminants: " & Discriminants.Debug_Text); end if; if not Definition.Is_Null then Log ("Definition: " & Definition.Debug_Text); end if; end; This.Add_Not_Implemented; when Ada_Single_Task_Type_Decl => declare Single_Task_Type_Decl_Node : constant LAL.Single_Task_Type_Decl := LAL.As_Single_Task_Type_Decl (Node); begin NULL; end; when Ada_Type_Decl => declare Type_Decl_Node : constant LAL.Type_Decl := LAL.As_Type_Decl (Node); Discriminants : constant LAL.Discriminant_Part := LAL.F_Discriminants (Type_Decl_Node); typeDef : constant LAL.Type_Def := LAL.F_Type_Def (Type_Decl_Node); begin if not Discriminants.Is_Null then Log ("Discriminants: " & Discriminants.Debug_Text); end if; Log ("typeDef: " & typeDef.Debug_Text); end; This.Add_Not_Implemented; when Ada_Anonymous_Type_Decl => declare Anonymous_Type_Decl_Node : constant LAL.Anonymous_Type_Decl := LAL.As_Anonymous_Type_Decl (Node); begin NULL; end; This.Add_Not_Implemented; when Ada_Synth_Anonymous_Type_Decl => declare Synth_Anonymous_Type_Decl_Node : constant LAL.Synth_Anonymous_Type_Decl := LAL.As_Synth_Anonymous_Type_Decl (Node); begin NULL; end; when Ada_Abstract_Subp_Decl => declare Abstract_Subp_Decl_Node : constant LAL.Abstract_Subp_Decl := LAL.As_Abstract_Subp_Decl (Node); begin NULL; end; This.Add_Not_Implemented; --when Ada_Formal_Subp_Decl => -- This.Add_Not_Implemented; when Ada_Abstract_Formal_Subp_Decl => declare Abstract_Formal_Subp_Decl_Node : constant LAL.Abstract_Formal_Subp_Decl := LAL.As_Abstract_Formal_Subp_Decl (Node); begin NULL; end; This.Add_Not_Implemented; when Ada_Concrete_Formal_Subp_Decl => declare Concrete_Formal_Subp_Decl_Node : constant LAL.Concrete_Formal_Subp_Decl := LAL.As_Concrete_Formal_Subp_Decl (Node); begin NULL; end; This.Add_Not_Implemented; when Ada_Subp_Decl => declare Subp_Decl_Node : constant LAL.Subp_Decl := LAL.As_Subp_Decl (Node); begin NULL; end; This.Add_Not_Implemented; when Ada_Entry_Decl => declare Entry_Decl_Node : constant LAL.Entry_Decl := LAL.As_Entry_Decl (Node); overridding : constant LAL.Overriding_Node := LAL.F_Overriding (Entry_Decl_Node); spec : constant LAL.Entry_Spec := LAL.F_Spec (Entry_Decl_Node); begin Log ("overridding: " & overridding.Debug_Text); Log ("spec: " & spec.Debug_Text); end; This.Add_Not_Implemented; when Ada_Enum_Literal_Decl => declare Enum_Literal_Decl_Node : constant LAL.Enum_Literal_Decl := LAL.As_Enum_Literal_Decl (Node); name : constant LAL.Defining_Name := LAL.F_Name (Enum_Literal_Decl_Node); enumType : constant LAL.Type_Decl := LAL.P_Enum_Type (Enum_Literal_Decl_Node); begin Log ("name: " & name.Debug_Text); Log ("enumType: " & enumType.Debug_Text); end; This.Add_Not_Implemented; when Ada_Generic_Subp_Internal => declare Generic_Subp_Internal_Node : constant LAL.Generic_Subp_Internal := LAL.As_Generic_Subp_Internal (Node); subpSpec : constant LAL.Subp_Spec := LAL.F_Subp_Spec (Generic_Subp_Internal_Node); begin Log ("subpSpec: " & subpSpec.Debug_Text); end; This.Add_Not_Implemented; --when Ada_Body_Node => -- This.Add_Not_Implemented; --when Ada_Base_Subp_Body => -- This.Add_Not_Implemented; when Ada_Expr_Function => declare Expr_Function_Node : constant LAL.Expr_Function := LAL.As_Expr_Function (Node); expr : constant LAL.Expr := LAL.F_Expr (Expr_Function_Node); begin Log ("expr: " & expr.Debug_Text); end; This.Add_Not_Implemented; when Ada_Null_Subp_Decl => declare Null_Subp_Decl_Node : constant LAL.Null_Subp_Decl := LAL.As_Null_Subp_Decl (Node); begin NULL; end; This.Add_Not_Implemented; when Ada_Subp_Body => declare Subp_Body_Node : constant LAL.Subp_Body := LAL.As_Subp_Body (Node); decl : constant LAL.Declarative_Part := LAL.F_Decls (Subp_Body_Node); stmt : constant LAL.Handled_Stmts := LAL.F_Stmts (Subp_Body_Node); endname : constant LAL.End_Name := LAL.F_End_Name (Subp_Body_Node); begin Log ("decl: " & decl.Debug_Text); Log ("stmt: " & stmt.Debug_Text); if not endname.Is_Null then Log ("endname: " & endname.Debug_Text); end if; end; This.Add_Not_Implemented; when Ada_Subp_Renaming_Decl => declare Subp_Renaming_Decl_Node : constant LAL.Subp_Renaming_Decl := LAL.As_Subp_Renaming_Decl (Node); rename : constant LAL.Renaming_Clause := LAL.F_Renames (Subp_Renaming_Decl_Node); begin Log ("rename: " & rename.Debug_Text); end; This.Add_Not_Implemented; --when Ada_Body_Stub => -- This.Add_Not_Implemented; when Ada_Package_Body_Stub => declare Package_Body_Stub_Node : constant LAL.Package_Body_Stub := LAL.As_Package_Body_Stub (Node); name : constant LAL.Defining_Name := LAL.F_Name (Package_Body_Stub_Node); begin Log ("name: " & name.Debug_Text); end; This.Add_Not_Implemented; when Ada_Protected_Body_Stub => declare Protected_Body_Stub_Node : constant LAL.Protected_Body_Stub := LAL.As_Protected_Body_Stub (Node); name : constant LAL.Defining_Name := LAL.F_Name (Protected_Body_Stub_Node); begin Log ("name: " & name.Debug_Text); end; This.Add_Not_Implemented; when Ada_Subp_Body_Stub => declare Subp_Body_Stub_Node : constant LAL.Subp_Body_Stub := LAL.As_Subp_Body_Stub (Node); overridding : constant LAL.Overriding_Node := LAL.F_Overriding (Subp_Body_Stub_Node); subSpec : constant LAL.Subp_Spec := LAL.F_Subp_Spec (Subp_Body_Stub_Node); begin Log ("overridding: " & overridding.Debug_Text); Log ("subSpec: " & subSpec.Debug_Text); end; This.Add_Not_Implemented; when Ada_Task_Body_Stub => declare Task_Body_Stub_Node : constant LAL.Task_Body_Stub := LAL.As_Task_Body_Stub (Node); name : constant LAL.Defining_Name := LAL.F_Name (Task_Body_Stub_Node); begin Log ("name: " & name.Debug_Text); end; This.Add_Not_Implemented; when Ada_Entry_Body => declare Entry_Body_Node : constant LAL.Entry_Body := LAL.As_Entry_Body (Node); params : constant LAL.Entry_Completion_Formal_Params := LAL.F_Params (Entry_Body_Node); barrier : constant LAL.Expr := LAL.F_Barrier (Entry_Body_Node); decls : constant LAL.Declarative_Part := LAL.F_Decls (Entry_Body_Node); stmts : constant LAL.Handled_Stmts := LAL.F_Stmts (Entry_Body_Node); endname : constant LAL.End_Name := LAL.F_End_Name (Entry_Body_Node); begin Log ("params: " & params.Debug_Text); Log ("barrier: " & barrier.Debug_Text); Log ("decls: " & decls.Debug_Text); Log ("stmts: " & stmts.Debug_Text); if not endname.Is_Null then Log ("endname: " & endname.Debug_Text); end if; end; This.Add_Not_Implemented; when Ada_Package_Body => declare Package_Body_Node : constant LAL.Package_Body := LAL.As_Package_Body (Node); name : constant LAL.Defining_Name := LAL.F_Package_Name (Package_Body_Node); decls : constant LAL.Declarative_Part := LAL.F_Decls (Package_Body_Node); stmts : constant LAL.Handled_Stmts := LAL.F_Stmts (Package_Body_Node); endname : constant LAL.End_Name := LAL.F_End_Name (Package_Body_Node); begin Log ("name: " & name.Debug_Text); Log ("decls: " & decls.Debug_Text); if not stmts.Is_Null then Log ("stmts: " & stmts.Debug_Text); end if; if not endname.Is_Null then Log ("endname: " & endname.Debug_Text); end if; end; This.Add_Not_Implemented; when Ada_Protected_Body => declare Protected_Body_Node : constant LAL.Protected_Body := LAL.As_Protected_Body (Node); name : constant LAL.Defining_Name := LAL.F_Name (Protected_Body_Node); decls : constant LAL.Declarative_Part := LAL.F_Decls (Protected_Body_Node); endname : constant LAL.End_Name := LAL.F_End_Name (Protected_Body_Node); begin Log ("name: " & name.Debug_Text); Log ("decls: " & decls.Debug_Text); Log ("endname: " & endname.Debug_Text); end; This.Add_Not_Implemented; when Ada_Task_Body => declare Task_Body_Node : constant LAL.Task_Body := LAL.As_Task_Body (Node); name : constant LAL.Defining_Name := LAL.F_Name (Task_Body_Node); decls : constant LAL.Declarative_Part := LAL.F_Decls (Task_Body_Node); stmts : constant LAL.Declarative_Part := LAL.F_Decls (Task_Body_Node); endname : constant LAL.End_Name := LAL.F_End_Name (Task_Body_Node); begin Log ("name: " & name.Debug_Text); Log ("decls: " & decls.Debug_Text); Log ("stmts: " & stmts.Debug_Text); Log ("endname: " & endname.Debug_Text); end; This.Add_Not_Implemented; when Ada_Entry_Index_Spec => declare Entry_Index_Spec_Node : constant LAL.Entry_Index_Spec := LAL.As_Entry_Index_Spec (Node); id : constant LAL.Defining_Name := LAL.F_Id (Entry_Index_Spec_Node); sub_type : constant LAL.Ada_Node := LAL.F_Subtype (Entry_Index_Spec_Node); begin Log ("id: " & id.Debug_Text); Log ("sub_type: " & sub_type.Debug_Text); end; This.Add_Not_Implemented; when Ada_Error_Decl => declare Error_Decl_Node : constant LAL.Error_Decl := LAL.As_Error_Decl (Node); begin NULL; end; This.Add_Not_Implemented; when Ada_Exception_Decl => declare Exception_Decl_Node : constant LAL.Exception_Decl := LAL.As_Exception_Decl (Node); ids : constant LAL.Defining_Name_List := LAL.F_Ids (Exception_Decl_Node); rename : constant LAL.Renaming_Clause := LAL.F_Renames (Exception_Decl_Node); begin Log ("ids: " & ids.Debug_Text); if not rename.Is_Null then Log ("rename: " & rename.Debug_Text); end if; end; This.Add_Not_Implemented; when Ada_Exception_Handler => declare Exception_Handler_Node : constant LAL.Exception_Handler := LAL.As_Exception_Handler (Node); exceptionName : constant LAL.Defining_Name := LAL.F_Exception_Name (Exception_Handler_Node); handledExceptions : constant LAL.Alternatives_List := LAL.F_Handled_Exceptions (Exception_Handler_Node); stmts : constant LAL.Stmt_List := LAL.F_Stmts (Exception_Handler_Node); begin if not exceptionName.Is_Null then Log ("exceptionName: " & exceptionName.Debug_Text); end if; Log ("handledExceptions: " & handledExceptions.Debug_Text); Log ("stmts: " & stmts.Debug_Text); end; This.Add_Not_Implemented; when Ada_For_Loop_Var_Decl => declare For_Loop_Var_Decl_Node : constant LAL.For_Loop_Var_Decl := LAL.As_For_Loop_Var_Decl (Node); id : constant LAL.Defining_Name := LAL.F_Id (For_Loop_Var_Decl_Node); idType : constant LAL.Subtype_Indication := LAL.F_Id_Type (For_Loop_Var_Decl_Node); begin Log ("id: " & id.Debug_Text); if not idType.Is_Null then Log ("idType: " & idType.Debug_Text); end if; end; This.Add_Not_Implemented; --when Ada_Generic_Decl => -- This.Add_Not_Implemented; when Ada_Generic_Package_Decl => declare Generic_Package_Decl_Node : constant LAL.Generic_Package_Decl := LAL.As_Generic_Package_Decl (Node); packageDecl : constant LAL.Generic_Package_Internal := LAL.F_Package_Decl (Generic_Package_Decl_Node); bodyPart : constant LAL.Package_Body := LAL.P_Body_Part (Generic_Package_Decl_Node); begin Log ("packageDecl: " & packageDecl.Debug_Text); if not bodyPart.Is_Null then Log ("bodyPart: " & bodyPart.Debug_Text); end if; end; This.Add_Not_Implemented; when Ada_Generic_Subp_Decl => declare Generic_Subp_Decl_Node : constant LAL.Generic_Subp_Decl := LAL.As_Generic_Subp_Decl (Node); subpDecl : constant LAL.Generic_Subp_Internal := LAL.F_Subp_Decl (Generic_Subp_Decl_Node); -- bodyPart : constant LAL.Base_Subp_Body := LAL.P_Body_Part (Generic_Subp_Decl_Node); begin Log ("subpDecl: " & subpDecl.Debug_Text); -- Log ("bodyPart: " & bodyPart.Debug_Text); end; This.Add_Not_Implemented; --when Ada_Generic_Instantiation => -- This.Add_Not_Implemented; when Ada_Generic_Package_Instantiation => declare Generic_Package_Instantiation_Node : constant LAL.Generic_Package_Instantiation := LAL.As_Generic_Package_Instantiation (Node); name : constant LAL.Defining_Name := LAL.F_Name (Generic_Package_Instantiation_Node); gericPackageName : constant LAL.Name := LAL.F_Generic_Pkg_Name (Generic_Package_Instantiation_Node); params : constant LAL.Assoc_List := LAL.F_Params (Generic_Package_Instantiation_Node); begin Log ("name: " & name.Debug_Text); Log ("gericPackageName: " & gericPackageName.Debug_Text); Log ("params: " & params.Debug_Text); end; This.Add_Not_Implemented; when Ada_Generic_Subp_Instantiation => declare Generic_Subp_Instantiation_Node : constant LAL.Generic_Subp_Instantiation := LAL.As_Generic_Subp_Instantiation (Node); --kind : constant Ada_Subp_Kind := LAL.F_Kind (Generic_Subp_Instantiation_Node); subpName : constant LAL.Defining_Name := LAL.F_Subp_Name (Generic_Subp_Instantiation_Node); genericSubpName : constant LAL.Name := LAL.F_Generic_Subp_Name (Generic_Subp_Instantiation_Node); params : constant LAL.Assoc_List := LAL.F_Params (Generic_Subp_Instantiation_Node); designatedSubp : constant LAL.Ada_Node := LAL.P_Designated_Subp (Generic_Subp_Instantiation_Node); begin --Log ("kind: " & kind.Debug_Text); Log ("subpName: " & subpName.Debug_Text); Log ("genericSubpName: " & genericSubpName.Debug_Text); Log ("params: " & params.Debug_Text); Log ("designatedSubp: " & designatedSubp.Debug_Text); end; This.Add_Not_Implemented; --when Ada_Generic_Renaming_Decl => -- This.Add_Not_Implemented; when Ada_Generic_Package_Renaming_Decl => declare Generic_Package_Renaming_Decl_Node : constant LAL.Generic_Package_Renaming_Decl := LAL.As_Generic_Package_Renaming_Decl (Node); name : constant LAL.Defining_Name := LAL.F_Name (Generic_Package_Renaming_Decl_Node); rename : constant LAL.Name := LAL.F_Renames (Generic_Package_Renaming_Decl_Node); begin Log ("name: " & name.Debug_Text); Log ("rename: " & rename.Debug_Text); end; This.Add_Not_Implemented; when Ada_Generic_Subp_Renaming_Decl => declare Generic_Subp_Renaming_Decl_Node : constant LAL.Generic_Subp_Renaming_Decl := LAL.As_Generic_Subp_Renaming_Decl (Node); kind : constant LAL.Subp_Kind := LAL.F_Kind (Generic_Subp_Renaming_Decl_Node); name : constant LAL.Defining_Name := LAL.F_Name (Generic_Subp_Renaming_Decl_Node); rename : constant LAL.Name := LAL.F_Renames (Generic_Subp_Renaming_Decl_Node); begin --Log ("kind: " & kind.Debug_Text); Log ("kind: " & kind.Debug_Text); Log ("name: " & name.Debug_Text); Log ("rename: " & rename.Debug_Text); end; This.Add_Not_Implemented; when Ada_Label_Decl => declare Label_Decl_Node : constant LAL.Label_Decl := LAL.As_Label_Decl (Node); name : constant LAL.Defining_Name := LAL.F_Name (Label_Decl_Node); begin --Log ("kind: " & kind.Debug_Text); Log ("name: " & name.Debug_Text); end; This.Add_Not_Implemented; when Ada_Named_Stmt_Decl => declare Named_Stmt_Decl_Node : constant LAL.Named_Stmt_Decl := LAL.As_Named_Stmt_Decl (Node); name : constant LAL.Defining_Name := LAL.F_Name (Named_Stmt_Decl_Node); begin --Log ("kind: " & kind.Debug_Text); Log ("name: " & name.Debug_Text); end; This.Add_Not_Implemented; when Ada_Number_Decl => declare Number_Decl_Node : constant LAL.Number_Decl := LAL.As_Number_Decl (Node); ids : constant LAL.Defining_Name_List := LAL.F_Ids (Number_Decl_Node); expr : constant LAL.Expr := LAL.F_Expr (Number_Decl_Node); begin --Log ("kind: " & kind.Debug_Text); Log ("ids: " & ids.Debug_Text); Log ("expr: " & expr.Debug_Text); end; This.Add_Not_Implemented; when Ada_Object_Decl => declare Object_Decl_Node : constant LAL.Object_Decl := LAL.As_Object_Decl (Node); FIds : constant LAL.Defining_Name_List := LAL.F_Ids (Object_Decl_Node); Has_Aliased : constant Boolean := LAL.F_Has_Aliased (Object_Decl_Node); Has_Constant : constant Boolean := LAL.F_Has_Constant (Object_Decl_Node); mode : constant LAL.Mode := LAL.F_Mode (Object_Decl_Node); typeExpr : constant LAL.Type_Expr := LAL.F_Type_Expr (Object_Decl_Node); defaultExpr : constant LAL.Expr := LAL.F_Default_Expr (Object_Decl_Node); renamingClause : constant LAL.Renaming_Clause := LAL.F_Renaming_Clause (Object_Decl_Node); publicPartDecl : constant LAL.Basic_Decl := LAL.P_Public_Part_Decl (Object_Decl_Node); begin Log ("FIds: " & FIds.Debug_Text); Log ("Has_Aliased: " & Boolean'Image (Has_Constant)); Log ("F_Has_Constant: " & Boolean'Image (Has_Constant)); Log ("mode: " & mode.Debug_Text); if not typeExpr.Is_Null then Log ("typeExpr: " & typeExpr.Debug_Text); end if; if not defaultExpr.Is_Null then Log ("defaultExpr: " & defaultExpr.Debug_Text); end if; if not renamingClause.Is_Null then Log ("renamingClause: " & renamingClause.Debug_Text); end if; if not publicPartDecl.Is_Null then Log ("publicPartDecl: " & publicPartDecl.Debug_Text); end if; end; This.Add_Not_Implemented; when Ada_Anonymous_Object_Decl => declare Anonymous_Object_Decl_Node : constant LAL.Anonymous_Object_Decl := LAL.As_Anonymous_Object_Decl (Node); begin NULL; end; This.Add_Not_Implemented; when Ada_Extended_Return_Stmt_Object_Decl => declare Extended_Return_Stmt_Object_Decl_Node : constant LAL.Extended_Return_Stmt_Object_Decl := LAL.As_Extended_Return_Stmt_Object_Decl (Node); begin NULL; end; This.Add_Not_Implemented; when Ada_Package_Renaming_Decl => declare Package_Renaming_Decl_Node : constant LAL.Package_Renaming_Decl := LAL.As_Package_Renaming_Decl (Node); name : constant LAL.Defining_Name := LAL.F_Name (Package_Renaming_Decl_Node); rename : constant LAL.Renaming_Clause := LAL.F_Renames (Package_Renaming_Decl_Node); renamedPackage : constant LAL.Basic_Decl := LAL.P_Renamed_Package (Package_Renaming_Decl_Node); finalRenamedPackage : constant LAL.Basic_Decl := LAL.P_Final_Renamed_Package (Package_Renaming_Decl_Node); begin Log ("name: " & name.Debug_Text); Log ("rename: " & rename.Debug_Text); Log ("renamedPackage: " & renamedPackage.Debug_Text); Log ("finalRenamedPackage: " & finalRenamedPackage.Debug_Text); end; This.Add_Not_Implemented; when Ada_Single_Protected_Decl => declare Single_Protected_Decl_Node : constant LAL.Single_Protected_Decl := LAL.As_Single_Protected_Decl (Node); name : constant LAL.Defining_Name := LAL.F_Name (Single_Protected_Decl_Node); interfaces : constant LAL.Parent_List := LAL.F_Interfaces (Single_Protected_Decl_Node); definition : constant LAL.Protected_Def := LAL.F_Definition (Single_Protected_Decl_Node); begin Log ("name: " & name.Debug_Text); Log ("interfaces: " & interfaces.Debug_Text); Log ("definition: " & definition.Debug_Text); end; This.Add_Not_Implemented; when Ada_Single_Task_Decl => declare Single_Task_Decl_Node : constant LAL.Single_Task_Decl := LAL.As_Single_Task_Decl (Node); taskType : constant LAL.Single_Task_Type_Decl := LAL.F_Task_Type (Single_Task_Decl_Node); begin Log ("taskType: " & taskType.Debug_Text); end; This.Add_Not_Implemented; end case; end Process_Ada_Basic_Decl; procedure Process_Ada_Case_Stmt_Alternative_Range (This : in out Class; -- Node : in LAL.Stmt'Class; Node : in LAL.Ada_Node'Class) is Parent_Name : constant String := Module_Name; Module_Name : constant String := Parent_Name & ".Process_Case_Stmt_Alternative_Range"; package Logging is new Generic_Logging (Module_Name); use Logging; -- Auto : Logging.Auto_Logger; -- Logs BEGIN and END -- Will raise Constraint_Error if Node.Kind is not in Ada_Stmt: Kind : constant LALCO.Ada_Case_Stmt_Alternative_Range := Node.Kind; use LALCO; -- For subtype names in case stmt begin -- Process_Ada_Case_Stmt_Alternative_Range case Kind is when Ada_Case_Stmt_Alternative => declare Case_Stmt_Alternative_Node : constant LAL.Case_Stmt_Alternative := LAL.As_Case_Stmt_Alternative (Node); choices : constant LAL.Alternatives_List := LAL.F_Choices (Case_Stmt_Alternative_Node); stmts : constant LAL.Stmt_List := LAL.F_Stmts (Case_Stmt_Alternative_Node); begin Log ("choices: " & choices.Debug_Text); Log ("stmts: " & stmts.Debug_Text); end; end case; end Process_Ada_Case_Stmt_Alternative_Range; procedure Process_Ada_Compilation_Unit_Range (This : in out Class; -- Node : in LAL.Stmt'Class; Node : in LAL.Ada_Node'Class) is Parent_Name : constant String := Module_Name; Module_Name : constant String := Parent_Name & ".Process_Compilation_Unit_Range"; package Logging is new Generic_Logging (Module_Name); use Logging; -- Auto : Logging.Auto_Logger; -- Logs BEGIN and END -- Will raise Constraint_Error if Node.Kind is not in Ada_Stmt: Kind : constant LALCO.Ada_Compilation_Unit_Range := Node.Kind; use LALCO; -- For subtype names in case stmt begin -- Process_Ada_Compilation_Unit_Range case Kind is when Ada_Compilation_Unit => declare Compilation_Unit_Node : constant LAL.Compilation_Unit := LAL.As_Compilation_Unit (Node); prelude : constant LAL.Ada_Node_List := LAL.F_Prelude (Compilation_Unit_Node); bodyunit : constant LAL.Ada_Node := LAL.F_Body (Compilation_Unit_Node); pragmas : constant LAL.Pragma_Node_List := LAL.F_Pragmas (Compilation_Unit_Node); syntaticQualifiedName : constant LAL.Unbounded_Text_Type_Array := LAL.P_Syntactic_Fully_Qualified_Name (Compilation_Unit_Node); unitKind : constant LALCO.Analysis_Unit_Kind := LAL.P_Unit_Kind (Compilation_Unit_Node); begin Log ("prelude: " & prelude.Debug_Text); Log ("bodyunit: " & bodyunit.Debug_Text); Log ("pragmas: " & pragmas.Debug_Text); -- Log ("syntaticQualifiedName: " & syntaticQualifiedName.Debug_Text); -- Log ("unitKind: " & unitKind.Debug_Text); end; end case; end Process_Ada_Compilation_Unit_Range; procedure Process_Ada_Component_Clause_Range (This : in out Class; -- Node : in LAL.Stmt'Class; Node : in LAL.Ada_Node'Class) is Parent_Name : constant String := Module_Name; Module_Name : constant String := Parent_Name & ".Process_Component_Clause_Range"; package Logging is new Generic_Logging (Module_Name); use Logging; -- Auto : Logging.Auto_Logger; -- Logs BEGIN and END -- Will raise Constraint_Error if Node.Kind is not in Ada_Stmt: Kind : constant LALCO.Ada_Component_Clause_Range := Node.Kind; use LALCO; -- For subtype names in case stmt begin -- Process_Ada_Component_Clause_Range case Kind is when Ada_Component_Clause => declare Component_Clause_Node : constant LAL.Component_Clause := LAL.As_Component_Clause (Node); id : constant LAL.Identifier := LAL.F_Id (Component_Clause_Node); position : constant LAL.Expr := LAL.F_Position (Component_Clause_Node); ranges : constant LAL.Range_Spec := LAL.F_Range (Component_Clause_Node); begin Log ("id: " & id.Debug_Text); Log ("position: " & position.Debug_Text); Log ("ranges: " & ranges.Debug_Text); end; end case; end Process_Ada_Component_Clause_Range; procedure Process_Ada_Component_Def_Range (This : in out Class; -- Node : in LAL.Stmt'Class; Node : in LAL.Ada_Node'Class) is Parent_Name : constant String := Module_Name; Module_Name : constant String := Parent_Name & ".Process_Component_Def_Range"; package Logging is new Generic_Logging (Module_Name); use Logging; -- Auto : Logging.Auto_Logger; -- Logs BEGIN and END -- Will raise Constraint_Error if Node.Kind is not in Ada_Stmt: Kind : constant LALCO.Ada_Component_Def_Range := Node.Kind; use LALCO; -- For subtype names in case stmt begin -- Process_Ada_Component_Def_Range case Kind is when Ada_Component_Def => declare Component_Def_Node : constant LAL.Component_Def := LAL.As_Component_Def (Node); Has_Aliased : constant Boolean := LAL.F_Has_Aliased (Component_Def_Node); Has_Constant : constant Boolean := LAL.F_Has_Constant (Component_Def_Node); begin Log ("Has_Aliased: " & Boolean'Image (Has_Aliased)); Log ("Has_Constant: " & Boolean'Image (Has_Constant)); end; end case; end Process_Ada_Component_Def_Range; procedure Process_Ada_Constraint (This : in out Class; -- Node : in LAL.Stmt'Class; Node : in LAL.Ada_Node'Class) is Parent_Name : constant String := Module_Name; Module_Name : constant String := Parent_Name & ".Process_Constraint"; package Logging is new Generic_Logging (Module_Name); use Logging; -- Auto : Logging.Auto_Logger; -- Logs BEGIN and END -- Will raise Constraint_Error if Node.Kind is not in Ada_Stmt: Kind : constant LALCO.Ada_Constraint := Node.Kind; use LALCO; -- For subtype names in case stmt begin -- Process_Ada_Constraint case Kind is when Ada_Delta_Constraint => declare Delta_Constraint_Node : constant LAL.Delta_Constraint := LAL.As_Delta_Constraint (Node); Digit : constant LAL.Expr := LAL.F_Digits (Delta_Constraint_Node); ranges : constant LAL.Range_Spec := LAL.F_Range (Delta_Constraint_Node); begin Log ("Digit: " & Digit.Debug_Text); Log ("ranges: " & ranges.Debug_Text); end; when Ada_Digits_Constraint => declare Digits_Constraint_Node : constant LAL.Digits_Constraint := LAL.As_Digits_Constraint (Node); Digit : constant LAL.Expr := LAL.F_Digits (Digits_Constraint_Node); ranges : constant LAL.Range_Spec := LAL.F_Range (Digits_Constraint_Node); begin Log ("Digit: " & Digit.Debug_Text); Log ("ranges: " & ranges.Debug_Text); end; when Ada_Discriminant_Constraint => declare Discriminant_Constraint_Node : constant LAL.Discriminant_Constraint := LAL.As_Discriminant_Constraint (Node); constraints : constant LAL.Assoc_List := LAL.F_Constraints (Discriminant_Constraint_Node); begin Log ("constraints: " & constraints.Debug_Text); end; when Ada_Index_Constraint => declare Index_Constraint_Node : constant LAL.Index_Constraint := LAL.As_Index_Constraint (Node); constraints : constant LAL.Constraint_List := LAL.F_Constraints (Index_Constraint_Node); begin Log ("constraints: " & constraints.Debug_Text); end; when Ada_Range_Constraint => declare Range_Constraint_Node : constant LAL.Range_Constraint := LAL.As_Range_Constraint (Node); ranges : constant LAL.Range_Spec := LAL.F_Range (Range_Constraint_Node); begin Log ("Range: " & ranges.Debug_Text); end; end case; end Process_Ada_Constraint; procedure Process_Ada_Constant_Node (This : in out Class; -- Node : in LAL.Stmt'Class; Node : in LAL.Ada_Node'Class) is Parent_Name : constant String := Module_Name; Module_Name : constant String := Parent_Name & ".Process_Constant_Node"; package Logging is new Generic_Logging (Module_Name); use Logging; -- Auto : Logging.Auto_Logger; -- Logs BEGIN and END -- Will raise Constant_Node_Error if Node.Kind is not in Ada_Stmt: Kind : constant LALCO.Ada_Constant_Node := Node.Kind; use LALCO; -- For subtype names in case stmt begin -- Process_Ada_Constant_Node case Kind is when Ada_Constant_Absent => declare Constant_Absent_Node : constant LAL.Constant_Absent := LAL.As_Constant_Absent (Node); begin NULL; end; when Ada_Constant_Present => declare Constant_Present_Node : constant LAL.Constant_Present := LAL.As_Constant_Present (Node); begin NULL; end; end case; end Process_Ada_Constant_Node; procedure Process_Ada_Declarative_Part_Range (This : in out Class; -- Node : in LAL.Stmt'Class; Node : in LAL.Ada_Node'Class) is Parent_Name : constant String := Module_Name; Module_Name : constant String := Parent_Name & ".Process_Declarative_Part_Range"; package Logging is new Generic_Logging (Module_Name); use Logging; -- Auto : Logging.Auto_Logger; -- Logs BEGIN and END -- Will raise Declarative_Part_Error if Node.Kind is not in Ada_Stmt: Kind : constant LALCO.Ada_Declarative_Part_Range := Node.Kind; use LALCO; -- For subtype names in case stmt begin -- Process_Ada_Declarative_Part_Range case Kind is when Ada_Declarative_Part => declare Declarative_Part_Node : constant LAL.Declarative_Part := LAL.As_Declarative_Part (Node); decls : constant LAL.Ada_Node_List := LAL.F_Decls (Declarative_Part_Node); begin Log ("decls: " & decls.Debug_Text); end; when Ada_Private_Part => declare Private_Part_Node : constant LAL.Private_Part := LAL.As_Private_Part (Node); begin NULL; end; when Ada_Public_Part => declare Public_Part_Node : constant LAL.Public_Part := LAL.As_Public_Part (Node); begin NULL; end; end case; end Process_Ada_Declarative_Part_Range; procedure Process_Ada_Elsif_Expr_Part_Range (This : in out Class; -- Node : in LAL.Stmt'Class; Node : in LAL.Ada_Node'Class) is Parent_Name : constant String := Module_Name; Module_Name : constant String := Parent_Name & ".Process_Elsif_Expr_Part_Range"; package Logging is new Generic_Logging (Module_Name); use Logging; -- Auto : Logging.Auto_Logger; -- Logs BEGIN and END -- Will raise Declarative_Part_Error if Node.Kind is not in Ada_Stmt: Kind : constant LALCO.Ada_Elsif_Expr_Part_Range := Node.Kind; use LALCO; -- For subtype names in case stmt begin -- Process_Ada_Elsif_Expr_Part_Range case Kind is when Ada_Elsif_Expr_Part => declare Elsif_Expr_Part_Node : constant LAL.Elsif_Expr_Part := LAL.As_Elsif_Expr_Part (Node); Cond_Expr : constant LAL.Expr := LAL.F_Cond_Expr (Elsif_Expr_Part_Node); Then_Expr : constant LAL.Expr := LAL.F_Then_Expr (Elsif_Expr_Part_Node); begin Log ("Cond_Expr: " & Cond_Expr.Debug_Text); Log ("Then_Expr: " & Then_Expr.Debug_Text); end; end case; end Process_Ada_Elsif_Expr_Part_Range; procedure Process_Ada_Elsif_Stmt_Part_Range (This : in out Class; -- Node : in LAL.Stmt'Class; Node : in LAL.Ada_Node'Class) is Parent_Name : constant String := Module_Name; Module_Name : constant String := Parent_Name & ".Process_Elsif_Stmt_Part_Range"; package Logging is new Generic_Logging (Module_Name); use Logging; -- Auto : Logging.Auto_Logger; -- Logs BEGIN and END -- Will raise Declarative_Part_Error if Node.Kind is not in Ada_Stmt: Kind : constant LALCO.Ada_Elsif_Stmt_Part_Range := Node.Kind; use LALCO; -- For subtype names in case stmt begin -- Process_Ada_Elsif_Stmt_Part_Range case Kind is when Ada_Elsif_Stmt_Part => declare Elsif_Stmt_Part_Node : constant LAL.Elsif_Stmt_Part := LAL.As_Elsif_Stmt_Part (Node); Cond_Expr : constant LAL.Expr := LAL.F_Cond_Expr (Elsif_Stmt_Part_Node); Stmts : constant LAL.Stmt_List := LAL.F_Stmts (Elsif_Stmt_Part_Node); begin Log ("Cond_Expr: " & Cond_Expr.Debug_Text); Log ("Stmts: " & Stmts.Debug_Text); end; end case; end Process_Ada_Elsif_Stmt_Part_Range; procedure Process_Ada_Expr (This : in out Class; -- Node : in LAL.Stmt'Class; Node : in LAL.Ada_Node'Class) is Parent_Name : constant String := Module_Name; Module_Name : constant String := Parent_Name & ".Process_Ada_Expr"; package Logging is new Generic_Logging (Module_Name); use Logging; -- Auto : Logging.Auto_Logger; -- Logs BEGIN and END -- Will raise Constraint_Error if Node.Kind is not in Ada_Stmt: Kind : constant LALCO.Ada_Expr := Node.Kind; use LALCO; -- For subtype names in case stmt begin -- Process_Ada_Expr case Kind is when Ada_Allocator => declare Allocator_Node : constant LAL.Allocator := LAL.As_Allocator (Node); Subpool : constant LAL.Name := LAL.F_Subpool (Allocator_Node); Type_Or_Expr : constant LAL.Ada_Node := LAL.F_Type_Or_Expr (Allocator_Node); Get_Allocated_Type : constant LAL.Base_Type_Decl := LAL.P_Get_Allocated_Type (Allocator_Node); begin if not Subpool.Is_Null then Log ("Subpool: " & Subpool.Debug_Text); end if; if not Type_Or_Expr.Is_Null then Log ("Type_Or_Expr: " & Type_Or_Expr.Debug_Text); end if; if not Get_Allocated_Type.Is_Null then Log ("Get_Allocated_Type: " & Get_Allocated_Type.Debug_Text); end if; end; when Ada_Aggregate => declare Aggregate_Node : constant LAL.Aggregate := LAL.As_Aggregate (Node); begin NULL; end; when Ada_Null_Record_Aggregate => declare Null_Record_Aggregate_Node : constant LAL.Null_Record_Aggregate := LAL.As_Null_Record_Aggregate (Node); begin NULL; end; when Ada_Bin_Op => declare Bin_Op_Node : constant LAL.Bin_Op := LAL.As_Bin_Op (Node); Left : constant LAL.Expr := LAL.F_Left (Bin_Op_Node); Op : constant LAL.Op := LAL.F_Op (Bin_Op_Node); Right : constant LAL.Expr := LAL.F_Right (Bin_Op_Node); begin Log ("Left: " & Left.Debug_Text); Log ("Op: " & Op.Debug_Text); Log ("Right: " & Right.Debug_Text); end; when Ada_Relation_Op => declare Relation_Op_Node : constant LAL.Relation_Op := LAL.As_Relation_Op (Node); begin NULL; end; when Ada_Box_Expr => declare Box_Expr_Node : constant LAL.Box_Expr := LAL.As_Box_Expr (Node); begin NULL; end; when Ada_Case_Expr => declare Case_Expr_Node : constant LAL.Case_Expr := LAL.As_Case_Expr (Node); Expr : constant LAL.Expr := LAL.F_Expr (Case_Expr_Node); Cases : constant LAL.Case_Expr_Alternative_List := LAL.F_Cases (Case_Expr_Node); begin Log ("Expr: " & Expr.Debug_Text); Log ("Cases: " & Cases.Debug_Text); end; when Ada_Case_Expr_Alternative => declare Case_Expr_Alternative_Node : constant LAL.Case_Expr_Alternative := LAL.As_Case_Expr_Alternative (Node); choices : constant LAL.Alternatives_List := LAL.F_Choices (Case_Expr_Alternative_Node); expr : constant LAL.Expr := LAL.F_Expr (Case_Expr_Alternative_Node); begin Log ("choices: " & choices.Debug_Text); Log ("expr: " & expr.Debug_Text); end; when Ada_Contract_Cases => declare Contract_Cases_Node : constant LAL.Contract_Cases := LAL.As_Contract_Cases (Node); contract_cases : constant LAL.Contract_Case_Assoc_List := LAL.F_Contract_Cases (Contract_Cases_Node); begin Log ("contract_cases: " & contract_cases.Debug_Text); end; when Ada_If_Expr => declare If_Expr_Node : constant LAL.If_Expr := LAL.As_If_Expr (Node); Cond_Expr : constant LAL.Expr := LAL.F_Cond_Expr (If_Expr_Node); Then_Expr : constant LAL.Expr := LAL.F_Then_Expr (If_Expr_Node); Alternatives : constant LAL.Elsif_Expr_Part_List := LAL.F_Alternatives (If_Expr_Node); Else_Expr : constant LAL.Expr := LAL.F_Else_Expr (If_Expr_Node); begin Log ("Cond_Expr: " & Cond_Expr.Debug_Text); Log ("Then_Expr: " & Then_Expr.Debug_Text); Log ("Alternatives: " & Alternatives.Debug_Text); if not Else_Expr.Is_Null then Log ("Else_Expr: " & Else_Expr.Debug_Text); end if; end; when Ada_Membership_Expr => declare Membership_Expr_Node : constant LAL.Membership_Expr := LAL.As_Membership_Expr (Node); Expr : constant LAL.Expr := LAL.F_Expr (Membership_Expr_Node); Op : constant LAL.Op := LAL.F_Op (Membership_Expr_Node); Membership_Exprs : constant LAL.Expr_Alternatives_List := LAL.F_Membership_Exprs (Membership_Expr_Node); begin Log ("Expr: " & Expr.Debug_Text); Log ("Op: " & Op.Debug_Text); Log ("Membership_Exprs: " & Membership_Exprs.Debug_Text); end; when Ada_Attribute_Ref => declare Attribute_Ref_Node : constant LAL.Attribute_Ref := LAL.As_Attribute_Ref (Node); Prefix : constant LAL.Name := LAL.F_Prefix (Attribute_Ref_Node); Attribute : constant LAL.Identifier := LAL.F_Attribute (Attribute_Ref_Node); Args : constant LAL.Ada_Node := LAL.F_Args (Attribute_Ref_Node); begin Log ("Prefix: " & Prefix.Debug_Text); Log ("Attribute: " & Attribute.Debug_Text); if not Args.Is_Null then Log ("Args: " & Args.Debug_Text); end if; end; when Ada_Update_Attribute_Ref => declare Update_Attribute_Ref_Node : constant LAL.Update_Attribute_Ref := LAL.As_Update_Attribute_Ref (Node); begin NULL; end; when Ada_Call_Expr => declare Call_Expr_Node : constant LAL.Call_Expr := LAL.As_Call_Expr (Node); Name : constant LAL.Name := LAL.F_Name (Call_Expr_Node); Suffix : constant LAL.Ada_Node := LAL.F_Suffix (Call_Expr_Node); -- Is_Array_Slice : constant Boolean := LAL.P_Is_Array_Slice (Call_Expr_Node); begin Log ("Name: " & Name.Debug_Text); Log ("Suffix: " & Suffix.Debug_Text); -- Log ("Is_Array_Slice: " & Boolean'Image(Is_Array_Slice)); end; when Ada_Defining_Name => declare Defining_Name_Node : constant LAL.Defining_Name := LAL.As_Defining_Name (Node); begin NULL; end; when Ada_Discrete_Subtype_Name => declare Discrete_Subtype_Name_Node : constant LAL.Discrete_Subtype_Name := LAL.As_Discrete_Subtype_Name (Node); Sub_Type : constant LAL.Discrete_Subtype_Indication := LAL.F_Subtype (Discrete_Subtype_Name_Node); begin Log ("Sub_Type: " & Sub_Type.Debug_Text); end; when Ada_Dotted_Name => declare Dotted_Name_Node : constant LAL.Dotted_Name := LAL.As_Dotted_Name (Node); Prefix : constant LAL.Name := LAL.F_Prefix (Dotted_Name_Node); Suffix : constant LAL.Base_Id := LAL.F_Suffix (Dotted_Name_Node); begin Log ("Prefix: " & Prefix.Debug_Text); Log ("Suffix: " & Suffix.Debug_Text); end; when Ada_End_Name => declare End_Name_Node : constant LAL.End_Name := LAL.As_End_Name (Node); Name : constant LAL.Name := LAL.F_Name (End_Name_Node); Basic_Decl : constant LAL.Basic_Decl := LAL.P_Basic_Decl (End_Name_Node); begin Log ("Name: " & Name.Debug_Text); Log ("Basic_Decl: " & Basic_Decl.Debug_Text); end; when Ada_Explicit_Deref => declare Explicit_Deref_Node : constant LAL.Explicit_Deref := LAL.As_Explicit_Deref (Node); Prefix : constant LAL.Name := LAL.F_Prefix (Explicit_Deref_Node); begin Log ("Prefix: " & Prefix.Debug_Text); end; when Ada_Qual_Expr => declare Qual_Expr_Node : constant LAL.Qual_Expr := LAL.As_Qual_Expr (Node); Prefix : constant LAL.Name := LAL.F_Prefix (Qual_Expr_Node); Suffix : constant LAL.Expr := LAL.F_Suffix (Qual_Expr_Node); begin Log ("Prefix: " & Prefix.Debug_Text); Log ("Suffix: " & Suffix.Debug_Text); end; when Ada_Char_Literal => declare Char_Literal_Node : constant LAL.Char_Literal := LAL.As_Char_Literal (Node); -- Denoted_Value : constant LALCO.Character_Type := LAL.P_Denoted_Value (Char_Literal_Node); begin -- Log ("Denoted_Value: " & Denoted_Value.Debug_Text); NULL; end; when Ada_Identifier => declare Identifier_Node : constant LAL.Identifier := LAL.As_Identifier (Node); begin NULL; end; when Ada_Op_Abs => declare Op_Abs_Node : constant LAL.Op_Abs := LAL.As_Op_Abs (Node); begin NULL; end; when Ada_Op_And => declare Op_And_Node : constant LAL.Op_And := LAL.As_Op_And (Node); begin NULL; end; when Ada_Op_And_Then => declare Op_And_Then_Node : constant LAL.Op_And_Then := LAL.As_Op_And_Then (Node); begin NULL; end; when Ada_Op_Concat => declare Op_Concat_Node : constant LAL.Op_Concat := LAL.As_Op_Concat (Node); begin NULL; end; when Ada_Op_Div => declare Op_Div_Node : constant LAL.Op_Div := LAL.As_Op_Div (Node); begin NULL; end; when Ada_Op_Double_Dot => declare Op_Double_Dot_Node : constant LAL.Op_Double_Dot := LAL.As_Op_Double_Dot (Node); begin NULL; end; when Ada_Op_Eq => declare Op_Eq_Node : constant LAL.Op_Eq := LAL.As_Op_Eq (Node); begin NULL; end; when Ada_Op_Gt => declare Op_Gt_Node : constant LAL.Op_Gt := LAL.As_Op_Gt (Node); begin NULL; end; when Ada_Op_Gte => declare Op_Gte_Node : constant LAL.Op_Gte := LAL.As_Op_Gte (Node); begin NULL; end; when Ada_Op_In => declare Op_In_Node : constant LAL.Op_In := LAL.As_Op_In (Node); begin NULL; end; when Ada_Op_Lt => declare Op_Lt_Node : constant LAL.Op_Lt := LAL.As_Op_Lt (Node); begin NULL; end; when Ada_Op_Lte => declare Op_Lte_Node : constant LAL.Op_Lte := LAL.As_Op_Lte (Node); begin NULL; end; when Ada_Op_Minus => declare Op_Minus_Node : constant LAL.Op_Minus := LAL.As_Op_Minus (Node); begin NULL; end; when Ada_Op_Mod => declare Op_Mod_Node : constant LAL.Op_Mod := LAL.As_Op_Mod (Node); begin NULL; end; when Ada_Op_Mult => declare Op_Mult_Node : constant LAL.Op_Mult := LAL.As_Op_Mult (Node); begin NULL; end; when Ada_Op_Neq => declare Op_Neq_Node : constant LAL.Op_Neq := LAL.As_Op_Neq (Node); begin NULL; end; when Ada_Op_Not => declare Op_Not_Node : constant LAL.Op_Not := LAL.As_Op_Not (Node); begin NULL; end; when Ada_Op_Not_In => declare Op_Not_In_Node : constant LAL.Op_Not_In := LAL.As_Op_Not_In (Node); begin NULL; end; when Ada_Op_Or => declare Op_Or_Node : constant LAL.Op_Or := LAL.As_Op_Or (Node); begin NULL; end; when Ada_Op_Or_Else => declare Op_Or_Else_Node : constant LAL.Op_Or_Else := LAL.As_Op_Or_Else (Node); begin NULL; end; when Ada_Op_Plus => declare Op_Plus_Node : constant LAL.Op_Plus := LAL.As_Op_Plus (Node); begin NULL; end; when Ada_Op_Pow => declare Op_Pow_Node : constant LAL.Op_Pow := LAL.As_Op_Pow (Node); begin NULL; end; when Ada_Op_Rem => declare Op_Rem_Node : constant LAL.Op_Rem := LAL.As_Op_Rem (Node); begin NULL; end; when Ada_Op_Xor => declare Op_Xor_Node : constant LAL.Op_Xor := LAL.As_Op_Xor (Node); begin NULL; end; when Ada_String_Literal => declare String_Literal_Node : constant LAL.String_Literal := LAL.As_String_Literal (Node); -- Denoted_Value : constant LALCO.Stringacter_Type := LAL.P_Denoted_Value (String_Literal_Node); begin -- Log ("Denoted_Value: " & Denoted_Value.Debug_Text); NULL; end; when Ada_Null_Literal => declare Null_Literal_Node : constant LAL.Null_Literal := LAL.As_Null_Literal (Node); begin NULL; end; when Ada_Int_Literal => declare Int_Literal_Node : constant LAL.Int_Literal := LAL.As_Int_Literal (Node); -- Denoted_Value : constant LALCO.Big_Integer := LAL.P_Denoted_Value (Int_Literal_Node); begin -- Log ("Denoted_Value: " & Denoted_Value.Debug_Text); NULL; end; when Ada_Real_Literal => declare Real_Literal_Node : constant LAL.Real_Literal := LAL.As_Real_Literal (Node); begin NULL; end; when Ada_Target_Name => declare Target_Name_Node : constant LAL.Target_Name := LAL.As_Target_Name (Node); begin NULL; end; when Ada_Paren_Expr => declare Paren_Expr_Node : constant LAL.Paren_Expr := LAL.As_Paren_Expr (Node); Expr : constant LAL.Expr := LAL.F_Expr (Paren_Expr_Node); begin Log ("Expr: " & Expr.Debug_Text); end; when Ada_Quantified_Expr => declare Quantified_Expr_Node : constant LAL.Quantified_Expr := LAL.As_Quantified_Expr (Node); Quantifier : constant LAL.Quantifier := LAL.F_Quantifier (Quantified_Expr_Node); Loop_Spec : constant LAL.For_Loop_Spec := LAL.F_Loop_Spec (Quantified_Expr_Node); Expr : constant LAL.Expr := LAL.F_Expr (Quantified_Expr_Node); begin Log ("Quantifier: " & Quantifier.Debug_Text); Log ("Loop_Spec: " & Loop_Spec.Debug_Text); Log ("Expr: " & Expr.Debug_Text); end; when Ada_Raise_Expr => declare Raise_Expr_Node : constant LAL.Raise_Expr := LAL.As_Raise_Expr (Node); Exception_Name : constant LAL.Name := LAL.F_Exception_Name (Raise_Expr_Node); Error_Message : constant LAL.Expr := LAL.F_Error_Message (Raise_Expr_Node); begin Log ("Exception_Name: " & Exception_Name.Debug_Text); Log ("Error_Message: " & Error_Message.Debug_Text); end; when Ada_Un_Op => declare Un_Op_Node : constant LAL.Un_Op := LAL.As_Un_Op (Node); Op : constant LAL.Op := LAL.F_Op (Un_Op_Node); begin Log ("Op: " & Op.Debug_Text); end; end case; end Process_Ada_Expr; procedure Process_Ada_Handled_Stmts_Range (This : in out Class; -- Node : in LAL.Stmt'Class; Node : in LAL.Ada_Node'Class) is Parent_Name : constant String := Module_Name; Module_Name : constant String := Parent_Name & ".Process_Handled_Stmts_Range"; package Logging is new Generic_Logging (Module_Name); use Logging; -- Auto : Logging.Auto_Logger; -- Logs BEGIN and END -- Will raise Declarative_Part_Error if Node.Kind is not in Ada_Stmt: Kind : constant LALCO.Ada_Handled_Stmts_Range := Node.Kind; use LALCO; -- For subtype names in case stmt begin -- Process_Ada_Handled_Stmts_Range case Kind is when Ada_Handled_Stmts => declare Handled_Stmts_Node : constant LAL.Handled_Stmts := LAL.As_Handled_Stmts (Node); Stmts : constant LAL.Stmt_List := LAL.F_Stmts (Handled_Stmts_Node); Exceptions : constant LAL.Ada_Node_List := LAL.F_Exceptions (Handled_Stmts_Node); begin Log ("Stmts: " & Stmts.Debug_Text); Log ("Exceptions: " & Exceptions.Debug_Text); end; end case; end Process_Ada_Handled_Stmts_Range; procedure process_ada_interface_kind (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_Handled_Stmts_Range"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_interface_kind := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_interface_kind case kind is when ada_interface_kind_limited => declare interface_kind_limited_Node : constant LAL.interface_kind_limited := LAL.As_interface_kind_limited (Node); begin NULL; end; when ada_interface_kind_protected => declare interface_kind_protected_Node : constant LAL.interface_kind_protected := LAL.As_interface_kind_protected (Node); begin NULL; end; when ada_interface_kind_synchronized => declare interface_kind_synchronized_Node : constant LAL.interface_kind_synchronized := LAL.As_interface_kind_synchronized (Node); begin NULL; end; when ada_interface_kind_task => declare interface_kind_task_Node : constant LAL.interface_kind_task := LAL.As_interface_kind_task (Node); begin NULL; end; end case; end process_ada_interface_kind; procedure process_ada_Iter_Type (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_Iter_Type"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_Iter_Type := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_Iter_Type case kind is when ada_Iter_Type_In => declare Iter_Type_In_Node : constant LAL.Iter_Type_In := LAL.As_Iter_Type_In (Node); begin NULL; end; when ada_Iter_Type_Of => declare Iter_Type_Of_Node : constant LAL.Iter_Type_Of := LAL.As_Iter_Type_Of (Node); begin NULL; end; end case; end process_ada_Iter_Type; procedure process_ada_Library_Item_Range (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_Library_Item_Range"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_Library_Item_Range := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_Library_Item_Range case kind is when ada_Library_Item => declare Library_Item_Node : constant LAL.Library_Item := LAL.As_Library_Item (Node); Has_Private : constant Boolean := LAL.F_Has_Private (Library_Item_Node); item : constant LAL.Basic_Decl := LAL.F_Item (Library_Item_Node); begin Log ("Has_Private: " & Boolean'Image (Has_Private)); Log ("item: " & item.Debug_Text); end; this.add_not_implemented; end case; end process_ada_Library_Item_Range; procedure process_ada_Limited_Node (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_Library_Item_Range"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_Limited_Node := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_Limited_Node case kind is when ada_Limited_Absent => declare Limited_Absent_Node : constant LAL.Limited_Absent := LAL.As_Limited_Absent (Node); begin NULL; end; this.add_not_implemented; when ada_Limited_Present => declare Limited_Present_Node : constant LAL.Limited_Present := LAL.As_Limited_Present (Node); begin NULL; end; this.add_not_implemented; end case; end process_ada_Limited_Node; procedure process_ada_Loop_Spec (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_Loop_Spec"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_Loop_Spec := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_Loop_Spec case kind is when ada_For_Loop_Spec => declare For_Loop_Spec_Node : constant LAL.For_Loop_Spec := LAL.As_For_Loop_Spec (Node); Has_Reverse : constant Boolean := LAL.F_Has_Reverse (For_Loop_Spec_Node); var_decl : constant LAL.For_Loop_Var_Decl := LAL.F_Var_Decl (For_Loop_Spec_Node); loop_type : constant LAL.Iter_Type := LAL.F_Loop_Type (For_Loop_Spec_Node); begin Log ("F_Has_Reverse: " & Boolean'Image (Has_Reverse)); Log ("var_decl: " & var_decl.Debug_Text); Log ("loop_type: " & loop_type.Debug_Text); end; this.add_not_implemented; when ada_While_Loop_Spec => declare While_Loop_Spec_Node : constant LAL.While_Loop_Spec := LAL.As_While_Loop_Spec (Node); expr : constant LAL.Expr := LAL.F_Expr (While_Loop_Spec_Node); begin Log ("expr: " & expr.Debug_Text); end; this.add_not_implemented; end case; end process_ada_Loop_Spec; procedure process_ada_Mode (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_Mode"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_Mode := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_Mode case kind is when ada_Mode_Default => declare Mode_Default_Node : constant LAL.Mode_Default := LAL.As_Mode_Default (Node); begin NULL; end; this.add_not_implemented; when ada_Mode_In => declare Mode_In_Node : constant LAL.Mode_In := LAL.As_Mode_In (Node); begin NULL; end; this.add_not_implemented; when ada_Mode_In_Out => declare Mode_In_Out_Node : constant LAL.Mode_In_Out := LAL.As_Mode_In_Out (Node); begin NULL; end; this.add_not_implemented; when ada_Mode_Out => declare Mode_Out_Node : constant LAL.Mode_Out := LAL.As_Mode_Out (Node); begin NULL; end; this.add_not_implemented; end case; end process_ada_Mode; procedure process_ada_Not_Null (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_Not_Null"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_Not_Null := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_Not_Null case kind is when ada_Not_Null_Absent => declare Not_Null_Absent_Node : constant LAL.Not_Null_Absent := LAL.As_Not_Null_Absent (Node); begin NULL; end; this.add_not_implemented; when ada_Not_Null_Present => declare Not_Null_Present_Node : constant LAL.Not_Null_Present := LAL.As_Not_Null_Present (Node); begin NULL; end; this.add_not_implemented; end case; end process_ada_Not_Null; procedure process_ada_Null_Component_Decl_Range (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_Null_Component_Decl_Range"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_Null_Component_Decl_Range := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_Null_Component_Decl_Range case kind is when ada_Null_Component_Decl => declare Null_Component_Decl_Node : constant LAL.Null_Component_Decl := LAL.As_Null_Component_Decl (Node); begin NULL; end; this.add_not_implemented; end case; end process_ada_Null_Component_Decl_Range; procedure process_ada_Others_Designator_Range (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_Others_Designator_Range"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_Others_Designator_Range := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_Others_Designator_Range case kind is when ada_Others_Designator => declare Others_Designator_Node : constant LAL.Others_Designator := LAL.As_Others_Designator (Node); begin NULL; end; this.add_not_implemented; end case; end process_ada_Others_Designator_Range; procedure process_ada_Overriding_Node (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_Overriding_Node"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_Overriding_Node := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_Overriding_Node case kind is when ada_Overriding_Not_Overriding => declare Overriding_Not_Overriding_Node : constant LAL.Overriding_Not_Overriding := LAL.As_Overriding_Not_Overriding (Node); begin NULL; end; this.add_not_implemented; when ada_Overriding_Overriding => declare Overriding_Overriding_Node : constant LAL.Overriding_Overriding := LAL.As_Overriding_Overriding (Node); begin NULL; end; this.add_not_implemented; when ada_Overriding_Unspecified => declare Overriding_Unspecified_Node : constant LAL.Overriding_Unspecified := LAL.As_Overriding_Unspecified (Node); begin NULL; end; this.add_not_implemented; end case; end process_ada_Overriding_Node; procedure process_ada_Params_Range (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_Params_Range"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_Params_Range := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_Params_Range case kind is when ada_Params => declare Params_Node : constant LAL.Params := LAL.As_Params (Node); params : constant LAL.Param_Spec_List := LAL.F_Params (Params_Node); begin Log ("params: " & params.Debug_Text); end; this.add_not_implemented; end case; end process_ada_Params_Range; procedure process_ada_Pragma_Node_Range (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_Pragma_Node_Range"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_Pragma_Node_Range := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_Pragma_Node_Range case kind is when ada_Pragma_Node => declare Pragma_Node_Node : constant LAL.Pragma_Node := LAL.As_Pragma_Node (Node); id : constant LAL.Identifier := LAL.F_Id (Pragma_Node_Node); args : constant LAL.Base_Assoc_List := LAL.F_Args (Pragma_Node_Node); -- associated_Decls : constant LAL.Basic_Decl_Array := LAL.P_Associated_Decls (Pragma_Node_Node); begin Log ("id: " & id.Debug_Text); Log ("args: " & args.Debug_Text); -- Log ("associated_Decls: " & associated_Decls.Debug_Text); end; this.add_not_implemented; end case; end process_ada_Pragma_Node_Range; procedure process_ada_Prim_Type_Accessor_Range (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_Prim_Type_Accessor_Range"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_Prim_Type_Accessor_Range := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_Prim_Type_Accessor_Range case kind is when ada_Prim_Type_Accessor => declare Prim_Type_Accessor_Node : constant LAL.Prim_Type_Accessor := LAL.As_Prim_Type_Accessor (Node); begin NULL; end; this.add_not_implemented; end case; end process_ada_Prim_Type_Accessor_Range; procedure process_ada_Private_Node (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_Private_Node"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_Private_Node := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_Private_Node case kind is when ada_Private_Absent => declare Private_Absent_Node : constant LAL.Private_Absent := LAL.As_Private_Absent (Node); begin NULL; end; this.add_not_implemented; when ada_Private_Present => declare Private_Present_Node : constant LAL.Private_Present := LAL.As_Private_Present (Node); begin NULL; end; this.add_not_implemented; end case; end process_ada_Private_Node; procedure process_ada_Protected_Node (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_Protected_Node"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_Protected_Node := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_Protected_Node case kind is when ada_Protected_Absent => declare Protected_Absent_Node : constant LAL.Protected_Absent := LAL.As_Protected_Absent (Node); begin NULL; end; this.add_not_implemented; when ada_Protected_Present => declare Protected_Present_Node : constant LAL.Protected_Present := LAL.As_Protected_Present (Node); begin NULL; end; this.add_not_implemented; end case; end process_ada_Protected_Node; procedure process_ada_Protected_Def_Range (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_Protected_Def_Range"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_Protected_Def_Range := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_Protected_Def_Range case kind is when ada_Protected_Def => declare Protected_Def_Node : constant LAL.Protected_Def := LAL.As_Protected_Def (Node); public_part : constant LAL.Public_Part := LAL.F_Public_Part (Protected_Def_Node); private_part : constant LAL.Private_Part := LAL.F_Private_Part (Protected_Def_Node); end_name : constant LAL.End_Name := LAL.F_End_Name (Protected_Def_Node); begin Log ("public_part: " & public_part.Debug_Text); if not private_part.Is_Null then Log ("private_part: " & private_part.Debug_Text); end if; if not end_name.Is_Null then Log ("end_name: " & end_name.Debug_Text); end if; end; this.add_not_implemented; end case; end process_ada_Protected_Def_Range; procedure process_ada_Quantifier (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_Quantifier"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_Quantifier := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_Quantifier case kind is when ada_Quantifier_All => declare Quantifier_All_Node : constant LAL.Quantifier_All := LAL.As_Quantifier_All (Node); begin NULL; end; this.add_not_implemented; when ada_Quantifier_Some => declare Quantifier_Some_Node : constant LAL.Quantifier_Some := LAL.As_Quantifier_Some (Node); begin NULL; end; this.add_not_implemented; end case; end process_ada_Quantifier; procedure process_ada_Range_Spec_Range (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_Range_Spec_Range"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_Range_Spec_Range := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_Range_Spec_Range case kind is when ada_Range_Spec => declare Range_Spec_Node : constant LAL.Range_Spec := LAL.As_Range_Spec (Node); F_Range : constant LAL.Expr := LAL.F_Range (Range_Spec_Node); begin Log ("F_Range: " & F_Range.Debug_Text); end; this.add_not_implemented; end case; end process_ada_Range_Spec_Range; procedure process_ada_Renaming_Clause_Range (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_Renaming_Clause_Range"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_Renaming_Clause_Range := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_Renaming_Clause_Range case kind is when ada_Renaming_Clause => declare Renaming_Clause_Node : constant LAL.Renaming_Clause := LAL.As_Renaming_Clause (Node); renamed_object : constant LAL.Name := LAL.F_Renamed_Object (Renaming_Clause_Node); begin Log ("renamed_object: " & renamed_object.Debug_Text); end; this.add_not_implemented; when ada_Synthetic_Renaming_Clause => declare Synthetic_Renaming_Clause_Node : constant LAL.Synthetic_Renaming_Clause := LAL.As_Synthetic_Renaming_Clause (Node); begin NULL; end; this.add_not_implemented; end case; end process_ada_Renaming_Clause_Range; procedure process_ada_Reverse_Node (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_Reverse_Node"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_Reverse_Node := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_Reverse_Node case kind is when ada_Reverse_Absent => declare Reverse_Absent_Node : constant LAL.Reverse_Absent := LAL.As_Reverse_Absent (Node); begin NULL; end; this.add_not_implemented; when ada_Reverse_Present => declare Reverse_Present_Node : constant LAL.Reverse_Present := LAL.As_Reverse_Present (Node); begin NULL; end; this.add_not_implemented; end case; end process_ada_Reverse_Node; procedure process_ada_Select_When_Part_Range (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_Select_When_Part_Range"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_Select_When_Part_Range := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_Select_When_Part_Range case kind is when ada_Select_When_Part => declare Select_When_Part_Node : constant LAL.Select_When_Part := LAL.As_Select_When_Part (Node); cond_expr : constant LAL.Expr := LAL.F_Cond_Expr (Select_When_Part_Node); stmts : constant LAL.Stmt_List := LAL.F_Stmts (Select_When_Part_Node); begin if not cond_expr.Is_Null then Log ("cond_expr: " & cond_expr.Debug_Text); end if; if not stmts.Is_Null then Log ("stmts: " & stmts.Debug_Text); end if; end; this.add_not_implemented; end case; end process_ada_Select_When_Part_Range; procedure Process_Ada_Stmt (This : in out Class; -- Node : in LAL.Stmt'Class; Node : in LAL.Ada_Node'Class) is Parent_Name : constant String := Module_Name; Module_Name : constant String := Parent_Name & ".Process_Ada_Stmt"; package Logging is new Generic_Logging (Module_Name); use Logging; -- Auto : Logging.Auto_Logger; -- Logs BEGIN and END -- Will raise Constraint_Error if Node.Kind is not in Ada_Stmt: Kind : constant LALCO.Ada_Stmt := Node.Kind; use LALCO; -- For subtype names in case stmt begin -- Process_Ada_Stmt case Kind is when Ada_Accept_Stmt => declare Accept_Stmt_Node : constant LAL.Accept_Stmt := LAL.As_Accept_Stmt (Node); Name : constant LAL.Identifier := LAL.F_Name (Accept_Stmt_Node); Entry_Index_Expr : constant LAL.Expr := LAL.F_Entry_Index_Expr (Accept_Stmt_Node); Params : constant LAL.Entry_Completion_Formal_Params := LAL.F_Params (Accept_Stmt_Node); begin Log ("Name: " & Name.Debug_Text); if not Entry_Index_Expr.Is_Null then Log ("Entry_Index_Expr: " & Entry_Index_Expr.Debug_Text); end if; Log ("Params: " & Params.Debug_Text); end; This.Add_Not_Implemented; when Ada_Accept_Stmt_With_Stmts => declare Accept_Stmt_With_Stmts_Node : constant LAL.Accept_Stmt_With_Stmts := LAL.As_Accept_Stmt_With_Stmts (Node); Stmts : constant LAL.Handled_Stmts := LAL.F_Stmts (Accept_Stmt_With_Stmts_Node); End_Name : constant LAL.End_Name := LAL.F_End_Name (Accept_Stmt_With_Stmts_Node); begin Log ("Stmts: " & Stmts.Debug_Text); Log ("End_Name: " & End_Name.Debug_Text); end; This.Add_Not_Implemented; when Ada_For_Loop_Stmt => declare For_Loop_Stmt_Node : constant LAL.For_Loop_Stmt := LAL.As_For_Loop_Stmt (Node); begin NULL; end; This.Add_Not_Implemented; when Ada_Loop_Stmt => declare Loop_Stmt_Node : constant LAL.Loop_Stmt := LAL.As_Loop_Stmt (Node); begin NULL; end; This.Add_Not_Implemented; when Ada_While_Loop_Stmt => declare While_Loop_Stmt_Node : constant LAL.While_Loop_Stmt := LAL.As_While_Loop_Stmt (Node); begin NULL; end; This.Add_Not_Implemented; when Ada_Begin_Block => declare Begin_Block_Node : constant LAL.Begin_Block := LAL.As_Begin_Block (Node); Stmt : constant LAL.Handled_Stmts := LAL.F_Stmts (Begin_Block_Node); End_Name : constant LAL.End_Name := LAL.F_End_Name (Begin_Block_Node); begin Log ("Stmt: " & Stmt.Debug_Text); if not End_Name.Is_Null then Log ("End_Name: " & End_Name.Debug_Text); end if; end; This.Add_Not_Implemented; when Ada_Decl_Block => declare Decl_Block_Node : constant LAL.Decl_Block := LAL.As_Decl_Block (Node); Decl : constant LAL.Declarative_Part := LAL.F_Decls (Decl_Block_Node); Stmt : constant LAL.Handled_Stmts := LAL.F_Stmts (Decl_Block_Node); End_Name : constant LAL.End_Name := LAL.F_End_Name (Decl_Block_Node); begin Log ("Decl: " & Decl.Debug_Text); Log ("Stmt: " & Stmt.Debug_Text); if not End_Name.Is_Null then Log ("End_Name: " & End_Name.Debug_Text); end if; end; This.Add_Not_Implemented; when Ada_Case_Stmt => declare Case_Stmt_Node : constant LAL.Case_Stmt := LAL.As_Case_Stmt (Node); Expr : constant LAL.Expr := LAL.F_Expr (Case_Stmt_Node); Alternatives : constant LAL.Case_Stmt_Alternative_List := LAL.F_Alternatives (Case_Stmt_Node); begin Log ("Expr: " & Expr.Debug_Text); Log ("Alternatives: " & Alternatives.Debug_Text); end; This.Add_Not_Implemented; when Ada_Extended_Return_Stmt => declare Extended_Return_Stmt_Node : constant LAL.Extended_Return_Stmt := LAL.As_Extended_Return_Stmt (Node); Decl_Stmt : constant LAL.Extended_Return_Stmt_Object_Decl := LAL.F_Decl (Extended_Return_Stmt_Node); Stmt : constant LAL.Handled_Stmts := LAL.F_Stmts (Extended_Return_Stmt_Node); begin Log ("Decl_Stmt: " & Decl_Stmt.Debug_Text); Log ("Stmt: " & Stmt.Debug_Text); end; This.Add_Not_Implemented; when Ada_If_Stmt => declare If_Stmt_Node : constant LAL.If_Stmt := LAL.As_If_Stmt (Node); Then_Stmt : constant LAL.Stmt_List := LAL.F_Then_Stmts (If_Stmt_Node); Alternative : constant LAL.Elsif_Stmt_Part_List := LAL.F_Alternatives (If_Stmt_Node); Else_Stmt : constant LAL.Stmt_List := LAL.F_Else_Stmts (If_Stmt_Node); begin Log ("Then_Stmt: " & Then_Stmt.Debug_Text); Log ("Alternative: " & Alternative.Debug_Text); Log ("Else_Stmt: " & Else_Stmt.Debug_Text); end; This.Add_Not_Implemented; when Ada_Named_Stmt => declare Named_Stmt_Node : constant LAL.Named_Stmt := LAL.As_Named_Stmt (Node); Decl_Stmt : constant LAL.Named_Stmt_Decl := LAL.F_Decl (Named_Stmt_Node); Stmt : constant LAL.Composite_Stmt := LAL.F_Stmt (Named_Stmt_Node); begin Log ("Decl_Stmt: " & Decl_Stmt.Debug_Text); Log ("Stmt: " & Stmt.Debug_Text); end; This.Add_Not_Implemented; when Ada_Select_Stmt => declare Select_Stmt_Node : constant LAL.Select_Stmt := LAL.As_Select_Stmt (Node); Guards : constant LAL.Select_When_Part_List := LAL.F_Guards (Select_Stmt_Node); Else_Stmt : constant LAL.Stmt_List := LAL.F_Else_Stmts (Select_Stmt_Node); Abort_Stmts : constant LAL.Stmt_List := LAL.F_Abort_Stmts (Select_Stmt_Node); begin Log ("F_Guards: " & Guards.Debug_Text); Log ("F_Else_Stmts: " & Else_Stmt.Debug_Text); Log ("F_Abort_Stmts: " & Abort_Stmts.Debug_Text); end; This.Add_Not_Implemented; when Ada_Error_Stmt => declare Error_Stmt_Node : constant LAL.Error_Stmt := LAL.As_Error_Stmt (Node); begin NULL; end; This.Add_Not_Implemented; when Ada_Abort_Stmt => declare Abort_Stmt_Node : constant LAL.Abort_Stmt := LAL.As_Abort_Stmt (Node); Names : constant LAL.Name_List := LAL.F_Names (Abort_Stmt_Node); begin Log ("F_Names: " & Names.Debug_Text); end; This.Add_Not_Implemented; when Ada_Assign_Stmt => declare Assign_Stmt_Node : constant LAL.Assign_Stmt := LAL.As_Assign_Stmt (Node); Dest : constant LAL.Name := LAL.F_Dest (Assign_Stmt_Node); Expr : constant LAL.Expr := LAL.F_Expr (Assign_Stmt_Node); begin Log ("F_Dest: " & Dest.Debug_Text); Log ("F_Expr: " & Expr.Debug_Text); end; This.Add_Not_Implemented; when Ada_Call_Stmt => declare Call_Stmt_Node : constant LAL.Call_Stmt := LAL.As_Call_Stmt (Node); Call : constant LAL.Name := LAL.F_Call (Call_Stmt_Node); begin Log ("F_Call: " & Call.Debug_Text); end; This.Add_Not_Implemented; when Ada_Delay_Stmt => declare Delay_Stmt_Node : constant LAL.Delay_Stmt := LAL.As_Delay_Stmt (Node); Has_Until : constant Boolean := LAL.F_Has_Until (Delay_Stmt_Node); Seconds : constant LAL.Expr := LAL.F_Expr (Delay_Stmt_Node); begin Log ("F_Has_Until: " & Boolean'Image (Has_Until)); Log ("Seconds: " & Seconds.Debug_Text); end; This.Add_Not_Implemented; when Ada_Exit_Stmt => declare Exit_Stmt_Node : constant LAL.Exit_Stmt := LAL.As_Exit_Stmt (Node); Loop_Name : constant LAL.Identifier := LAL.F_Loop_Name (Exit_Stmt_Node); Cond_Expr : constant LAL.Expr := LAL.F_Cond_Expr (Exit_Stmt_Node); begin if not Loop_Name.Is_Null then Log ("F_Loop_Name: " & Loop_Name.Debug_Text); end if; if not Cond_Expr.Is_Null then Log ("F_Cond_Expr: " & Cond_Expr.Debug_Text); end if; end; This.Add_Not_Implemented; when Ada_Goto_Stmt => declare Goto_Stmt_Node : constant LAL.Goto_Stmt := LAL.As_Goto_Stmt (Node); Label : constant LAL.Name := LAL.F_Label_Name (Goto_Stmt_Node); begin Log ("F_Label_Name: " & Label.Debug_Text); end; This.Add_Not_Implemented; when Ada_Label => declare Label_Node : constant LAL.Label := LAL.As_Label (Node); Label_Decl : constant LAL.Label_Decl := LAL.F_Decl (Label_Node); begin Log ("F_Decl: " & Label_Decl.Debug_Text); end; This.Add_Not_Implemented; when Ada_Null_Stmt => declare Null_Stmt_Node : constant LAL.Null_Stmt := LAL.As_Null_Stmt (Node); begin NULL; end; This.Add_Not_Implemented; when Ada_Raise_Stmt => declare Raise_Stmt_Node : constant LAL.Raise_Stmt := LAL.As_Raise_Stmt (Node); Exception_Name : constant LAL.Name := LAL.F_Exception_Name (Raise_Stmt_Node); Error_Message : constant LAL.Expr := LAL.F_Error_Message (Raise_Stmt_Node); begin Log ("F_Exception_Name: " & Exception_Name.Debug_Text); if not Error_Message.Is_Null then Log ("Error_Message: " & Error_Message.Debug_Text); end if; end; This.Add_Not_Implemented; when Ada_Requeue_Stmt => declare Requeue_Stmt_Node : constant LAL.Requeue_Stmt := LAL.As_Requeue_Stmt (Node); Call_Name : constant LAL.Name := LAL.F_Call_Name (Requeue_Stmt_Node); Has_Abort : constant Boolean := LAL.F_Has_Abort (Requeue_Stmt_Node); begin Log ("F_Call_Name: " & Call_Name.Debug_Text); Log ("F_Has_Abort: " & Boolean'Image (Has_Abort)); end; This.Add_Not_Implemented; when Ada_Return_Stmt => declare Return_Stmt_Node : constant LAL.Return_Stmt := LAL.As_Return_Stmt (Node); Return_Expr : constant LAL.Expr := LAL.F_Return_Expr (Return_Stmt_Node); begin Log ("F_Return_Expr: " & Return_Expr.Debug_Text); end; This.Add_Not_Implemented; when Ada_Terminate_Alternative => declare Terminate_Alternative_Node : constant LAL.Terminate_Alternative := LAL.As_Terminate_Alternative (Node); begin NULL; end; This.Add_Not_Implemented; end case; exception when X : External_Error | Internal_Error | Usage_Error => raise; when X: others => Log_Exception (X); Log ("No handler for this exception. Raising Internal_Error"); raise Internal_Error; end Process_Ada_Stmt; procedure process_ada_Subp_Kind (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_Subp_Kind"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_Subp_Kind := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_Subp_Kind case kind is when ada_Subp_Kind_Function => declare Subp_Kind_Function_Node : constant LAL.Subp_Kind_Function := LAL.As_Subp_Kind_Function (Node); begin NULL; end; when ada_Subp_Kind_Procedure => declare Subp_Kind_Procedure_Node : constant LAL.Subp_Kind_Procedure := LAL.As_Subp_Kind_Procedure (Node); begin NULL; end; end case; end process_ada_Subp_Kind; procedure process_ada_Subunit_Range (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_Subunit_Range"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_Subunit_Range := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_Subunit_Range case kind is when ada_Subunit => declare Subunit_Node : constant LAL.Subunit := LAL.As_Subunit (Node); name : constant LAL.Name := LAL.F_Name (Subunit_Node); f_body : constant LAL.Body_Node := LAL.F_Body (Subunit_Node); body_root : constant LAL.Basic_Decl := LAL.P_Body_Root (Subunit_Node); begin Log ("name: " & name.Debug_Text); Log ("f_body: " & f_body.Debug_Text); Log ("body_root: " & body_root.Debug_Text); end; end case; end process_ada_Subunit_Range; procedure process_ada_Synchronized_Node (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_Synchronized_Node"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_Synchronized_Node := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_Synchronized_Node case kind is when ada_Synchronized_Absent => declare Synchronized_Absent_Node : constant LAL.Synchronized_Absent := LAL.As_Synchronized_Absent (Node); begin NULL; end; when ada_Synchronized_Present => declare Synchronized_Present_Node : constant LAL.Synchronized_Present := LAL.As_Synchronized_Present (Node); begin NULL; end; end case; end process_ada_Synchronized_Node; procedure process_ada_Tagged_Node (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_Tagged_Node"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_Tagged_Node := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_Tagged_Node case kind is when ada_Tagged_Absent => declare Tagged_Absent_Node : constant LAL.Tagged_Absent := LAL.As_Tagged_Absent (Node); begin NULL; end; when ada_Tagged_Present => declare Tagged_Present_Node : constant LAL.Tagged_Present := LAL.As_Tagged_Present (Node); begin NULL; end; end case; end process_ada_Tagged_Node; procedure process_ada_Task_Def_Range (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_Task_Def_Range"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_Task_Def_Range := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_Task_Def_Range case kind is when ada_Task_Def => declare Task_Def_Node : constant LAL.Task_Def := LAL.As_Task_Def (Node); interfaces : constant LAL.Parent_List := LAL.F_Interfaces (Task_Def_Node); public_part : constant LAL.Public_Part := LAL.F_Public_Part (Task_Def_Node); private_part : constant LAL.Private_part := LAL.F_Private_Part (Task_Def_Node); end_name : constant LAL.End_Name := LAL.F_End_Name (Task_Def_Node); begin Log ("interfaces: " & interfaces.Debug_Text); Log ("public_part: " & public_part.Debug_Text); if not private_part.Is_Null then Log ("private_part: " & private_part.Debug_Text); end if; Log ("end_name: " & end_name.Debug_Text); end; end case; end process_ada_Task_Def_Range; procedure process_ada_Type_Def (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_Def_Range"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_Type_Def := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_Type_Def case kind is when ada_Access_To_Subp_Def => declare Access_To_Subp_Def_Node : constant LAL.Access_To_Subp_Def := LAL.As_Access_To_Subp_Def (Node); has_protected : constant Boolean := LAL.F_Has_Protected (Access_To_Subp_Def_Node); sub_spec : constant LAL.Subp_Spec := LAL.F_Subp_Spec (Access_To_Subp_Def_Node); begin Log ("has_protected: " & Boolean'Image(has_protected)); Log ("sub_spec: " & sub_spec.Debug_Text); end; when ada_Anonymous_Type_Access_Def => declare Anonymous_Type_Access_Def_Node : constant LAL.Anonymous_Type_Access_Def := LAL.As_Anonymous_Type_Access_Def (Node); type_decl : constant LAL.Base_Type_Decl := LAL.F_Type_Decl (Anonymous_Type_Access_Def_Node); begin Log ("type_decl: " & type_decl.Debug_Text); end; when ada_Type_Access_Def => declare Type_Access_Def_Node : constant LAL.Type_Access_Def := LAL.As_Type_Access_Def (Node); has_all : constant Boolean := LAL.F_Has_All (Type_Access_Def_Node); has_constant : constant Boolean := LAL.F_Has_Constant (Type_Access_Def_Node); begin Log ("has_all: " & Boolean'Image(has_all)); Log ("has_constant: " & Boolean'Image(has_constant)); end; when ada_Array_Type_Def => declare Array_Type_Def_Node : constant LAL.Array_Type_Def := LAL.As_Array_Type_Def (Node); indices : constant LAL.Array_Indices := LAL.F_Indices (Array_Type_Def_Node); component_type : constant LAL.Component_Def := LAL.F_Component_Type (Array_Type_Def_Node); begin Log ("indices: " & indices.Debug_Text); Log ("component_type: " & component_type.Debug_Text); end; when ada_Derived_Type_Def => declare Derived_Type_Def_Node : constant LAL.Derived_Type_Def := LAL.As_Derived_Type_Def (Node); interfaces : constant LAL.Parent_List := LAL.F_Interfaces (Derived_Type_Def_Node); record_extension : constant LAL.Base_Record_Def := LAL.F_Record_Extension (Derived_Type_Def_Node); has_with_private : constant Boolean := LAL.F_Has_With_Private (Derived_Type_Def_Node); begin if not interfaces.Is_Null then Log ("interfaces: " & interfaces.Debug_Text); end if; if not record_extension.Is_Null then Log ("record_extension: " & record_extension.Debug_Text); end if; Log ("has_with_private: " & Boolean'Image(has_with_private)); end; when ada_Enum_Type_Def => declare Enum_Type_Def_Node : constant LAL.Enum_Type_Def := LAL.As_Enum_Type_Def (Node); enum_literals : constant LAL.Enum_Literal_Decl_List := LAL.F_Enum_Literals (Enum_Type_Def_Node); begin Log ("enum_literals: " & enum_literals.Debug_Text); end; when ada_Formal_Discrete_Type_Def => declare Formal_Discrete_Type_Def_Node : constant LAL.Formal_Discrete_Type_Def := LAL.As_Formal_Discrete_Type_Def (Node); begin NULL; end; when ada_Interface_Type_Def => declare Interface_Type_Def_Node : constant LAL.Interface_Type_Def := LAL.As_Interface_Type_Def (Node); interface_kind : constant LAL.Interface_Kind := LAL.F_Interface_Kind (Interface_Type_Def_Node); begin Log ("interface_kind: " & interface_kind.Debug_Text); end; when ada_Mod_Int_Type_Def => declare Mod_Int_Type_Def_Node : constant LAL.Mod_Int_Type_Def := LAL.As_Mod_Int_Type_Def (Node); expr : constant LAL.Expr := LAL.F_Expr (Mod_Int_Type_Def_Node); begin Log ("expr: " & expr.Debug_Text); end; when ada_Private_Type_Def => declare Private_Type_Def_Node : constant LAL.Private_Type_Def := LAL.As_Private_Type_Def (Node); has_abstract : constant Boolean := LAL.F_Has_Abstract (Private_Type_Def_Node); has_tagged : constant Boolean := LAL.F_Has_Tagged (Private_Type_Def_Node); has_limited : constant Boolean := LAL.F_Has_Limited (Private_Type_Def_Node); begin Log ("has_abstract: " & Boolean'Image(has_abstract)); Log ("has_tagged: " & Boolean'Image(has_tagged)); Log ("has_limited: " & Boolean'Image(has_limited)); end; when ada_Decimal_Fixed_Point_Def => declare Decimal_Fixed_Point_Def_Node : constant LAL.Decimal_Fixed_Point_Def := LAL.As_Decimal_Fixed_Point_Def (Node); f_delta : constant LAL.Expr := LAL.F_Delta (Decimal_Fixed_Point_Def_Node); f_digits : constant LAL.Expr := LAL.F_Digits (Decimal_Fixed_Point_Def_Node); f_range : constant LAL.Range_Spec := LAL.F_Range (Decimal_Fixed_Point_Def_Node); begin Log ("f_delta: " & f_delta.Debug_Text); Log ("f_digits: " & f_digits.Debug_Text); if not f_range.Is_Null then Log ("f_range: " & f_range.Debug_Text); end if; end; when ada_Floating_Point_Def => declare Floating_Point_Def_Node : constant LAL.Floating_Point_Def := LAL.As_Floating_Point_Def (Node); num_digits : constant LAL.Expr := LAL.F_Num_Digits (Floating_Point_Def_Node); f_range : constant LAL.Range_Spec := LAL.F_Range (Floating_Point_Def_Node); begin Log ("num_digits: " & num_digits.Debug_Text); if not f_range.Is_Null then Log ("f_range: " & f_range.Debug_Text); end if; end; when ada_Ordinary_Fixed_Point_Def => declare Ordinary_Fixed_Point_Def_Node : constant LAL.Ordinary_Fixed_Point_Def := LAL.As_Ordinary_Fixed_Point_Def (Node); f_delta : constant LAL.Expr := LAL.F_Delta (Ordinary_Fixed_Point_Def_Node); f_range : constant LAL.Range_Spec := LAL.F_Range (Ordinary_Fixed_Point_Def_Node); begin Log ("f_delta: " & f_delta.Debug_Text); Log ("f_range: " & f_range.Debug_Text); end; when ada_Record_Type_Def => declare Record_Type_Def_Node : constant LAL.Record_Type_Def := LAL.As_Record_Type_Def (Node); has_abstract : constant Boolean := LAL.F_Has_Abstract (Record_Type_Def_Node); has_tagged : constant Boolean := LAL.F_Has_Tagged (Record_Type_Def_Node); has_limited : constant Boolean := LAL.F_Has_Limited (Record_Type_Def_Node); begin Log ("has_abstract: " & Boolean'Image(has_abstract)); Log ("has_tagged: " & Boolean'Image(has_tagged)); Log ("has_limited: " & Boolean'Image(has_limited)); end; when ada_Signed_Int_Type_Def => declare Signed_Int_Type_Def_Node : constant LAL.Signed_Int_Type_Def := LAL.As_Signed_Int_Type_Def (Node); f_range : constant LAL.Range_Spec := LAL.F_Range (Signed_Int_Type_Def_Node); begin Log ("f_range: " & f_range.Debug_Text); end; end case; end process_ada_Type_Def; procedure process_ada_Type_Expr (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_Type_Expr"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_Type_Expr := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_Type_Expr case kind is when ada_Anonymous_Type => declare Anonymous_Type_Node : constant LAL.Anonymous_Type := LAL.As_Anonymous_Type (Node); type_Decl : constant LAL.Anonymous_Type_Decl := LAL.F_Type_Decl (Anonymous_Type_Node); begin Log ("type_Decl: " & type_Decl.Debug_Text); end; when ada_Enum_Lit_Synth_Type_Expr => declare Enum_Lit_Synth_Type_Expr_Node : constant LAL.Enum_Lit_Synth_Type_Expr := LAL.As_Enum_Lit_Synth_Type_Expr (Node); begin NULL; end; when ada_Subtype_Indication => declare Subtype_Indication_Node : constant LAL.Subtype_Indication := LAL.As_Subtype_Indication (Node); has_not_null : constant Boolean := LAL.F_Has_Not_Null (Subtype_Indication_Node); name : constant LAL.Name := LAL.F_Name (Subtype_Indication_Node); constraint : constant LAL.Constraint := LAL.F_Constraint (Subtype_Indication_Node); begin Log ("has_not_null: " & Boolean'Image(has_not_null)); Log ("name: " & name.Debug_Text); if not constraint.Is_Null then Log ("constraint: " & constraint.Debug_Text); end if; end; when ada_Constrained_Subtype_Indication => declare Constrained_Subtype_Indication_Node : constant LAL.Constrained_Subtype_Indication := LAL.As_Constrained_Subtype_Indication (Node); begin NULL; end; when ada_Discrete_Subtype_Indication => declare Discrete_Subtype_Indication_Node : constant LAL.Discrete_Subtype_Indication := LAL.As_Discrete_Subtype_Indication (Node); begin NULL; end; end case; end process_ada_Type_Expr; procedure process_ada_Unconstrained_Array_Index_Range (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_Unconstrained_Array_Index_Range"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_Unconstrained_Array_Index_Range := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_Unconstrained_Array_Index_Range case kind is when ada_Unconstrained_Array_Index => declare Unconstrained_Array_Index_Node : constant LAL.Unconstrained_Array_Index := LAL.As_Unconstrained_Array_Index (Node); begin NULL; end; end case; end process_ada_Unconstrained_Array_Index_Range; procedure process_ada_Until_Node (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_Until_Node"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_Until_Node := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_Until_Node case kind is when ada_Until_Absent => declare Until_Absent_Node : constant LAL.Until_Absent := LAL.As_Until_Absent (Node); begin NULL; end; when ada_Until_Present => declare Until_Present_Node : constant LAL.Until_Present := LAL.As_Until_Present (Node); begin NULL; end; end case; end process_ada_Until_Node; procedure process_ada_Use_Clause (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_Use_Clause"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_Use_Clause := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_Use_Clause case kind is when ada_Use_Package_Clause => declare Use_Package_Clause_Node : constant LAL.Use_Package_Clause := LAL.As_Use_Package_Clause (Node); packages : constant LAL.Name_List := LAL.F_Packages (Use_Package_Clause_Node); begin Log ("packages: " & packages.Debug_Text); end; when ada_Use_Type_Clause => declare Use_Type_Clause_Node : constant LAL.Use_Type_Clause := LAL.As_Use_Type_Clause (Node); has_all : constant Boolean := LAL.F_Has_All (Use_Type_Clause_Node); types : constant LAL.Name_List := LAL.F_Types (Use_Type_Clause_Node); begin Log ("has_all: " & Boolean'Image(has_all)); Log ("types: " & types.Debug_Text); end; end case; end process_ada_Use_Clause; procedure process_ada_Variant_Range (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_Variant_Range"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_Variant_Range := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_Variant_Range case kind is when ada_Variant => declare Variant_Node : constant LAL.Variant := LAL.As_Variant (Node); choices : constant LAL.Alternatives_List := LAL.F_Choices (Variant_Node); components : constant LAL.Component_List := LAL.F_Components (Variant_Node); begin Log ("choices: " & choices.Debug_Text); Log ("components: " & components.Debug_Text); end; end case; end process_ada_Variant_Range; procedure process_ada_Variant_Part_Range (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_Variant_Part_Range"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_Variant_Part_Range := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_Variant_Part_Range case kind is when ada_Variant_Part => declare Variant_Part_Node : constant LAL.Variant_Part := LAL.As_Variant_Part (Node); discr_name : constant LAL.Identifier := LAL.F_Discr_Name (Variant_Part_Node); variant : constant LAL.Variant_List := LAL.F_Variant (Variant_Part_Node); begin Log ("discr_name: " & discr_name.Debug_Text); Log ("variant: " & variant.Debug_Text); end; end case; end process_ada_Variant_Part_Range; procedure process_ada_With_Clause_Range (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_With_Clause_Range"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_With_Clause_Range := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_With_Clause_Range case kind is when ada_With_Clause => declare With_Clause_Node : constant LAL.With_Clause := LAL.As_With_Clause (Node); packages : constant LAL.Name_List := LAL.F_Packages (With_Clause_Node); has_private : constant Boolean := LAL.F_Has_Private (With_Clause_Node); has_limited : constant Boolean := LAL.F_Has_Limited (With_Clause_Node); begin Log ("packages: " & packages.Debug_Text); Log ("has_private: " & Boolean'Image(has_private)); Log ("has_limited: " & Boolean'Image(has_limited)); end; end case; end process_ada_With_Clause_Range; procedure process_ada_With_Private (this : in out class; -- node : in lal.stmt'class; node : in lal.ada_node'class) is parent_name : constant string := module_name; module_name : constant string := parent_name & ".process_With_Private"; package logging is new generic_logging (module_name); use logging; -- auto : logging.auto_logger; -- logs begin and end -- will raise declarative_part_error if node.kind is not in ada_stmt: kind : constant lalco.ada_With_Private := node.kind; use lalco; -- for subtype names in case stmt begin -- process_ada_With_Private case kind is when ada_With_Private_Absent => declare With_Private_Absent_Node : constant LAL.With_Private_Absent := LAL.As_With_Private_Absent (Node); begin NULL; end; when ada_With_Private_Present => declare With_Private_Present_Node : constant LAL.With_Private_Present := LAL.As_With_Private_Present (Node); begin NULL; end; end case; end process_ada_With_Private; -- Do_Pre_Child_Processing and Do_Post_Child_Processing below are preserved -- from Asis_Adapter for familiarity. -- -- Asis_Adapter.Unit.Process indirectly calls Asis_Adapter.Element. -- Process_Element_Tree, which calls an instance of generic -- Asis.Iterator.Traverse_Element, instantiated with -- Do_Pre_Child_Processing and Do_Post_Child_Processing. -- -- Lal_Adapter.Unit.Process indirectly calls LAL.Compilation_Unit.Traverse -- with a pointer that indrectly calls Lal_Adapter.Node.Process, which calls -- Do_Pre_Child_Processing and Do_Post_Child_Processing. procedure Do_Pre_Child_Processing (This : in out Class; Node : in LAL.Ada_Node'Class) is Parent_Name : constant String := Module_Name; Module_Name : constant String := Parent_Name & ".Do_Pre_Child_Processing"; package Logging is new Generic_Logging (Module_Name); use Logging; -- Auto : Logging.Auto_Logger; -- Logs BEGIN and END Result : a_nodes_h.Element_Struct renames This.A_Element; Sloc_Range_Image : constant string := Slocs.Image (Node.Sloc_Range); Kind : constant LALCO.Ada_Node_Kind_Type := Node.Kind; Kind_Image : constant String := LALCO.Ada_Node_Kind_Type'Image (Kind); Kind_Name : constant String := Node.Kind_Name; Debug_Text : constant String := Node.Debug_Text; procedure Add_Element_ID is begin -- ID is in the Dot node twice (once in the Label and once in -- Node_ID), but not in the a_node twice. This.Add_To_Dot_Label (To_String (This.Element_IDs.First_Element)); Result.id := This.Element_IDs.First_Element; end; procedure Add_Node_Kind is begin This.Add_To_Dot_Label ("Node_Kind", Kind_Image); -- TODO: Result.Element_Kind := anhS.To_Element_Kinds (Element_Kind); end; procedure Add_Source_Location is Unit : constant LAL.Analysis_Unit := Node.Unit; File_Name : constant String := Unit.Get_Filename; Sloc_Range : constant Slocs.Source_Location_Range := Node.Sloc_Range; Image : constant String := To_String (Node.Full_Sloc_Image); begin This.Add_To_Dot_Label ("Source", Image); Result.Source_Location := (Unit_Name => To_Chars_Ptr (File_Name), First_Line => Interfaces.C.int (Sloc_Range.Start_Line), First_Column => Interfaces.C.int (Sloc_Range.Start_Column), Last_Line => Interfaces.C.int (Sloc_Range.End_Line), Last_Column => Interfaces.C.int (Sloc_Range.End_Column)); end; procedure Add_Enclosing_Element is Value : constant a_nodes_h.Element_ID := -- Get_Element_ID (Node.P_Semantic_Parent); Get_Element_ID (Node.Parent); begin -- State.Add_Dot_Edge (From => Enclosing_Element_Id, -- To => State.Element_Id, -- Label => "Child"); This.Add_To_Dot_Label ("Enclosing_Element", Value); Result.Enclosing_Element_Id := Value; end; procedure Start_Output is Default_Node : Dot.Node_Stmt.Class; -- Initialized Default_Label : Dot.HTML_Like_Labels.Class; -- Initialized -- Parent_Name : constant String := Module_Name; -- Module_Name : constant String := Parent_Name & ".Start_Output"; -- package Logging is new Generic_Logging (Module_Name); use Logging; -- Auto : Logging.Auto_Logger; -- Logs BEGIN and END begin -- Start_Output -- Set defaults: Result := a_nodes_h.Support.Default_Element_Struct; This.Outputs.Text.End_Line; -- Element ID comes out on next line via Add_Element_ID: This.Outputs.Text.Put_Indented_Line (String'("BEGIN ")); This.Outputs.Text.Indent; This.Dot_Node := Default_Node; This.Dot_Label := Default_Label; -- Get ID: This.Element_IDs.Prepend (Get_Element_ID (Node)); -- Log ( " Elem ID: " & To_String(Get_Element_ID (Node))); This.Dot_Node.Node_ID.ID := To_Dot_ID_Type (This.Element_IDs.First_Element, Element_ID_Kind); -- Result.Debug_Image := Debug_Image; -- Put_Debug; Add_Element_ID; Add_Node_Kind; Add_Enclosing_Element; Add_Source_Location; end Start_Output; procedure Finish_Output is -- Parent_Name : constant String := Module_Name; -- Module_Name : constant String := Parent_Name & ".Finish_Output"; -- package Logging is new Generic_Logging (Module_Name); use Logging; -- Auto : Logging.Auto_Logger; -- Logs BEGIN and END begin This.Dot_Node.Add_Label (This.Dot_Label); This.Outputs.Graph.Append_Stmt (new Dot.Node_Stmt.Class'(This.Dot_Node)); -- Depends on unique node ids: This.Outputs.A_Nodes.Push (Result); end Finish_Output; use LALCO; -- For subtype names in case stmt -- use type LALCO.Ada_Node_Kind_Type; -- For "=" begin -- Do_Pre_Child_Processing -- Log ("Line" & Start_Line_Image & ": " & Kind_Image & ": " & Debug_Text); -- if Node.Kind /= LALCO.Ada_Compilation_Unit then Log ("Kind enum: " & Kind_Image & "; Kind name: " & Kind_Name & " at " & Sloc_Range_Image); Start_Output; -- Log (LAL.Image(Node)); -- if Kind in LALCO.Ada_Stmt then -- Log ("Statement"); -- else -- Log ("NOT a statement"); -- end if; -- case Kind is -- 3 included kinds: when Ada_Abort_Node'First .. Ada_Abort_Node'Last => This.Process_Ada_Abort_Node (Node); -- 3 included kinds: when Ada_Abstract_Node'First .. Ada_Abstract_Node'Last => This.Process_Ada_Abstract_Node (Node); -- 30 included kinds: when Ada_Ada_List'First .. Ada_Ada_List'Last => This.Process_Ada_Ada_List (Node); -- 3 included kinds: when Ada_Aliased_Node'First .. Ada_Aliased_Node'Last => This.Process_Ada_Aliased_Node (Node); -- 3 included kinds: when Ada_All_Node'First .. Ada_All_Node'Last => This.Process_Ada_All_Node (Node); -- 3 included kinds: when Ada_Array_Indices'First .. Ada_Array_Indices'Last => This.Process_Ada_Array_Indices (Node); -- 1 included kinds: when Ada_Aspect_Assoc_Range'First .. Ada_Aspect_Assoc_Range'Last => This.Process_Ada_Aspect_Assoc_Range (Node); -- 5 included kinds: when Ada_Aspect_Clause'First .. Ada_Aspect_Clause'Last => This.Process_Ada_Aspect_Clause (Node); -- 2 included kinds: when Ada_Aspect_Spec_Range'First .. Ada_Aspect_Spec_Range'Last => this.process_ada_aspect_spec_range (node); -- 3 included kinds: when Ada_Base_Assoc'First .. Ada_Base_Assoc'Last => this.process_ada_Base_Assoc (node); -- 3 included kinds: when Ada_Base_Formal_Param_Holder'First .. Ada_Base_Formal_Param_Holder'Last => this.process_ada_Base_Formal_Param_Holder (node); -- 3 included kinds: when Ada_Base_Record_Def'First .. Ada_Base_Record_Def'Last => this.process_ada_Base_Record_Def (node); -- 5 included kinds: when Ada_Basic_Assoc'First .. Ada_Basic_Assoc'Last => this.process_ada_Basic_Assoc (node); -- 74 included kinds: when Ada_Basic_Decl'First .. Ada_Basic_Decl'Last => This.Process_Ada_Basic_Decl (Node); -- 1 included kinds: when Ada_Case_Stmt_Alternative_Range'First .. Ada_Case_Stmt_Alternative_Range'Last => This.Process_Ada_Case_Stmt_Alternative_Range (Node); -- 1 included kinds: when Ada_Compilation_Unit_Range'First .. Ada_Compilation_Unit_Range'Last => This.Process_Ada_Compilation_Unit_Range (Node); -- 1 included kinds: when Ada_Component_Clause_Range'First .. Ada_Component_Clause_Range'Last => This.Process_Ada_Component_Clause_Range (Node); -- 1 included kinds: when Ada_Component_Def_Range'First .. Ada_Component_Def_Range'Last => This.Process_Ada_Component_Def_Range (Node); -- 6 included kinds: when Ada_Constraint'First .. Ada_Constraint'Last => This.Process_Ada_Constraint (Node); -- 3 included kinds: when Ada_Constant_Node'First .. Ada_Constant_Node'Last => This.Process_Ada_Constant_Node (Node); -- 3 included kinds: when Ada_Declarative_Part_Range'First .. Ada_Declarative_Part_Range'Last => This.Process_Ada_Declarative_Part_Range (Node); -- 1 included kinds: when Ada_Elsif_Expr_Part_Range'First .. Ada_Elsif_Expr_Part_Range'Last => This.Process_Ada_Elsif_Expr_Part_Range (Node); -- 1 included kinds: when Ada_Elsif_Stmt_Part_Range'First .. Ada_Elsif_Stmt_Part_Range'Last => This.Process_Ada_Elsif_Stmt_Part_Range (Node); -- 60 included kinds: when Ada_Expr'First .. Ada_Expr'Last => This.Process_Ada_Expr (Node); -- 1 included kinds: when Ada_Handled_Stmts_Range'First .. Ada_Handled_Stmts_Range'Last => This.Process_Ada_Handled_Stmts_Range (Node); -- 5 included kinds: when Ada_Interface_Kind'First .. Ada_Interface_Kind'Last => This.Process_Ada_Interface_Kind (Node); -- 3 included kinds: when Ada_Iter_Type'First .. Ada_Iter_Type'Last => This.Process_Ada_Iter_Type (Node); -- 2 included kinds: when Ada_Library_Item_Range'First .. Ada_Library_Item_Range'Last => This.Process_Ada_Library_Item_Range (Node); -- 3 included kinds: when Ada_Limited_Node'First .. Ada_Limited_Node'Last => This.Process_Ada_Limited_Node (Node); -- 3 included kinds: when Ada_Loop_Spec'First .. Ada_Loop_Spec'Last => This.Process_Ada_Loop_Spec (Node); -- 3 included kinds: when Ada_Mode'First .. Ada_Mode'Last => This.Process_Ada_Mode (Node); -- 3 included kinds: when Ada_Not_Null'First .. Ada_Not_Null'Last => This.Process_Ada_Not_Null (Node); -- 2 included kinds: when Ada_Null_Component_Decl_Range'First .. Ada_Null_Component_Decl_Range'Last => This.Process_Ada_Null_Component_Decl_Range (Node); -- 2 included kinds: when Ada_Others_Designator_Range'First .. Ada_Others_Designator_Range'Last => This.Process_Ada_Others_Designator_Range (Node); -- 4 included kinds: when Ada_Overriding_Node'First .. Ada_Overriding_Node'Last => This.Process_Ada_Overriding_Node (Node); -- 4 included kinds: when Ada_Params_Range'First .. Ada_Params_Range'Last => This.Process_Ada_Params_Range (Node); -- 4 included kinds: when Ada_Pragma_Node_Range'First .. Ada_Pragma_Node_Range'Last => This.Process_Ada_Pragma_Node_Range (Node); -- 4 included kinds: when Ada_Prim_Type_Accessor_Range'First .. Ada_Prim_Type_Accessor_Range'Last => This.Process_Ada_Prim_Type_Accessor_Range (Node); -- 4 included kinds: when Ada_Private_Node'First .. Ada_Private_Node'Last => This.Process_Ada_Private_Node (Node); -- 4 included kinds: when Ada_Protected_Node'First .. Ada_Protected_Node'Last => This.Process_Ada_Protected_Node (Node); -- 4 included kinds: when Ada_Protected_Def_Range'First .. Ada_Protected_Def_Range'Last => This.Process_Ada_Protected_Def_Range (Node); -- 3 included kinds: when Ada_Quantifier'First .. Ada_Quantifier'Last => This.Process_Ada_Quantifier (Node); -- 2 included kinds: when Ada_Range_Spec_Range'First .. Ada_Range_Spec_Range'Last => This.Process_Ada_Range_Spec_Range (Node); -- 3 included kinds: when Ada_Renaming_Clause_Range'First .. Ada_Renaming_Clause_Range'Last => This.Process_Ada_Renaming_Clause_Range (Node); -- 3 included kinds: when Ada_Reverse_Node'First .. Ada_Reverse_Node'Last => This.Process_Ada_Reverse_Node (Node); -- 2 included kinds: when Ada_Select_When_Part_Range'First .. Ada_Select_When_Part_Range'Last => This.Process_Ada_Select_When_Part_Range (Node); -- 31 (25?) included kinds: when Ada_Stmt'First .. Ada_Stmt'Last => -- Log ("Tag: " & Ada.Tags.Expanded_Name (Node'Tag)); -- This.Process_Ada_Stmt (LAL.Stmt'Class (Node), Outputs); This.Process_Ada_Stmt (Node); -- 3 included kinds: when Ada_Subp_Kind'First .. Ada_Subp_Kind'Last => This.Process_Ada_Subp_Kind (Node); -- 2 included kinds: when Ada_Subunit_Range'First .. Ada_Subunit_Range'Last => This.Process_Ada_Subunit_Range (Node); -- 3 included kinds: when Ada_Synchronized_Node'First .. Ada_Synchronized_Node'Last => This.Process_Ada_Synchronized_Node (Node); -- 3 included kinds: when Ada_Tagged_Node'First .. Ada_Tagged_Node'Last => This.Process_Ada_Tagged_Node (Node); -- 2 included kinds: when Ada_Task_Def_Range'First .. Ada_Task_Def_Range'Last => This.Process_Ada_Task_Def_Range (Node); -- 17 included kinds: when Ada_Type_Def'First .. Ada_Type_Def'Last => This.Process_Ada_Type_Def (Node); -- 5 included kinds: when Ada_Type_Expr'First .. Ada_Type_Expr'Last => This.Process_Ada_Type_Expr (Node); -- 2 included kinds: when Ada_Unconstrained_Array_Index_Range'First .. Ada_Unconstrained_Array_Index_Range'Last => This.Process_Ada_Unconstrained_Array_Index_Range (Node); -- 3 included kinds: when Ada_Until_Node'First .. Ada_Until_Node'Last => This.Process_Ada_Until_Node (Node); -- 3 included kinds: when Ada_Use_Clause'First .. Ada_Use_Clause'Last => This.Process_Ada_Use_Clause (Node); -- 2 included kinds: when Ada_Variant_Range'First .. Ada_Variant_Range'Last => This.Process_Ada_Variant_Range (Node); -- 2 included kinds: when Ada_Variant_Part_Range'First .. Ada_Variant_Part_Range'Last => This.Process_Ada_Variant_Part_Range (Node); -- 2 included kinds: when Ada_With_Clause_Range'First .. Ada_With_Clause_Range'Last => This.Process_Ada_With_Clause_Range (Node); -- 3 included kinds: when Ada_With_Private'First .. Ada_With_Private'Last => This.Process_Ada_With_Private (Node); -- when Ada_Abort_Node'First .. Ada_Abort_Node'Last => -- This.Add_Not_Implemented; -- when Ada_Abstract_Node'First .. Ada_Abstract_Node'Last => -- This.Add_Not_Implemented; -- when Ada_Ada_List'First .. Ada_Ada_List'Last => -- This.Add_Not_Implemented; -- when Ada_Aliased_Node'First .. Ada_Aliased_Node'Last => -- This.Add_Not_Implemented; -- when Ada_All_Node'First .. Ada_All_Node'Last => -- This.Add_Not_Implemented; -- when Ada_Array_Indices'First .. Ada_Array_Indices'Last => -- This.Add_Not_Implemented; -- when Ada_Aspect_Assoc_Range'First .. Ada_Aspect_Assoc_Range'Last => -- This.Add_Not_Implemented; -- when Ada_Aspect_Clause'First .. Ada_Aspect_Clause'Last => -- This.Add_Not_Implemented; -- when Ada_Aspect_Spec_Range'First .. Ada_Aspect_Spec_Range'Last => -- This.Add_Not_Implemented; -- when Ada_Base_Assoc'First .. Ada_Base_Assoc'Last => -- This.Add_Not_Implemented; -- when Ada_Base_Formal_Param_Holder'First .. Ada_Base_Formal_Param_Holder'Last => -- This.Add_Not_Implemented; -- when Ada_Base_Record_Def'First .. Ada_Base_Record_Def'Last => -- This.Add_Not_Implemented; -- when Ada_Basic_Assoc'First .. Ada_Basic_Assoc'Last => -- This.Add_Not_Implemented; -- Moved to top: -- when Ada_Basic_Decl'First .. Ada_Basic_Decl'Last => -- when Ada_Case_Stmt_Alternative_Range'First .. Ada_Case_Stmt_Alternative_Range'Last => -- This.Add_Not_Implemented; -- when Ada_Compilation_Unit_Range'First .. Ada_Compilation_Unit_Range'Last => -- This.Add_Not_Implemented; -- when Ada_Component_Clause_Range'First .. Ada_Component_Clause_Range'Last => -- This.Add_Not_Implemented; -- when Ada_Component_Def_Range'First .. Ada_Component_Def_Range'Last => -- This.Add_Not_Implemented; -- when Ada_Constraint'First .. Ada_Constraint'Last => -- This.Add_Not_Implemented; -- when Ada_Constant_Node'First .. Ada_Constant_Node'Last => -- This.Add_Not_Implemented; -- when Ada_Declarative_Part_Range'First .. Ada_Declarative_Part_Range'Last => -- This.Add_Not_Implemented; -- when Ada_Elsif_Expr_Part_Range'First .. Ada_Elsif_Expr_Part_Range'Last => -- This.Add_Not_Implemented; -- when Ada_Elsif_Stmt_Part_Range'First .. Ada_Elsif_Stmt_Part_Range'Last => -- This.Add_Not_Implemented; -- Moved to top: -- when Ada_Expr'First .. Ada_Expr'Last => -- when Ada_Handled_Stmts_Range'First .. Ada_Handled_Stmts_Range'Last => -- This.Add_Not_Implemented; -- when Ada_Interface_Kind'First .. Ada_Interface_Kind'Last => -- This.Add_Not_Implemented; -- when Ada_Iter_Type'First .. Ada_Iter_Type'Last => -- This.Add_Not_Implemented; -- when Ada_Library_Item_Range'First .. Ada_Library_Item_Range'Last => -- This.Add_Not_Implemented; -- when Ada_Limited_Node'First .. Ada_Limited_Node'Last => -- This.Add_Not_Implemented; -- when Ada_Loop_Spec'First .. Ada_Loop_Spec'Last => -- This.Add_Not_Implemented; -- when Ada_Mode'First .. Ada_Mode'Last => -- This.Add_Not_Implemented; -- when Ada_Not_Null'First .. Ada_Not_Null'Last => -- This.Add_Not_Implemented; -- when Ada_Null_Component_Decl_Range'First .. Ada_Null_Component_Decl_Range'Last => -- This.Add_Not_Implemented; -- when Ada_Others_Designator_Range'First .. Ada_Others_Designator_Range'Last => -- This.Add_Not_Implemented; -- when Ada_Overriding_Node'First .. Ada_Overriding_Node'Last => -- This.Add_Not_Implemented; -- when Ada_Params_Range'First .. Ada_Params_Range'Last => -- This.Add_Not_Implemented; -- when Ada_Pragma_Node_Range'First .. Ada_Pragma_Node_Range'Last => -- This.Add_Not_Implemented; -- when Ada_Prim_Type_Accessor_Range'First .. Ada_Prim_Type_Accessor_Range'Last => -- This.Add_Not_Implemented; -- when Ada_Private_Node'First .. Ada_Private_Node'Last => -- This.Add_Not_Implemented; -- when Ada_Protected_Node'First .. Ada_Protected_Node'Last => -- This.Add_Not_Implemented; -- when Ada_Protected_Def_Range'First .. Ada_Protected_Def_Range'Last => -- This.Add_Not_Implemented; -- when Ada_Quantifier'First .. Ada_Quantifier'Last => -- This.Add_Not_Implemented; -- when Ada_Range_Spec_Range'First .. Ada_Range_Spec_Range'Last => -- This.Add_Not_Implemented; -- when Ada_Renaming_Clause_Range'First .. Ada_Renaming_Clause_Range'Last => -- This.Add_Not_Implemented; -- when Ada_Reverse_Node'First .. Ada_Reverse_Node'Last => -- This.Add_Not_Implemented; -- when Ada_Select_When_Part_Range'First .. Ada_Select_When_Part_Range'Last => -- This.Add_Not_Implemented; -- when Ada_Subp_Kind'First .. Ada_Subp_Kind'Last => -- This.Add_Not_Implemented; -- when Ada_Subunit_Range'First .. Ada_Subunit_Range'Last => -- This.Add_Not_Implemented; -- Moved to top: -- when Ada_Stmt'First .. Ada_Stmt'Last => -- when Ada_Synchronized_Node'First .. Ada_Synchronized_Node'Last => -- This.Add_Not_Implemented; -- when Ada_Tagged_Node'First .. Ada_Tagged_Node'Last => -- This.Add_Not_Implemented; -- Moved to top: -- when Ada_Type_Def'First .. Ada_Type_Def'Last => -- when Ada_Task_Def_Range'First .. Ada_Task_Def_Range'Last => -- This.Add_Not_Implemented; -- when Ada_Type_Expr'First .. Ada_Type_Expr'Last => -- This.Add_Not_Implemented; -- when Ada_Unconstrained_Array_Index_Range'First .. Ada_Unconstrained_Array_Index_Range'Last => -- This.Add_Not_Implemented; -- when Ada_Until_Node'First .. Ada_Until_Node'Last => -- This.Add_Not_Implemented; -- when Ada_Use_Clause'First .. Ada_Use_Clause'Last => -- This.Add_Not_Implemented; -- when Ada_Variant_Range'First .. Ada_Variant_Range'Last => -- This.Add_Not_Implemented; -- when Ada_Variant_Part_Range'First .. Ada_Variant_Part_Range'Last => -- This.Add_Not_Implemented; -- when Ada_With_Clause_Range'First .. Ada_With_Clause_Range'Last => -- This.Add_Not_Implemented; -- when Ada_With_Private'First .. Ada_With_Private'Last => -- This.Add_Not_Implemented; end case; Finish_Output; -- end if; exception when X : External_Error | Internal_Error | Usage_Error => raise; when X: others => Log_Exception (X); Log ("No handler for this exception. Raising Internal_Error"); raise Internal_Error; end Do_Pre_Child_Processing; procedure Do_Post_Child_Processing (This : in out Class) is Parent_Name : constant String := Module_Name; Module_Name : constant String := Parent_Name & ".Do_Post_Child_Processing"; package Logging is new Generic_Logging (Module_Name); use Logging; -- Auto : Logging.Auto_Logger; -- Logs BEGIN and END begin -- Do_Post_Child_Processing This.Outputs.Text.End_Line; This.Outputs.Text.Dedent; This.Outputs.Text.Put_Indented_Line (String'("END " & To_String (This.Element_IDs.First_Element))); This.Element_IDs.Delete_First; exception when X : External_Error | Internal_Error | Usage_Error => raise; when X: others => Log_Exception (X); Log ("No handler for this exception. Raising Internal_Error"); raise Internal_Error; end Do_Post_Child_Processing; ------------ -- Exported: ------------ procedure Process (This : in out Class; Node : in LAL.Ada_Node'Class; -- Options : in Options_Record; Outputs : in Output_Accesses_Record) is Parent_Name : constant String := Module_Name; Module_Name : constant String := Parent_Name & ".Process"; package Logging is new Generic_Logging (Module_Name); use Logging; -- Auto : Logging.Auto_Logger; -- Logs BEGIN and END begin This.Outputs := Outputs; Do_Pre_Child_Processing (This, Node); Do_Post_Child_Processing (This); end Process; end Lal_Adapter.Node;