mhurhangee/ep-ind-claims huggingface dataset:
A method of mounting at least one hearing device component inside a hearing device shell, said method comprising the steps of: threading a fixture means through a hole formed in a side wall of the hearing device shell, the fixture means having a first end and a second end, attaching the hearing device component to the second end of the fixture means protruding into an inside of the hearing device shell, manipulating the first end of the fixture means protruding to an outside of the hearing device shell such as to position the hearing device component in a predetermined position, fixing the positioned hearing device component to an inner wall of the hearing device shell, wherein said step of fixing comprises applying adhesive; and after applying the adhesive, cutting off a portion of the fixture means protruding to the outside of the hearing device shell such that a cut-off plane of the remainder of the fixture means is substantially flush with an outer wall of the hearing device shell while a distal end of the remainder of the fixture means still penetrates through at least a part of the hole. threading a fixture means through a hole formed in a side wall of the hearing device shell, the fixture means having a first end and a second end, attaching the hearing device component to the second end of the fixture means protruding into an inside of the hearing device shell, manipulating the first end of the fixture means protruding to an outside of the hearing device shell such as to position the hearing device component in a predetermined position, fixing the positioned hearing device component to an inner wall of the hearing device shell, wherein said step of fixing comprises applying adhesive; and after applying the adhesive, cutting off a portion of the fixture means protruding to the outside of the hearing device shell such that a cut-off plane of the remainder of the fixture means is substantially flush with an outer wall of the hearing device shell while a distal end of the remainder of the fixture means still penetrates through at least a part of the hole.
A generalized integrated DOC-DPF-SCR post-treatment apparatus, comprising a case, a DOC-DPF unit, two SCR units, an urea mixer, and an exhaust pipe, wherein the number of the urea mixer is one or two; the case has a square cross-section; the two SCR units are arranged symmetrically with each other with respect to a diagonal of the square cross-section along which the DOC-DPF unit and the exhaust pipe are arranged; exhaust gas in the DOC-DPF unit is discharged into the urea mixer to form mixed exhaust gas, the mixed exhaust gas in the urea mixer is discharged into the SCR units, and then is discharged into the exhaust pipe after being processed by the SCR units, characterized in that the urea mixer is symmetrically arranged with respect to the diagonal of the square cross-section along which the DOC-DPF unit and the exhaust pipe are arranged, and the urea mixer is arranged between the DOC-DPF unit and the exhaust pipe, the DOC-DPF unit and the exhaust pipe are respectively arranged at two diagonal corners with respect to the square cross-section of the case, an inlet of the exhaust pipe is arranged at a rear end of the case, an exhaust port of the exhaust pipe is arranged on a front end cover of the case, a rear end cover of the case, a bottom wall of the case or a side wall of the case. the number of the urea mixer is one or two; the case has a square cross-section; the two SCR units are arranged symmetrically with each other with respect to a diagonal of the square cross-section along which the DOC-DPF unit and the exhaust pipe are arranged; exhaust gas in the DOC-DPF unit is discharged into the urea mixer to form mixed exhaust gas, the mixed exhaust gas in the urea mixer is discharged into the SCR units, and then is discharged into the exhaust pipe after being processed by the SCR units, characterized in that the urea mixer is symmetrically arranged with respect to the diagonal of the square cross-section along which the DOC-DPF unit and the exhaust pipe are arranged, and the urea mixer is arranged between the DOC-DPF unit and the exhaust pipe, the DOC-DPF unit and the exhaust pipe are respectively arranged at two diagonal corners with respect to the square cross-section of the case, an inlet of the exhaust pipe is arranged at a rear end of the case, an exhaust port of the exhaust pipe is arranged on a front end cover of the case, a rear end cover of the case, a bottom wall of the case or a side wall of the case.
A spring latch for locks, comprising a metallic portion and at least one portion made of plastic material, wherein - said metallic portion forms a central part of said spring latch, - there being two portions (12, 13) made of plastic material, an upper portion and a lower portion, with respect to a configuration for use, - said upper portion and said lower portion protruding outward, with respective external surfaces (14, 15, 16, 17, 18, 19), with respect to corresponding external surfaces (20, 21, 22, 23) of said central metallic portion, and - said upper portion and said lower portion are contoured so as to affect entirely said respective external upper surface and lower surface of the metallic portion, said upper portion and said lower portion being provided with respective guiding ridges (25, 26), which are extended in the direction of translation of said spring latch, and slots with dovetail cross-section being formed on said central metallic portion for mutual fixing of the upper and lower portions (12, 13) to the central metallic portion. - said metallic portion forms a central part of said spring latch, - there being two portions (12, 13) made of plastic material, an upper portion and a lower portion, with respect to a configuration for use, - said upper portion and said lower portion protruding outward, with respective external surfaces (14, 15, 16, 17, 18, 19), with respect to corresponding external surfaces (20, 21, 22, 23) of said central metallic portion, and - said upper portion and said lower portion are contoured so as to affect entirely said respective external upper surface and lower surface of the metallic portion,
A pressure regulator (10, 90) comprising: a housing (12, 14, 100) including an inlet flow passage (24, 106) and an outlet flow passage; a plunger (30, 92) reciprocally mounted in the housing and including a plunger flow passage having an axis offset from an axis of the inlet flow passage; characterised by a stationary valve seat (32, 102) integral with the housing and positioned between the inlet flow passage and an inlet to the flow passage of the plunger, wherein the stationary valve seat is configured to receive and abut the inlet to the flow passage of the plunger. a housing (12, 14, 100) including an inlet flow passage (24, 106) and an outlet flow passage; a plunger (30, 92) reciprocally mounted in the housing and including a plunger flow passage having an axis offset from an axis of the inlet flow passage; characterised by a stationary valve seat (32, 102) integral with the housing and positioned between the inlet flow passage and an inlet to the flow passage of the plunger, wherein the stationary valve seat is configured to receive and abut the inlet to the flow passage of the plunger.
A communication monitoring system configured to monitor communication regarding a network to which a production device is connected, the communication monitoring system comprising: a production data generation unit configured to generate production data representing a condition of production by the production device; a data collection unit (253, 1014, 282) configured to collect communication data representing a condition of communication on the network, and collect the production data; a data analysis unit configured to associate the communication data with the production data that are collected by the data collection unit (253, 1014, 282), in such a manner that the communication data is synchronized with the production data; and a data display unit configured to perform a process for displaying the communication data and the production data that are associated with each other, the data display unit configured to display a communication data graph and a production data graph such that a time indicated on a horizontal axis of the communication data graph is synchronized with a time indicated on a horizontal axis of the production data graph. a production data generation unit configured to generate production data representing a condition of production by the production device; a data collection unit (253, 1014, 282) configured to collect communication data representing a condition of communication on the network, and collect the production data; a data analysis unit configured to associate the communication data with the production data that are collected by the data collection unit (253, 1014, 282), in such a manner that the communication data is synchronized with the production data; and a data display unit configured to perform a process for displaying the communication data and the production data that are associated with each other, the data display unit configured to display a communication data graph and a production data graph such that a time indicated on a horizontal axis of the communication data graph is synchronized with a time indicated on a horizontal axis of the production data graph.
A TNFα blocking agent for use in a method for the treatment of melanoma in a subject wherein said method comprises the steps of i) the expression level of MHCI in melanoma cells is determined in a sample obtained from the subject and the expression level of TNFα in stroma cells is determined in a sample obtained from the subject, ii) the expression levels determined at step i) are compared with predetermined reference values and iii) the subject is administered with a therapeutically effective amount of said TNFα blocking agent when the levels determined at step i) are higher than their predetermined reference value wherein the TNFα blocking agent is selected from the group consisting of anti-TNFα antibodies, anti-TNF-Rl antibodies, and recombinant fusion proteins consisting of two extracellular parts of soluble TNFα receptor 2 joined by the Fc fragment of a human IgG1 molecule.
A last for shaping a shoe upper, the last comprising: a central part formed in advance as a core and constantly held in the solid state; and a peripheral part that is formed on an outer peripheral portion of the central part and that is formed of a plastic material, wherein a portion of the last coming into contact with the shoe upper when the shoe upper is shaped is composed of the plastic material, wherein the plastic material is reversibly transformable between a solid state where the plastic material has a certain shape when the shoe upper is shaped, and a plasticized state where the plastic material has fluidity and is thereby deformable, wherein the plastic material comprises a pulp aggregate in which a plurality of pulp materials are aggregated, and a shaping material for solidifying the pulp aggregate into the certain shape, and the shaping material is configured to be dissolved from the solid state to thereby cause the plastic material to have fluidity, wherein the shaping material is water-soluble. a central part formed in advance as a core and constantly held in the solid state; and a peripheral part that is formed on an outer peripheral portion of the central part and that is formed of a plastic material, wherein a portion of the last coming into contact with the shoe upper when the shoe upper is shaped is composed of the plastic material, wherein the plastic material is reversibly transformable between a solid state where the plastic material has a certain shape when the shoe upper is shaped, and a plasticized state where the plastic material has fluidity and is thereby deformable, wherein the plastic material comprises a pulp aggregate in which a plurality of pulp materials are aggregated, and a shaping material for solidifying the pulp aggregate into the certain shape, and the shaping material is configured to be dissolved from the solid state to thereby cause the plastic material to have fluidity, wherein the shaping material is water-soluble.
Method for managing an active SCR device of an ATS, which is connected to an internal combustion engine to receive an exhaust gas flow from at least one cylinder of said internal combustion engine when fuel is injected and combusted in such cylinder; the method comprising the step of increasing an NH3 storage in the SCR device after an engine shut off command has been detected, such that an increased NH3 storage is ready for a subsequent cold start of the internal combustion engine; wherein the step of increasing the NH3 storage is carried out by injecting a reducing agent in the ATS and by supplying an air flow towards the SCR device; wherein said air flow flows through the cylinder after the fuel injection has been shut off, the method being characterized by at least one of the following options: a) said internal combustion engine comprises a crankshaft coupled to an electric machine comprising a first electric motor; and wherein said air flow is supplied by driving said crankshaft by said first electric motor; b) a turbine is arranged between said internal combustion engine and said ATS, the turbine being mechanically coupled to an electric machine defining a motor-generator; and wherein said air flow is supplied by driving said turbine by said electric machine; c) an intake line is coupled to said internal combustion engine so as to channel air to said cylinder, the intake line being provided with a supercharging compressor coupled to a second electric motor; and wherein said air flow is supplied by driving said supercharging compressor as a blower by said second electric motor. a) said internal combustion engine comprises a crankshaft coupled to an electric machine comprising a first electric motor; and wherein said air flow is supplied by driving said crankshaft by said first electric motor; b) a turbine is arranged between said internal combustion engine and said ATS, the turbine being mechanically coupled to an electric machine defining a motor-generator; and wherein said air flow is supplied by driving said turbine by said electric machine; c) an intake line is coupled to said internal combustion engine so as to channel air to said cylinder, the intake line being provided with a supercharging compressor coupled to a second electric motor; and wherein said air flow is supplied by driving said supercharging compressor as a blower by said second electric motor.
An suction/compression assembly for aspirating/compressing gases from/in a system, said assembly comprising: - an operating machine, which includes a chamber in which operative means are housed for transferring said gas from an intake section to an exhaust section (5") of said chamber; - a four-way valve comprising a seat and flow diverting means housed in said seat, said seat comprising a first opening connectable to said system, a second opening connectable to an external environment, a third opening connected to said intake section by means of an intake pipe and a fourth opening communicating with said exhaust section (5") through an exhaust pipe; - a first body, which defines, in one piece, said chamber of said operating machine, a first portion of said intake pipe and first portion of said exhaust pipe; - a second body, which defines, in one piece, said seat of said four-way valve, a second portion (31") of said intake pipe and a second portion (41") of said exhaust pipe, said first portion of said intake pipe being hydraulically connected to said second portion (31") of said intake pipe and said first portion of said exhaust pipe being hydraulically connected to said second portion (41") of said exhaust pipe, and wherein said assembly comprises a one-way valve arranged within said intake pipe in a position adjacent to said third opening of said seat of said four-way valve, characterised in that said intake pipe comprises a removable part connected to said second portion (31") of said intake pipe, said removable part allowing said one-way valve to be accessed, once removed. - an operating machine, which includes a chamber in which operative means are housed for transferring said gas from an intake section to an exhaust section (5") of said chamber; - a four-way valve comprising a seat and flow diverting means housed in said seat, said seat comprising a first opening connectable to said system, a second opening connectable to an external environment, a third opening connected to said intake section by means of an intake pipe and a fourth opening communicating with said exhaust section (5") through an exhaust pipe; - a first body, which defines, in one piece, said chamber of said operating machine, a first portion of said intake pipe and first portion of said exhaust pipe; - a second body, which defines, in one piece, said seat of said four-way valve, a second portion (31") of said intake pipe and a second portion (41") of said exhaust pipe, said first portion of said intake pipe being hydraulically connected to said second portion (31") of said intake pipe and said first portion of said exhaust pipe being hydraulically connected to said second portion (41") of said exhaust pipe, and wherein said assembly comprises a one-way valve arranged within said intake pipe in a position adjacent to said third opening of said seat of said four-way valve, characterised in that said intake pipe comprises a removable part connected to said second portion (31") of said intake pipe, said removable part allowing said one-way valve to be accessed, once removed.
Method for removing pollutants from a fluid that may be polluted, characterized in that, for a period comprised between 5 and 60 seconds, said fluid is simultaneously or successively subjected to radiation from a first source emitting a light having a narrow wavelength spectrum centred at 280 nm, and at least radiation from a second source emitting a light having a narrow wavelength spectrum centred at 365 nm or emitting a light having a narrow wavelength spectrum centred at 405 nm, said radiation being emitted by light-emitting diodes (LEDs).
A method for fail safe compiling of application data for the execution in a central interlocking processing unit comprising the following steps: a) Providing the source code of the application data, such source code being written in a human user friendly language; b) Providing a checker and translator program so called compiler which checks and translates said source code in an object code, such object or machine code being written in a machine friendly language having a syntax which can be interpreted by the processing unit; And which method is further characterised by the following steps: c) providing a third language for expressing the application data in a so called intermediate code notation, said language having an abstract syntax, particularly an object-oriented syntax which is different from the syntax of the user friendly language and from the machine friendly language; d) providing a second compiler which translates said source code in an intermediate code in the syntax of the said third language; e) providing a decompiler consisting in a translation program which translates said object code in an intermediate code in the syntax of the said third language; f) verifying the compilation process from the source to the object code by comparing the intermediate code generated from the source code by means of the said second compiler and the intermediate code generated from the object code by means of the said decompiler and by defining the application data expressed in the second language as validated if no difference is detected in said comparison. a) Providing the source code of the application data, such source code being written in a human user friendly language; b) Providing a checker and translator program so called compiler which checks and translates said source code in an object code, such object or machine code being written in a machine friendly language having a syntax which can be interpreted by the processing unit; c) providing a third language for expressing the application data in a so called intermediate code notation, said language having an abstract syntax, particularly an object-oriented syntax which is different from the syntax of the user friendly language and from the machine friendly language; d) providing a second compiler which translates said source code in an intermediate code in the syntax of the said third language; e) providing a decompiler consisting in a translation program which translates said object code in an intermediate code in the syntax of the said third language; f) verifying the compilation process from the source to the object code by comparing the intermediate code generated from the source code by means of the said second compiler and the intermediate code generated from the object code by means of the said decompiler and by defining the application data expressed in the second language as validated if no difference is detected in said comparison.
A method for managing the compilation of source code in parallel, comprising: by a parser, accessing the source code, identifying classes contained within the source code, and generating a plurality of Abstract Syntax Trees (130; 215), the plurality of Abstract Syntax Trees being generated in parallel and corresponding to the identified classes; adding further semantic information to each of the plurality of Abstract Syntax Trees to form a plurality of enriched Abstract Syntax Trees; splitting, based on class names of the identified classes, the enriched Abstract Syntax Trees to different modules that form an assembly; creating a compilation thread for each module and allocating the different compilation threads to available processors for performing parallel compilation for each of the different modules and for generating executable code for each of the modules. by a parser, accessing the source code, identifying classes contained within the source code, and generating a plurality of Abstract Syntax Trees (130; 215), the plurality of Abstract Syntax Trees being generated in parallel and corresponding to the identified classes; adding further semantic information to each of the plurality of Abstract Syntax Trees to form a plurality of enriched Abstract Syntax Trees; splitting, based on class names of the identified classes, the enriched Abstract Syntax Trees to different modules that form an assembly; creating a compilation thread for each module and allocating the different compilation threads to available processors for performing parallel compilation for each of the different modules and for generating executable code for each of the modules.