mhurhangee/ep-ind-claims huggingface dataset:
A refrigeration cycle apparatus comprising a user side unit and a heat source side unit connected by at least three cables through each connection end, wherein the user side unit and the heat source side unit have a communication circuit, respectively; either of the user side unit and the heat source side unit receives an alternating voltage from an alternating current source; with the other unit of the user side unit and the heat source side unit, an electrical power is supplied through the connection ends using two cables of the three cables as alternating current lines, and a current loop is formed and communication is executed through the connection ends using the other cable and one of the alternating current lines as communication lines constituting the communication circuit, wherein the other unit has: a microcomputer for controlling the communication circuit; a power supply circuit (2, 11) for converting an alternating voltage supplied from the alternating current cables to a direct microcomputer drive power supply voltage; characterized in that said other unit further has: reset means for monitoring the microcomputer drive power supply voltage supplied to the microcomputer and resets the microcomputer when the microcomputer drive power supply voltage is lower than a predetermined voltage so that the microcomputer is not driven, wherein when the three cables are faultily wired, the reset means shuts off the communication circuit by keeping the microcomputer in a reset state so that the drive of the microcomputer is checked by releasing a reset after a predetermined delay time passes since the microcomputer drive power supply voltage exceeds the predetermined voltage. a microcomputer for controlling the communication circuit; a power supply circuit (2, 11) for converting an alternating voltage supplied from the alternating current cables to a direct microcomputer drive power supply voltage; characterized in that said other unit further has: reset means for monitoring the microcomputer drive power supply voltage supplied to the microcomputer and resets the microcomputer when the microcomputer drive power supply voltage is lower than a predetermined voltage so that the microcomputer is not driven, wherein when the three cables are faultily wired, the reset means shuts off the communication circuit by keeping the microcomputer in a reset state so that the drive of the microcomputer is checked by releasing a reset after a predetermined delay time passes since the microcomputer drive power supply voltage exceeds the predetermined voltage. reset means for monitoring the microcomputer drive power supply voltage supplied to the microcomputer and resets the microcomputer when the microcomputer drive power supply voltage is lower than a predetermined voltage so that the microcomputer is not driven, wherein when the three cables are faultily wired, the reset means shuts off the communication circuit by keeping the microcomputer in a reset state so that the drive of the microcomputer is checked by releasing a reset after a predetermined delay time passes since the microcomputer drive power supply voltage exceeds the predetermined voltage.
A valve timing adjustment system comprising: a displacement mechanism unit (31, 32) that displaces a rotational phase of a camshaft relative to a crankshaft of an internal combustion engine; a locking mechanism unit that locks the rotational phase at an intermediate locked phase positioned within a displacement range of the rotational phase; a hydraulic pathway including a hydraulic control valve that hydraulically drives the displacement mechanism unit (31, 32) and the locking mechanism unit; and a control unit (9, 90) including a control system that controls operations of the hydraulic control valve, wherein the control unit (9, 90) changes a temporal responsiveness of the control system based on a displacement force that displaces the rotational phase, wherein the control unit (9, 90) switches the temporal responsiveness of the control system between a retard control mode that displaces the rotational phase in a retard direction and an advance control mode that displaces the rotational phase in an advance direction, wherein the control system is a feedback control system that brings an actual value of the rotational phase closer to a target value of the rotational phase by feeding back the actual value of the rotational phase, and changing the temporal responsiveness is realized by changing a time constant of the feedback control system, and wherein the control unit (9, 90) reduces the time constant during the advance control mode and increases the time constant during the retard control mode. a displacement mechanism unit (31, 32) that displaces a rotational phase of a camshaft relative to a crankshaft of an internal combustion engine; a locking mechanism unit that locks the rotational phase at an intermediate locked phase positioned within a displacement range of the rotational phase; a hydraulic pathway including a hydraulic control valve that hydraulically drives the displacement mechanism unit (31, 32) and the locking mechanism unit; and a control unit (9, 90) including a control system that controls operations of the hydraulic control valve, wherein the control unit (9, 90) changes a temporal responsiveness of the control system based on a displacement force that displaces the rotational phase, wherein the control unit (9, 90) switches the temporal responsiveness of the control system between a retard control mode that displaces the rotational phase in a retard direction and an advance control mode that displaces the rotational phase in an advance direction, wherein the control system is a feedback control system that brings an actual value of the rotational phase closer to a target value of the rotational phase by feeding back the actual value of the rotational phase, and changing the temporal responsiveness is realized by changing a time constant of the feedback control system, and wherein the control unit (9, 90) reduces the time constant during the advance control mode and increases the time constant during the retard control mode.
A method for filtering a received OFDM, Orthogonal Frequency Division Multiplexed, signal to reduce noise, the OFDM signal comprising a plurality of symbols n in the time direction, each symbol comprising a plurality of sub-carriers k in the frequency direction, each a -th sub-carrier of each symbol being transmitted as a pilot sub-carrier with known amplitude and phase, and each symbol having its pilot sub-carriers spaced by b sub-carriers relative to the adjacent symbol, the method comprising the step of: producing a filtered version of a selected pilot sub-carrier to be used in subsequent interpolation, by inputting into respective taps of an m-tap filter, m pilot sub-carriers surrounding the selected pilot sub-carrier, the m pilot sub-carriers each satisfying a relationship between n and k, the relationship defining a diagonal line in the n-k plane. producing a filtered version of a selected pilot sub-carrier to be used in subsequent interpolation, by inputting into respective taps of an m-tap filter, m pilot sub-carriers surrounding the selected pilot sub-carrier, the m pilot sub-carriers each satisfying a relationship between n and k, the relationship defining a diagonal line in the n-k plane.
A motor comprising: a stator including a substantially cylindrical stator core and a coil which is made up of wound conductors; and a rotor disposed in an inner circumference of the stator, wherein the stator core comprises an outer circumferential portion which constitutes an outer circumferential wall of the stator and an inner circumferential portion round which the conductor is wound, wherein the outer circumferential portion is formed of a first sintered metal made of a powder magnetic material, characterized in that the inner circumferential portion is formed of a second sintered metal made of a powder magnetic material, wherein the first sintered metal is a sintered metal having a higher mechanical strength than the second sintered metal, and wherein the stator core is formed by diffusion bonding the outer circumferential portion and the inner circumferential portion being bonded together. a stator including a substantially cylindrical stator core and a coil which is made up of wound conductors; and a rotor disposed in an inner circumference of the stator, wherein the stator core comprises an outer circumferential portion which constitutes an outer circumferential wall of the stator and an inner circumferential portion round which the conductor is wound, wherein the outer circumferential portion is formed of a first sintered metal made of a powder magnetic material, characterized in that the inner circumferential portion is formed of a second sintered metal made of a powder magnetic material, wherein the first sintered metal is a sintered metal having a higher mechanical strength than the second sintered metal, and wherein the stator core is formed by diffusion bonding the outer circumferential portion and the inner circumferential portion being bonded together.
A system (200, 300) comprising: a first plate (280, 320), the first plate (280, 320) arranged to be thermally coupled to a first surface; a second plate (230, 310), the second plate (230, 310) arranged to be thermally coupled to an environment, the environment comprising a temperature that is different than the first surface; a thermoelectric device (250, 380), comprising: a plurality of thermoelectric elements; a third plate coupled to the plurality of thermoelectric elements and thermally coupled to the first plate (280, 320); a fourth plate coupled to the plurality of thermoelectric elements and thermally coupled to the second plate (230, 310); and an incompressible dielectric fluid arranged between the first plate (280, 320) and the second plate (230, 310), the thermoelectric elements submersed in the dielectric fluid. a first plate (280, 320), the first plate (280, 320) arranged to be thermally coupled to a first surface; a second plate (230, 310), the second plate (230, 310) arranged to be thermally coupled to an environment, the environment comprising a temperature that is different than the first surface; a thermoelectric device (250, 380), comprising: a plurality of thermoelectric elements; a third plate coupled to the plurality of thermoelectric elements and thermally coupled to the first plate (280, 320); a fourth plate coupled to the plurality of thermoelectric elements and thermally coupled to the second plate (230, 310); and a plurality of thermoelectric elements; a third plate coupled to the plurality of thermoelectric elements and thermally coupled to the first plate (280, 320); a fourth plate coupled to the plurality of thermoelectric elements and thermally coupled to the second plate (230, 310); and an incompressible dielectric fluid arranged between the first plate (280, 320) and the second plate (230, 310), the thermoelectric elements submersed in the dielectric fluid.
A method performed by a wireless device, comprising: receiving, by the wireless device from a base station: an indication of a resource pool; and an indication of sidelink subcarrier spacing, SCS; determining a processing time associated with congestion control, wherein the processing time is based on: a processing capability of the wireless device; and the sidelink SCS; determining, based on the processing time, a congestion control parameter measurement value of the resource pool; and sending, via a sidelink and based on the congestion control parameter measurement value, at least one message. receiving, by the wireless device from a base station: an indication of a resource pool; and an indication of sidelink subcarrier spacing, SCS; an indication of a resource pool; and an indication of sidelink subcarrier spacing, SCS; determining a processing time associated with congestion control, wherein the processing time is based on: a processing capability of the wireless device; and the sidelink SCS; a processing capability of the wireless device; and the sidelink SCS; determining, based on the processing time, a congestion control parameter measurement value of the resource pool; and sending, via a sidelink and based on the congestion control parameter measurement value, at least one message.
A biopolymer concentration method for concentrating a biopolymer by impregnating a nanostructured substrate with a biopolymer-containing solution while applying electromagnetic waves, wherein the nanostructured substrate comprises a base material, a base group fixed to the base material, and a metal layer group deposited on the base group, the base group is fixed separately to the base material, and the ratio (S A /S B) of a geometric front area (S A) in terms of hemisphere on a total emission surface side of the metal layer group and a geometric back area (S B) on a total light-receiving surface side exceeds 1.
A coupler to transfer controller motion from a robotic manipulator, the coupler comprising: a pin having a tip with a spherical bearing surface; and a plate (400, 900) supported on the spherical bearing surface of the pin with two degrees of freedom about the center of the spherical bearing surface, the plate (400, 900) having a back surface and an opposing driving surface, the plate (400, 900) including a pin receiving portion (800, 912) that extends outwardly from the driving surface and away from the back surface, the pin receiving portion (800, 912) including a spherical receiving surface to receive the spherical bearing surface of the pin, the spherical bearing surface being located at a distance above the driving surface. a pin having a tip with a spherical bearing surface; and a plate (400, 900) supported on the spherical bearing surface of the pin with two degrees of freedom about the center of the spherical bearing surface, the plate (400, 900) having a back surface and an opposing driving surface, the plate (400, 900) including a pin receiving portion (800, 912) that extends outwardly from the driving surface and away from the back surface, the pin receiving portion (800, 912) including a spherical receiving surface to receive the spherical bearing surface of the pin, the spherical bearing surface being located at a distance above the driving surface.
Lighting device comprising a plurality of semiconductor light sources arranged on a carrier (6, 16), wherein - the light of the light sources couples into assigned light guides at a predefined angle with respect to the surface normal of the carrier (6, 16) and said light guides are provided with reflection surfaces (2, 12) and light exit surfaces (3, 13), in such a way that the envelope of the light exit surfaces (3, 13) forms a curved surface segment, characterized in that - an angle of inclination of the reflection surface (2, 12) relative to the light exit surfaces (3, 13) is less than 25°, and - a light coupling-in surface of one of the light guides is assigned a collimating optical unit embodied integrally with the light guide as a stepped lens. - the light of the light sources couples into assigned light guides at a predefined angle with respect to the surface normal of the carrier (6, 16) and said light guides are provided with reflection surfaces (2, 12) and light exit surfaces (3, 13), in such a way that the envelope of the light exit surfaces (3, 13) forms a curved surface segment, characterized in that - an angle of inclination of the reflection surface (2, 12) relative to the light exit surfaces (3, 13) is less than 25°, and - a light coupling-in surface of one of the light guides is assigned a collimating optical unit embodied integrally with the light guide as a stepped lens.
A receiver, comprising: a housing (210, 310) having a hollow inner cavity; a diaphragm mechanism disposed in the hollow inner cavity, configured for partitioning the hollow inner cavity into a first cavity and a second cavity, and comprising a vibration plate comprising a free end suspended in the hollow inner cavity and a fixed end; and an electromagnetic driving mechanism disposed in the hollow inner cavity and comprising at least one coil assembly and at least one magnetic field assembly (244, 246), wherein each magnetic field assembly (244, 246) is disposed in the first cavity or the second cavity and is close to the free end of the vibration plate, and each coil assembly is disposed in the first cavity or the second cavity and is close to the fixed end of the vibration plate, characterized in that the electromagnetic driving mechanism comprises one coil assembly disposed in the second cavity and serving as a support for the vibration plate; wherein the coil assembly comprises a magnetic core and a coil, and the coil is placed in a direction perpendicular to a direction in which the vibration plate is placed, one end of the magnetic core is threaded in a hollow inner hole of the coil, and the other end of the magnetic core protrudes from the hollow inner hole of the coil to support the fixed end of the vibration plate. a housing (210, 310) having a hollow inner cavity; a diaphragm mechanism disposed in the hollow inner cavity, configured for partitioning the hollow inner cavity into a first cavity and a second cavity, and comprising a vibration plate comprising a free end suspended in the hollow inner cavity and a fixed end; and an electromagnetic driving mechanism disposed in the hollow inner cavity and comprising at least one coil assembly and at least one magnetic field assembly (244, 246), wherein each magnetic field assembly (244, 246) is disposed in the first cavity or the second cavity and is close to the free end of the vibration plate, and each coil assembly is disposed in the first cavity or the second cavity and is close to the fixed end of the vibration plate, characterized in that the electromagnetic driving mechanism comprises one coil assembly disposed in the second cavity and serving as a support for the vibration plate; wherein the coil assembly comprises a magnetic core and a coil, and the coil is placed in a direction perpendicular to a direction in which the vibration plate is placed, one end of the magnetic core is threaded in a hollow inner hole of the coil, and the other end of the magnetic core protrudes from the hollow inner hole of the coil to support the fixed end of the vibration plate.
A feeder device for printed products comprising: a pick-up drum; at least one first drum (16, 18) rotatable about a first axis; at least one second drum (26, 28) rotatable about a second axis; and an actuator coupled to the at least one first drum and the at least one second drum for reciprocating the at least one first drum and the at least one second drum axially, characterized in that the at least one first drum (16, 18) includes at least one first gripper to receive a printed product folded at a folded edge and having first open edge and second open edge from the pick-up drum, in that the at least one second drum (26, 28) includes at least one second gripper, and in that the at least one second drum grips second open edge as the at least one first drum (16, 18) grips first open edge and via rotation, the first and second drums (16, 18, 26, 28) open the printed product. a pick-up drum; at least one first drum (16, 18) rotatable about a first axis; at least one second drum (26, 28) rotatable about a second axis; and an actuator coupled to the at least one first drum and the at least one second drum for reciprocating the at least one first drum and the at least one second drum axially, characterized in that the at least one first drum (16, 18) includes at least one first gripper to receive a printed product folded at a folded edge and having first open edge and second open edge from the pick-up drum, in that the at least one second drum (26, 28) includes at least one second gripper, and in that the at least one second drum grips second open edge as the at least one first drum (16, 18) grips first open edge and via rotation, the first and second drums (16, 18, 26, 28) open the printed product.
A method to be performed for a graphics processor having multiple co-existing application processes for interference employment of neural networks, comprising: defining a percentage for each application process; scheduling, by a scheduling logic of the graphics processor, the application processes according to the percentage of total available threads and resources; dynamically adjusting the percentage for each application process by a user, wherein the adjusting includes updating, using primitives provided to the user, the percentage to tune utilization of the graphics processor, wherein the primitives include primitives to select and write a desired percentage and a lower bound percentage for an application process identified by a proportional integral derivative, PID, controller and primitives to read a current system allocated percentage, the user desired percentage and the lower bound percentage. defining a percentage for each application process; scheduling, by a scheduling logic of the graphics processor, the application processes according to the percentage of total available threads and resources; dynamically adjusting the percentage for each application process by a user, wherein the adjusting includes updating, using primitives provided to the user, the percentage to tune utilization of the graphics processor, wherein the primitives include primitives to select and write a desired percentage and a lower bound percentage for an application process identified by a proportional integral derivative, PID, controller and primitives to read a current system allocated percentage, the user desired percentage and the lower bound percentage.