mhurhangee/ep-ind-claims huggingface dataset:
Stereolithographic method for making a three-dimensional object through the superimposition of a succession of layers obtained from a liquid material suited to be solidified following exposure to predefined radiation, particularly a laser beam, said method comprising the operation of defining a geometric representation of each layer (1, 2, 3, 4, 5) of said succession of layers, and further comprising the following sequence of operations, carried out for at least one reference layer of said succession of layers: - selecting one or more layers preceding said reference layer according to said succession of layers; - defining a first mask area corresponding to the logical conjunction of the geometric representations of said reference layer and of said one or more layers reproduced on the plane of said reference layer; - exposing said liquid material to said predefined radiation in said first mask area; characterized in that said sequence of operations comprises, before the operation of defining said first mask area, the operation of modifying the geometric representations of said one or more layers in such a way as to extend them with corresponding additional portions that project with respect to the geometric representations of the respective layers as configured before said modification, wherein said additional portions are defined in such a way as to compensate for the reduced solidifying effect of said predefined radiation on said liquid material due to the penetration of said predefined radiation in said liquid material down to the depths corresponding to said one or more layers, so that the outline of the portion of said three-dimensional object obtained following the solidification of said group of layers approximates more precisely the outline of said three-dimensional object compared to that which would be obtained in the absence of said additional portions. - selecting one or more layers preceding said reference layer according to said succession of layers; - defining a first mask area corresponding to the logical conjunction of the geometric representations of said reference layer and of said one or more layers reproduced on the plane of said reference layer; - exposing said liquid material to said predefined radiation in said first mask area;
A mobile communication network component comprising: a memory configured to store information indicating whether network slice-specific re-authentication and re-authorization is to be performed for a mobile terminal; a determiner configured to determine, based on the stored information, whether for a mobile terminal a network slice-specific re-authentication and re-authorization is to be performed; and a controller configured to initiate a network slice-specific re-authentication and re-authorization if the determiner determines that a network slice-specific re-authentication and re-authorization is to be performed; characterised in that the determiner is configured determine whether network slice-specific re-authentication and re-authorization is to be performed for the mobile terminal based on a location of the mobile terminal. a memory configured to store information indicating whether network slice-specific re-authentication and re-authorization is to be performed for a mobile terminal; a determiner configured to determine, based on the stored information, whether for a mobile terminal a network slice-specific re-authentication and re-authorization is to be performed; and a controller configured to initiate a network slice-specific re-authentication and re-authorization if the determiner determines that a network slice-specific re-authentication and re-authorization is to be performed; characterised in that the determiner is configured determine whether network slice-specific re-authentication and re-authorization is to be performed for the mobile terminal based on a location of the mobile terminal.
At a computer system including at least one processor and a memory, a computer-implemented method for providing a simulation of a type-level parameterized constructor on an interface instance over an interface-based application binary interface, ABI, the method comprising: an act of instantiating a plurality of interfaces, each interface instance comprising an instance object and one or more instance members; instantiating a separate typed object including one or more simulated type-level parameterized constructors having parameters; associating, by a runtime, one or more interface instances with the separate typed object and when the runtime executes one given constructor of the separate typed object, scanning the interfaces for selecting a method of an interface among the scanned interfaces, which has a set of parameters matching the parameters of the given constructor and returns an instance being of a type of the separate typed object; and simulating the given constructor by dispatching the executed given constructor to the selected method, using the returned instance as a new object. an act of instantiating a plurality of interfaces, each interface instance comprising an instance object and one or more instance members; instantiating a separate typed object including one or more simulated type-level parameterized constructors having parameters; associating, by a runtime, one or more interface instances with the separate typed object and when the runtime executes one given constructor of the separate typed object, scanning the interfaces for selecting a method of an interface among the scanned interfaces, which has a set of parameters matching the parameters of the given constructor and returns an instance being of a type of the separate typed object; and simulating the given constructor by dispatching the executed given constructor to the selected method, using the returned instance as a new object.
A method for assisting the piloting of an aircraft comprising a head-up display and an automatic flight control system, the automatic flight control system comprising a human-machine selection interface for choosing an operating mode from among several predetermined operating modes comprising a disengaged mode and an engaged mode in order to request an automatic control of at least one parameter, the automatic flight control system being configured, in the engaged mode, to control at least one actuator of the aircraft in order to bring a current value of said parameter towards a setpoint value, the method comprising the following steps: - detecting, with a control system, an applied current mode from among said several predetermined operating modes, - controlling (STP1, STP2, STP3) the head-up display with the control system, and displaying (STP11, STP21, STP31) a symbol carrying said current value on the head-up display, characterised in that a symbol carrying said current value is displayed (STP11, STP21, STP31) on the head-up display according to a graphic charter specific to the current mode in order to display the current mode, a first graphic charter applied during the disengaged mode being different from a second graphic charter applied during the engaged mode. - detecting, with a control system, an applied current mode from among said several predetermined operating modes, - controlling (STP1, STP2, STP3) the head-up display with the control system, and displaying (STP11, STP21, STP31) a symbol carrying said current value on the head-up display,
A device of a first user for transmitting data to a device of a second user, different from the first user, the device of the first user comprising: a controller configured to obtain biometric information of the second user and to encrypt the data using an encryption key based on the obtained biometric information of the second user; and a transceiver configured to transmit, to the device of the second user, the encrypted data and to transmit, to the device of the second user, a metadata comprising a type of the biometric information of the second user. a controller configured to obtain biometric information of the second user and to encrypt the data using an encryption key based on the obtained biometric information of the second user; and a transceiver configured to transmit, to the device of the second user, the encrypted data and to transmit, to the device of the second user, a metadata comprising a type of the biometric information of the second user.
A compound having the formula: or a pharmaceutically acceptable salt thereof, wherein: A is C 2 -C 6 alkynyl; B is: R 1 is H or: R 2 is H, or R 1 and R 2 join to form a group having the formula: R 14 is C 6 -C 10 aryl; R 15 and R 16 are each independently H or C 1 -C 6 alkyl and R 17 and R 18 are each independently C 1 -C 6 alkyl; A is C 2 -C 6 alkynyl; B is: R 1 is H or: R 2 is H, or R 1 and R 2 join to form a group having the formula: R 14 is C 6 -C 10 aryl; R 15 and R 16 are each independently H or C 1 -C 6 alkyl and R 17 and R 18 are each independently C 1 -C 6 alkyl;
Use of a composition, containing from 90 to 99 % by weight carboxylic esters, together with an additive blend comprising at least two different additives (a) and (b) together, whereby compound (a) is selected from dithiophosphates, and compound (b) is selected from alkylated phosphorothionates, in a weight ratio from 2: 1 to 1: 2 as lubricant, hydraulic- or turbine oil, and the rest up to 100 % by weight are other lubricant additives, each weight calculated on the weight of the whole composition, characterized in that the carboxylic ester is represented by general formula ROOC-(CH 2) n -COOR' wherein R and R' represents, independently from each other, a branched, saturated or unsaturated alkyl moiety with 4 to 12 C-atoms, and the index n has a value from 6 to 8, and characterized in that the additives (a) and (b) in sum are present in amounts of 0.01 to 0.099 % by weight based on the weight of the total composition.
A fogger comprising: a blower tube having a passageway; a fan configured to rotate to generate an airflow through the passageway; a reservoir configured to hold a volume of fluid and a volume of air; an air pump; a motor configured to drive the fan and the air pump; an atomizing valve; a dispensing line fluidly coupling the atomizing valve to the passageway; and a fluid tube fluidly coupling the volume of fluid in the reservoir to the atomizing valve; characterized in that the air pump is in fluid communication with the fluid in the reservoir, and that the fogger further comprising an air escape line fluidly coupling the volume of air in the reservoir to the atomizing valve, wherein in response to the air pump providing a stream of compressed air to the reservoir, air moves through the air escape line from the volume of air of the reservoir to the atomizing valve, such that fluid is drawn from the volume of fluid through the fluid tube and into the atomizing valve to be atomized. a blower tube having a passageway; a fan configured to rotate to generate an airflow through the passageway; a reservoir configured to hold a volume of fluid and a volume of air; an air pump; a motor configured to drive the fan and the air pump; an atomizing valve; a dispensing line fluidly coupling the atomizing valve to the passageway; and a fluid tube fluidly coupling the volume of fluid in the reservoir to the atomizing valve; characterized in that the air pump is in fluid communication with the fluid in the reservoir, and that the fogger further comprising an air escape line fluidly coupling the volume of air in the reservoir to the atomizing valve, wherein in response to the air pump providing a stream of compressed air to the reservoir, air moves through the air escape line from the volume of air of the reservoir to the atomizing valve, such that fluid is drawn from the volume of fluid through the fluid tube and into the atomizing valve to be atomized.
A method for validating the authenticity of a security mark on a recyclable container said method comprising the steps of: • moving said recyclable container past one or more security mark detection means, • illuminating at least a part of said security mark with light within a first wavelength range, characterized by • detecting a first reflection value of said security mark by means of said security mark detection means when said security mark is illuminated with light within said first wavelength range, • transmitting said first reflection value from said detection means to a central validation unit, • illuminating at least a part of said security mark with light within a second wavelength range, wherein said first wavelength range is different from said second wavelength range, • detecting a second reflection value of said security mark by means of said security mark detection means when said security mark is illuminated with light within said second wavelength range, • transmitting said second reflection value from said detection means to said central validation unit, and • validating the authenticity of said security mark in said central validation unit by checking if said first reflection value and said second reflection value are within predefined ranges. • moving said recyclable container past one or more security mark detection means, • illuminating at least a part of said security mark with light within a first wavelength range, characterized by • detecting a first reflection value of said security mark by means of said security mark detection means when said security mark is illuminated with light within said first wavelength range, • transmitting said first reflection value from said detection means to a central validation unit, • illuminating at least a part of said security mark with light within a second wavelength range, wherein said first wavelength range is different from said second wavelength range, • detecting a second reflection value of said security mark by means of said security mark detection means when said security mark is illuminated with light within said second wavelength range, • transmitting said second reflection value from said detection means to said central validation unit, and • validating the authenticity of said security mark in said central validation unit by checking if said first reflection value and said second reflection value are within predefined ranges.
A method of sealing a package containing a food product, the method comprising: applying a lid to a non-planar flange (102,104,106,108) surrounding a periphery of the package; supporting at least a portion of the non-planar flange (102, 104, 106, 108); and progressively sealing the lid to the supported portion of the non-planar flange (102,104,106,108) by applying pressure at one or more tangent points against the lid and the flange (102,104,106,108) using a sealing member having a pressure applying surface that rotates about an axis of rotation and one of radially varies relative to the axis of rotation and the axis of rotation reciprocates. applying a lid to a non-planar flange (102,104,106,108) surrounding a periphery of the package; supporting at least a portion of the non-planar flange (102, 104, 106, 108); and progressively sealing the lid to the supported portion of the non-planar flange (102,104,106,108) by applying pressure at one or more tangent points against the lid and the flange (102,104,106,108) using a sealing member having a pressure applying surface that rotates about an axis of rotation and one of radially varies relative to the axis of rotation and the axis of rotation reciprocates.
An electric power tool comprising: a tool element; an electric motor adapted to receive power supply to drive the tool element; a rechargeable battery that is electrically connected to the electric motor and adapted to supply power to the electric motor; a fuel battery that is electrically connected to the rechargeable battery and adapted to charge the rechargeable battery; characterized by comprising: a state measuring unit (22, 24, 401, S100, S125) adapted to measure a state of the rechargeable battery; and a control unit adapted to control charging of the rechargeable battery by the fuel battery at least based on the state of the rechargeable battery measured by the state measuring unit (22, 24, 401, S100, S125), wherein the state measuring unit (22, 401, S125) is adapted to measure at least a remaining amount of power in the rechargeable battery; the control unit is adapted to control the charging at least based on the remaining amount of power in the rechargeable battery measured by the state measuring unit (22, 401, S125); and the control unit is further adapted to control the charging by switching an output of the fuel battery to one of a high output, a low output and an off output, the high output being a rated output of the fuel battery, and the low output being an output between the rated output and the off output of the fuel battery. a tool element; an electric motor adapted to receive power supply to drive the tool element; a rechargeable battery that is electrically connected to the electric motor and adapted to supply power to the electric motor; a fuel battery that is electrically connected to the rechargeable battery and adapted to charge the rechargeable battery; a state measuring unit (22, 24, 401, S100, S125) adapted to measure a state of the rechargeable battery; and a control unit adapted to control charging of the rechargeable battery by the fuel battery at least based on the state of the rechargeable battery measured by the state measuring unit (22, 24, 401, S100, S125), wherein the state measuring unit (22, 401, S125) is adapted to measure at least a remaining amount of power in the rechargeable battery; the control unit is adapted to control the charging at least based on the remaining amount of power in the rechargeable battery measured by the state measuring unit (22, 401, S125); and the control unit is further adapted to control the charging by switching an output of the fuel battery to one of a high output, a low output and an off output, the high output being a rated output of the fuel battery, and the low output being an output between the rated output and the off output of the fuel battery.
An electronic device comprising: a communication unit for establishing a communication link with respect to at least one external electronic device; and a controller configured to, obtain attribute information associated with the external electronic device, determine a function of the external electronic device based on the obtained attribute information, select, based on the determined function, at least one device for outputting a sound from at least one of the electronic device, and the at least one external electronic device, establish a call path on basis of the selected device, wherein the controller is further configured to if a voice signal is received from another electronic device before the call path with the selected device is established, convert the received voice signal into text information and display the converted text information to a screen of the electronic device. a communication unit for establishing a communication link with respect to at least one external electronic device; and a controller configured to, obtain attribute information associated with the external electronic device, determine a function of the external electronic device based on the obtained attribute information, select, based on the determined function, at least one device for outputting a sound from at least one of the electronic device, and the at least one external electronic device, establish a call path on basis of the selected device, wherein the controller is further configured to if a voice signal is received from another electronic device before the call path with the selected device is established, convert the received voice signal into text information and display the converted text information to a screen of the electronic device.
A method in a node of a cellular radio system of setting a Raise over Thermal, RoT, limit for a cell of the cellular radio system, wherein the method comprises the steps of: - obtaining measurements from a number of user equipments within the cell collected during a first time period, - dynamically setting the RoT limit within a range determined based on the obtained measurements, said method being characterized by: - obtaining measurements from a number of active user equipments within the cell during a second time period, and - further dynamically setting the RoT limit within the range based on the obtained measurements from the active user equipments, wherein said first time period is longer than said second time period. - obtaining measurements from a number of user equipments within the cell collected during a first time period, - dynamically setting the RoT limit within a range determined based on the obtained measurements, said method being characterized by: - obtaining measurements from a number of active user equipments within the cell during a second time period, and - further dynamically setting the RoT limit within the range based on the obtained measurements from the active user equipments, wherein said first time period is longer than said second time period. - obtaining measurements from a number of active user equipments within the cell during a second time period, and - further dynamically setting the RoT limit within the range based on the obtained measurements from the active user equipments, wherein said first time period is longer than said second time period.