mhurhangee/ep-ind-claims huggingface dataset:
A terminal apparatus capable of communicating with a base station, the terminal apparatus comprising: an acquisition unit configured to acquire radio resource information related to a radio resource usable for device-to-device communication not via the base station, of radio resources controllable by the base station; characterized by a determination unit configured to determine a size of data to be transmitted and received in the device-to-device communication on the basis of the radio resource information and whether or not the device-to-device communication is a resending. an acquisition unit configured to acquire radio resource information related to a radio resource usable for device-to-device communication not via the base station, of radio resources controllable by the base station; characterized by a determination unit configured to determine a size of data to be transmitted and received in the device-to-device communication on the basis of the radio resource information and whether or not the device-to-device communication is a resending.
A pipe-connection searching apparatus for a multiple air conditioner system comprising a plurality of indoor units and an outdoor unit connected to pipes (A, B, C) and wiring-lines extending from the plurality of indoor units, the apparatus comprising: a plurality of temperature sensors each associated with a corresponding of the plurality of indoor units; a pipe opening/closing unit selectively opening one of a plurality of pipes (A, B, C) at a time when the outdoor unit is operating each of the plurality of pipes (A, B, C) connecting the outdoor unit to a corresponding one of the plurality of indoor units; a pipe searching unit configured to identify one of the plurality of indoor units that is connected to the one opened pipe based on a temperature criteria; and a wiring-line display unit for displaying a connection point between the outdoor unit and a wiring-line associated within the identified indoor unit; wherein the pipe searching unit and the wiring-line display unit are located at or in the outdoor unit, wherein the pipe searching unit is configured to measure an initial temperature associated with each of the plurality of indoor units prior to or substantially at the same time the outdoor unit is activated, measure the temperature associated with each of the plurality of indoor units after operation of the outdoor unit is initiated, and wherein the wiring-line display unit is configured to display the connection point between the outdoor unit and the wiring-line associated within the searched indoor unit by the pipe searching unit. a plurality of temperature sensors each associated with a corresponding of the plurality of indoor units; a pipe opening/closing unit selectively opening one of a plurality of pipes (A, B, C) at a time when the outdoor unit is operating each of the plurality of pipes (A, B, C) connecting the outdoor unit to a corresponding one of the plurality of indoor units; a pipe searching unit configured to identify one of the plurality of indoor units that is connected to the one opened pipe based on a temperature criteria; and a wiring-line display unit for displaying a connection point between the outdoor unit and a wiring-line associated within the identified indoor unit; wherein the pipe searching unit and the wiring-line display unit are located at or in the outdoor unit, wherein the pipe searching unit is configured to measure an initial temperature associated with each of the plurality of indoor units prior to or substantially at the same time the outdoor unit is activated, measure the temperature associated with each of the plurality of indoor units after operation of the outdoor unit is initiated, and wherein the wiring-line display unit is configured to display the connection point between the outdoor unit and the wiring-line associated within the searched indoor unit by the pipe searching unit.
A cover positionable surrounding an assembly joining pipe elements, said cover comprising: a first cover portion (24, 118) defining a first recess for receiving said assembly, said first cover portion (24, 118) having a first sidewall defining a first channel and a second sidewall defining a second channel, said first and second channels (32, 36) being in communication with said first recess, said first and second channels (32, 36) for receiving said pipe elements; a second cover portion (26, 122) defining a second recess for receiving said assembly, said second cover portion (26, 122) having a third sidewall defining a third channel and a fourth sidewall defining a fourth channel, said third and fourth channels (42, 46) being in communication with said second recess, said third and fourth channels (42, 46) for receiving said pipe elements; said first and second cover portions (24, 26, 118, 122) being joined to one another to surround said assembly and said pipe elements at a seam, characterized in thatsaid seam comprising a furrow facing outwardly away from said first and second recesses (28, 38). a first cover portion (24, 118) defining a first recess for receiving said assembly, said first cover portion (24, 118) having a first sidewall defining a first channel and a second sidewall defining a second channel, said first and second channels (32, 36) being in communication with said first recess, said first and second channels (32, 36) for receiving said pipe elements; a second cover portion (26, 122) defining a second recess for receiving said assembly, said second cover portion (26, 122) having a third sidewall defining a third channel and a fourth sidewall defining a fourth channel, said third and fourth channels (42, 46) being in communication with said second recess, said third and fourth channels (42, 46) for receiving said pipe elements; said first and second cover portions (24, 26, 118, 122) being joined to one another to surround said assembly and said pipe elements at a seam,
Motor vehicle, comprising an exhaust train, which is connected downstream of an internal combustion engine and comprises a plurality of exhaust gas aftertreatment devices, for purifying an exhaust gas from the internal combustion engine, the exhaust train comprising an SCR catalytic converter and at least one further catalytic converter, the further catalytic converter being configured as an NOx storage catalytic converter or an oxidation catalytic converter, a control device being provided for controlling at least one operating component of the motor vehicle which influences the temperature of the exhaust gas, wherein the internal combustion engine and a heating device in the exhaust train are provided as the operating components, the control device being adapted to control the operating component for setting the temperature of the exhaust gas as a function of at least one item of route information which is dependent on an expected driving route and of an item of conversion information relating to a temperature-dependent pollutant conversion rate of at least one exhaust gas aftertreatment device of the exhaust gas train, characterised in that the control device is adapted to select the respective operating component as a function of a first item of efficiency information relating to the efficiency of the heating of the exhaust gas by the internal combustion engine and a second item of efficiency information relating to the efficiency of the heating of the exhaust gas by the heating device.
An imaging system configuration apparatus for providing imaging system configuration parameters to configure an imaging device for image acquisition, the apparatus comprising: a training learning device including a first processor to implement a first deep learning network to learn a first set of imaging system configuration parameters based on a first set of inputs from a plurality of prior image acquisitions to configure at least one imaging system for image acquisition, the training learning device configured to receive and process feedback including operational data from the plurality of image acquisitions by the at least one imaging system; and a deployed learning device including a second processor to implement a second deep learning network, the second deep learning network generated from the first deep learning network of the training learning device, the deployed learning device configured to provide a second imaging system configuration parameter to the imaging system in response to receiving a second input for image acquisition; wherein the apparatus is configured so that, while the deployed learning device is not modified during operation, the training learning device can be updated and/or otherwise modified and used to replace/re-deploy the deployed learning device. a training learning device including a first processor to implement a first deep learning network to learn a first set of imaging system configuration parameters based on a first set of inputs from a plurality of prior image acquisitions to configure at least one imaging system for image acquisition, the training learning device configured to receive and process feedback including operational data from the plurality of image acquisitions by the at least one imaging system; and a deployed learning device including a second processor to implement a second deep learning network, the second deep learning network generated from the first deep learning network of the training learning device, the deployed learning device configured to provide a second imaging system configuration parameter to the imaging system in response to receiving a second input for image acquisition; wherein the apparatus is configured so that, while the deployed learning device is not modified during operation, the training learning device can be updated and/or otherwise modified and used to replace/re-deploy the deployed learning device.
A display device, comprising: a pixel based display system; a reconfigurable spatial light modulator, SLM; a waveguide; and a controller, wherein the reconfigurable SLM is arranged to be illuminated by a pixel-based image provided by the display system and the controller is arranged to dynamically reconfigure the reconfigurable SLM so as to modulate a phase of the pixel-based image based on a parameter for a shape of the waveguide, through which the phase-modulated image is displayed, to thereby mitigate for waveguide distortion. a pixel based display system; a reconfigurable spatial light modulator, SLM; a waveguide; and a controller,
A display device comprising: a module cover; a display panel which is positioned in front of the module cover, and is coupled to the module cover; a frame which surrounds a side surface of the module cover, the frame including a first frame adjacent to one side of the module cover and a second frame adjacent to the other side of the module cover opposite to the one side of the module cover; a bar which is positioned behind the module cover, extends long between the first frame and the second frame, and is coupled to the first frame and the second frame; and a mount which is positioned behind the module cover, adjacent to the one side of the module cover, and is coupled to the bar and the module cover, characterised in that 11 the mount is configured for being applied with a load through a bracket, and is directly coupled to the first frame. a module cover; a display panel which is positioned in front of the module cover, and is coupled to the module cover; a frame which surrounds a side surface of the module cover, the frame including a first frame adjacent to one side of the module cover and a second frame adjacent to the other side of the module cover opposite to the one side of the module cover; a bar which is positioned behind the module cover, extends long between the first frame and the second frame, and is coupled to the first frame and the second frame; and a mount which is positioned behind the module cover, adjacent to the one side of the module cover, and is coupled to the bar and the module cover, characterised in that 11 the mount is configured for being applied with a load through a bracket, and is directly coupled to the first frame.
Association, in a motor vehicle, of a micro hybrid system and an onboard equipment item of the vehicle, said micro hybrid system being able to operate in regenerative braking mode and comprising at least one reversible rotating electric machine, an AC-DC converter, an auxiliary energy storage unit formed by super capacitors and a DC-DC converter, said micro hybrid system being capable of powering, notably in regenerative braking phases of the motor vehicle with which it is equipped, said auxiliary energy storage unit so as to generate, in said vehicle, a two-voltage network having a low voltage (Vb) supplying a battery of said vehicle and, at the terminals of said auxiliary energy storage unit, a floating voltage (Vb+X) higher than this low voltage, characterized in that said onboard equipment item is a supercharging equipment item associated with the heat engine of said motor vehicle, said equipment item being powered in pulse mode by a chopper which is powered by said floating voltage, said equipment item being likely to consume, for its dynamic operation, high currents over brief periods of time, and in that said equipment item is powered with low response time by said floating voltage (Vb+X).
An electrode for a secondary battery in which two or more unit electrodes (10; 201) are laminated in a state of being in close contact with each other, and mutually adjacent unit electrodes (10, 201) are electrically connected through an electrode mixture, wherein in each of the unit electrodes, the electrode mixture containing an electrode active material is introduced into pores of a unit current collector with a three-dimensional network structure, the unit current collector with a three-dimensional network structure is conductive metal felt, an average thickness of the unit current collector with a three-dimensional network structure is in a range of 30 μm to 400 μm, and an average diameter of pores in the unit current collector with a three-dimensional network structure is in a range of 1 μm to 100 μm. two or more unit electrodes (10; 201) are laminated in a state of being in close contact with each other, and mutually adjacent unit electrodes (10, 201) are electrically connected through an electrode mixture, wherein in each of the unit electrodes, the electrode mixture containing an electrode active material is introduced into pores of a unit current collector with a three-dimensional network structure, the unit current collector with a three-dimensional network structure is conductive metal felt, an average thickness of the unit current collector with a three-dimensional network structure is in a range of 30 μm to 400 μm, and an average diameter of pores in the unit current collector with a three-dimensional network structure is in a range of 1 μm to 100 μm.
A sieve assembly (106, 108) for a combine, the sieve assembly (106, 108) having a left side longitudinal member (300, 308), a right side longitudinal member (302, 310), a forward transverse member (304, 312), and a rearward transverse member (306, 314), the respective members mounted together to form a frame (116, 118) in which a sieve (120, 124) is supported, the sieve (120, 124) comprising a generally rectangular and removable sieve frame (126, 130) supporting a fore-and-aft extending array of laterally extending slats, the sieve assembly further comprising hanger mounts (206, 208), the sieve assembly (106, 108) adapted to be connected on a chassis of the combine by two reciprocating left side hangers (110, 112) and two reciprocating right side hangers (110, 112) that are configured to be coupled to the sieve assembly (106, 108) by the respective hanger mounts (206, 208), wherein each hanger mount (206, 208) is a unitary body that comprises a hanger connection (1000, 1100, 1200, 1300) configured to be coupled to a reciprocating hanger (110, 112); a first mounting surface (1006, 1010, 1106, 1110, 1206, 1210, 1306, 1310) that is fixed to one of the left side longitudinal member (300, 308) and the right side longitudinal member (302, 310); and a second mounting surface (1025, 1125, 1225, 1325) that is fixed to one of the forward transverse member and the rearward transverse member (304, 312), characterized in that each of the forward transverse member (304, 312) and the rearward transverse member (306, 314) is an elongate extruded member that defines a closed hollow interior, and that each second mounting surface (1025, 1125, 1225, 1325) is disposed inside the respective closed hollow interior. the sieve assembly further comprising hanger mounts (206, 208), the sieve assembly (106, 108) adapted to be connected on a chassis of the combine by two reciprocating left side hangers (110, 112) and two reciprocating right side hangers (110, 112) that are configured to be coupled to the sieve assembly (106, 108) by the respective hanger mounts (206, 208), wherein each hanger mount (206, 208) is a unitary body that comprises a hanger connection (1000, 1100, 1200, 1300) configured to be coupled to a reciprocating hanger (110, 112); a first mounting surface (1006, 1010, 1106, 1110, 1206, 1210, 1306, 1310) that is fixed to one of the left side longitudinal member (300, 308) and the right side longitudinal member (302, 310); and a second mounting surface (1025, 1125, 1225, 1325) that is fixed to one of the forward transverse member and the rearward transverse member (304, 312), characterized in that each of the forward transverse member (304, 312) and the rearward transverse member (306, 314) is an elongate extruded member that defines a closed hollow interior, and that each second mounting surface (1025, 1125, 1225, 1325) is disposed inside the respective closed hollow interior.
System for controlling an internal combustion engine equipped with a circuit for partial recirculation of the low-pressure exhaust gases and with a circuit for partial recirculation of the high-pressure exhaust gases, comprising an estimating means of estimating admitted air parameter setpoints, characterized in that it comprises: a means of estimating the exhaust richness, a determining means for determining an intake richness setpoint as a function of admitted air parameter setpoints, a correcting means of correcting at least one of the admitted air parameter setpoints as a function of the estimate of the exhaust richness and of the intake richness setpoint, a determining means for determining a corrected setpoint for the flow rate of the high pressure partial exhaust gas recirculation circuit as a function of the corrected admitted air parameter setpoint, and a determining means for determining a corrected setpoint for the flow rate of the low pressure partial exhaust gas recirculation circuit as a function of the corrected admitted air parameter setpoint. a means of estimating the exhaust richness, a determining means for determining an intake richness setpoint as a function of admitted air parameter setpoints, a correcting means of correcting at least one of the admitted air parameter setpoints as a function of the estimate of the exhaust richness and of the intake richness setpoint, a determining means for determining a corrected setpoint for the flow rate of the high pressure partial exhaust gas recirculation circuit as a function of the corrected admitted air parameter setpoint, and a determining means for determining a corrected setpoint for the flow rate of the low pressure partial exhaust gas recirculation circuit as a function of the corrected admitted air parameter setpoint.
A method for pulse interference suppression in a communication system, comprising: Judging a location where pulse interference occurs according to a power of a signal; and Performing suppression processing on a data segment interfered by a pulse in the location; wherein, said judging a location where pulse interference occurs according to a power of a signal comprises: segmenting the signal, and calculating a power of each segment of the signal; and comparing powers of every two adjacent segments of the signal in turn, and if a power ratio is greater than a threshold value, judging the location where the pulse interference occurs according to a power difference of every two adjacent segments of the signal. Judging a location where pulse interference occurs according to a power of a signal; and Performing suppression processing on a data segment interfered by a pulse in the location; wherein, said judging a location where pulse interference occurs according to a power of a signal comprises: segmenting the signal, and calculating a power of each segment of the signal; and comparing powers of every two adjacent segments of the signal in turn, and if a power ratio is greater than a threshold value, judging the location where the pulse interference occurs according to a power difference of every two adjacent segments of the signal. segmenting the signal, and calculating a power of each segment of the signal; and comparing powers of every two adjacent segments of the signal in turn, and if a power ratio is greater than a threshold value, judging the location where the pulse interference occurs according to a power difference of every two adjacent segments of the signal.
An on-load tap changer for changing taps in a transformer winding, the tap changer comprising: a tap change module connected to the transformer winding and comprising a bypass switch assembly, a vacuum interrupter assembly and a selector switch assembly; a servo motor comprising: a motor shaft connected to the tap change module and operable, upon rotation, to cause the tap change module to perform a sequence of operations that effectuate a tap change; a feedback device operable to generate a feedback signal containing information relating to the position of the motor shaft, and a servo drive connected to the servo motor to receive the feedback signal, the servo drive using the feedback signal to determine and store the total angular displacement of the motor shaft, the servo drive using the feedback signal and the total angular displacement of the motor shaft to control the operation of the servo motor, characterized in that the feedback device is a multi-turn absolute encoder. a tap change module connected to the transformer winding and comprising a bypass switch assembly, a vacuum interrupter assembly and a selector switch assembly; a servo motor comprising: a motor shaft connected to the tap change module and operable, upon rotation, to cause the tap change module to perform a sequence of operations that effectuate a tap change; a feedback device operable to generate a feedback signal containing information relating to the position of the motor shaft, and a motor shaft connected to the tap change module and operable, upon rotation, to cause the tap change module to perform a sequence of operations that effectuate a tap change; a feedback device operable to generate a feedback signal containing information relating to the position of the motor shaft, and a servo drive connected to the servo motor to receive the feedback signal, the servo drive using the feedback signal to determine and store the total angular displacement of the motor shaft, the servo drive using the feedback signal and the total angular displacement of the motor shaft to control the operation of the servo motor, characterized in that the feedback device is a multi-turn absolute encoder.