mhurhangee/ep-ind-claims huggingface dataset:
An electric assembly for a vehicle, comprising: a box assembly; a motor, wherein the motor is disposed in the box assembly; a transmission, wherein the transmission is disposed in the box assembly, and the transmission is power-coupled to the motor; and a controller, wherein the controller is disposed outside the box assembly and fixedly connected to the box assembly, wherein the controller and the motor are mounted on a same side or two sides of the transmission, wherein the transmission comprises a main shaft, the main shaft is power-coupled to a motor shaft of the motor, at least one of the motor shaft and the main shaft is threaded through a shaft via-hole and is connected to the other one, and the main shaft is connected to the motor shaft of the motor through splines (211, 311), characterized in that: a shaft hole runs through the main shaft along an axial direction of the main shaft, an oil baffle is matched in the shaft hole, the oil baffle, an inner circumferential wall of the shaft hole and the motor shaft jointly define an oil storage cavity, the oil storage cavity is filled with lubricating oil, and the oil baffle is provided with an air vent. a box assembly; a motor, wherein the motor is disposed in the box assembly; a transmission, wherein the transmission is disposed in the box assembly, and the transmission is power-coupled to the motor; and a controller, wherein the controller is disposed outside the box assembly and fixedly connected to the box assembly, wherein the controller and the motor are mounted on a same side or two sides of the transmission, wherein the transmission comprises a main shaft, the main shaft is power-coupled to a motor shaft of the motor, at least one of the motor shaft and the main shaft is threaded through a shaft via-hole and is connected to the other one, and the main shaft is connected to the motor shaft of the motor through splines (211, 311), characterized in that: a shaft hole runs through the main shaft along an axial direction of the main shaft, an oil baffle is matched in the shaft hole, the oil baffle, an inner circumferential wall of the shaft hole and the motor shaft jointly define an oil storage cavity, the oil storage cavity is filled with lubricating oil, and the oil baffle is provided with an air vent.
Method for testing a connection of an antenna circuit unit to an OFDM communication transceiver having a receiver chain and an emitting chain, said receiver chain comprising a time-to-frequency transform unit and said emitting chain comprising a frequency-to-time transform unit, said method consisting in - Disconnecting said receiver chain from said antenna circuit unit; - Providing a stimulus as input to said emitting chain; - Reintroducing a signal at an output of said emitting chain as an input of said receiving chain; - Determining a resonance frequency, Fr, and a quality factor, Q, of a transfer function computed from an output of said time-to-frequency transform unit; - Deciding about the connection of said antenna circuit unit and said OFDM communication transceiver according to said determined resonance frequency, Fr, and said determined quality factor, Q. - Disconnecting said receiver chain from said antenna circuit unit; - Providing a stimulus as input to said emitting chain; - Reintroducing a signal at an output of said emitting chain as an input of said receiving chain; - Determining a resonance frequency, Fr, and a quality factor, Q, of a transfer function computed from an output of said time-to-frequency transform unit; - Deciding about the connection of said antenna circuit unit and said OFDM communication transceiver according to said determined resonance frequency, Fr, and said determined quality factor, Q.
Process for setting the range of functions of a situation monitor scanning the monitored area multidimensionally as part of a building installation controlling at least one actuator (L 1 to L 4), characterized by the following steps: - Arranging at least one programming marker (8, 12, 16) within the monitored area of the situation monitor in such a way that the programming marker can be detected by a programming interface provided by the situation monitor, - Evaluation of the data of the programming marker (8, 12, 16) received by the situation monitor for identification of a programming code on the programming marker, wherein the programming code is a command, and - Executing the command transmitted by the at least one programming marker (8, 12, 16) to the situation monitor. - Arranging at least one programming marker (8, 12, 16) within the monitored area of the situation monitor in such a way that the programming marker can be detected by a programming interface provided by the situation monitor, - Evaluation of the data of the programming marker (8, 12, 16) received by the situation monitor for identification of a programming code on the programming marker, wherein the programming code is a command, and - Executing the command transmitted by the at least one programming marker (8, 12, 16) to the situation monitor.
A container comprising: a finish defining an opening; a shoulder portion extending from the finish; a sidewall extending from the shoulder portion and defining a volume of the container; and a base portion at an end of the sidewall opposite to the shoulder portion and including a primary standing ring and a secondary standing ring, characterized in that the base portion is movable from an as-blown position to an expanded position and from the expanded position to a retracted position (E1-E2); wherein: in the as-blown and retracted positions (C, E1-E2) the primary standing ring is configured to support the container upright; and in the expanded position the secondary standing ring is configured to support the container upright. a finish defining an opening; a shoulder portion extending from the finish; a sidewall extending from the shoulder portion and defining a volume of the container; and a base portion at an end of the sidewall opposite to the shoulder portion and including a primary standing ring and a secondary standing ring, characterized in that the base portion is movable from an as-blown position to an expanded position and from the expanded position to a retracted position (E1-E2); wherein: in the as-blown and retracted positions (C, E1-E2) the primary standing ring is configured to support the container upright; and in the expanded position the secondary standing ring is configured to support the container upright. in the as-blown and retracted positions (C, E1-E2) the primary standing ring is configured to support the container upright; and in the expanded position the secondary standing ring is configured to support the container upright.
A computer-implemented method comprising: determining a total number of connected data transfer sessions between computing nodes in a computing network; determining whether the total number of connected data transfer sessions meets or exceeds a dynamic threshold value wherein the dynamic threshold value is adjustable based on the anticipated use of transfer sessions in the computing network; and in response to a determination that the total number of connected data transfer sessions meets or exceeds the dynamic threshold value, terminating one or more connected data transfer sessions until the total number of connected data transfer sessions falls below the dynamic threshold value. determining a total number of connected data transfer sessions between computing nodes in a computing network; determining whether the total number of connected data transfer sessions meets or exceeds a dynamic threshold value wherein the dynamic threshold value is adjustable based on the anticipated use of transfer sessions in the computing network; and in response to a determination that the total number of connected data transfer sessions meets or exceeds the dynamic threshold value, terminating one or more connected data transfer sessions until the total number of connected data transfer sessions falls below the dynamic threshold value.
Method for controlling a discharge angle of a centrifugal spreader, wherein: a) a setpoint discharge angle (AWWs1) is computed from a prescribed operating width and an actual projection range measured at a spreading disc of the centrifugal spreader during the delivery of fertilizer; b) an actual discharge angle is measured during the delivery of the fertilizer and a controlled variable (RGa) for the control of the discharge angle is computed from the setpoint discharge angle (AWWs1) and the actual discharge angle; and wherein c) a manipulated variable (SGa) for the control of the discharge angle affects the position, in particular an angular position of an injection system for the fertilizer that is formed on the spreading disc. a) a setpoint discharge angle (AWWs1) is computed from a prescribed operating width and an actual projection range measured at a spreading disc of the centrifugal spreader during the delivery of fertilizer; b) an actual discharge angle is measured during the delivery of the fertilizer and a controlled variable (RGa) for the control of the discharge angle is computed from the setpoint discharge angle (AWWs1) and the actual discharge angle; and wherein c) a manipulated variable (SGa) for the control of the discharge angle affects the position, in particular an angular position of an injection system for the fertilizer that is formed on the spreading disc.
A method for wireless communication at a user equipment, UE, comprising: receiving (210; 1605; 1705) a downlink, DL, signal from a base station on a plurality of DL beams, wherein each DL beam of the plurality of DL beams are transmitted in different symbols of a subframe, each symbol associated with a different beam direction; identifying (215; 1610; 1710) a selected DL beam of the plurality of DL beams for communications from the base station to the UE; selecting a frequency resource for a beam recovery or beam tracking message based on the selected DL beam of the plurality of DL beams, wherein the selection is based at least in part on the symbol of the subframe of the DL signal of the selected DL beam; and transmitting (225; 1615; 1715) the beam recovery or beam tracking message to the base station using the selected frequency resource based at least in part on the selected DL beam; and receiving one or more subsequent messages at the UE using the selected DL beam. receiving (210; 1605; 1705) a downlink, DL, signal from a base station on a plurality of DL beams, wherein each DL beam of the plurality of DL beams are transmitted in different symbols of a subframe, each symbol associated with a different beam direction; identifying (215; 1610; 1710) a selected DL beam of the plurality of DL beams for communications from the base station to the UE; selecting a frequency resource for a beam recovery or beam tracking message based on the selected DL beam of the plurality of DL beams, wherein the selection is based at least in part on the symbol of the subframe of the DL signal of the selected DL beam; and transmitting (225; 1615; 1715) the beam recovery or beam tracking message to the base station using the selected frequency resource based at least in part on the selected DL beam; and receiving one or more subsequent messages at the UE using the selected DL beam.
A connector for use in mooring or lifting, the connector being adapted for release under load from a complementary connector, the connector comprising: at least one locking element for engagement with the complementary connector to lock the complementary connector to the connector; a locking member moveable from a fully locked position to a fully unlocked position, the locking member being operative to permit the or each locking element to lock the complementary connector to the connector when in the fully locked position and being operative to allow the or each locking element to release the complementary connector from the connector when in the fully unlocked position; movement means operable to move the locking member from its fully locked position to its partially locked position and/or its fully unlocked position, wherein the locking member and locking element are arranged such that when the connector is locked to the complementary connector and the locking member is in a partially unlocked position, a load applied to the or each locking element caused by a load urging the connector and the complementary connector apart causes the or each locking element to urge the locking member towards its fully unlocked position, thereby unlocking the complementary connector from the connector, wherein the connector further comprises a body, and on moving from the locked position to the unlocked position the locking member moves towards a free end of the connector body. at least one locking element for engagement with the complementary connector to lock the complementary connector to the connector; a locking member moveable from a fully locked position to a fully unlocked position, the locking member being operative to permit the or each locking element to lock the complementary connector to the connector when in the fully locked position and being operative to allow the or each locking element to release the complementary connector from the connector when in the fully unlocked position; movement means operable to move the locking member from its fully locked position to its partially locked position and/or its fully unlocked position, wherein the locking member and locking element are arranged such that when the connector is locked to the complementary connector and the locking member is in a partially unlocked position, a load applied to the or each locking element caused by a load urging the connector and the complementary connector apart causes the or each locking element to urge the locking member towards its fully unlocked position, thereby unlocking the complementary connector from the connector, wherein the connector further comprises a body, and on moving from the locked position to the unlocked position the locking member moves towards a free end of the connector body.
Position encoder for measuring a position containing - a position sensor, providing physical signals representing the angular position, - a measuring device for measuring the physical signals and outputting at least one electrical position signal representing the position and - signal processing means, processing the position signal characterized in that the signal processing means exhibit at least a speed estimator outputting an estimated speed and connected in parallel a speed limiter that limits a change in the position signal depending from the estimated speed and the speed estimator comprising a first differentiator, calculating the current speed from the position signal. - a position sensor, providing physical signals representing the angular position, - a measuring device for measuring the physical signals and outputting at least one electrical position signal representing the position and - signal processing means, processing the position signal
A method for controlling laser beam propagation in quantum processing, comprising: generating, by a first acousto-optic modulator, AOM, from an incident laser beam, a first diffracted laser beam based on a first radio frequency, RF, tone and a second diffracted laser beam based on a second RF tone, wherein the first diffracted laser beam and the second diffracted laser beam are diffracted at different angles; focusing, via an optical component, the first diffracted laser beam and the second diffracted laser beam onto a second AOM; generating, by the second AOM from the first diffracted laser beam and the second diffracted laser beam, at least a third diffracted laser beam based on the first RF tone and a third RF tone and a fourth diffracted laser beam based on the second RF tone and a fourth RF tone, wherein the third diffracted laser beam and the fourth diffracted laser beam are diffracted to be substantially parallel when incident on a respective ion in a chain of ions in a trap; and controlling quantum information in the ion to perform quantum processing based on the third diffracted laser beam and the fourth diffracted laser beam. generating, by a first acousto-optic modulator, AOM, from an incident laser beam, a first diffracted laser beam based on a first radio frequency, RF, tone and a second diffracted laser beam based on a second RF tone, wherein the first diffracted laser beam and the second diffracted laser beam are diffracted at different angles; focusing, via an optical component, the first diffracted laser beam and the second diffracted laser beam onto a second AOM; generating, by the second AOM from the first diffracted laser beam and the second diffracted laser beam, at least a third diffracted laser beam based on the first RF tone and a third RF tone and a fourth diffracted laser beam based on the second RF tone and a fourth RF tone, wherein the third diffracted laser beam and the fourth diffracted laser beam are diffracted to be substantially parallel when incident on a respective ion in a chain of ions in a trap; and controlling quantum information in the ion to perform quantum processing based on the third diffracted laser beam and the fourth diffracted laser beam.
A method of controlling a heater comprising the following steps: controlling power to the heater based on a first state model of a control program, wherein the control program is stored in a repository and is defined by at least two state models (252, 254, 256, 258, 260, 262), wherein each of the at least two state models (252, 254, 256, 258, 260, 262) defines a subsequent state model and a transition condition associated with a respective state model to have the control program transition to the subsequent state model defined by the respective state model in response to the transition condition being satisfied, wherein each of the at least two state models includes the first state model; determining, by the control program, whether the transition condition for the first state model is satisfied,; and controlling, by the control program, power to the heater based on a second state model in response to the transition condition of the first state model being satisfied, wherein the second state model is among the at least two state models (252, 254, 256, 258, 260, 262) and is provided as the subsequent state model of the first state model. controlling power to the heater based on a first state model of a control program, wherein the control program is stored in a repository and is defined by at least two state models (252, 254, 256, 258, 260, 262), wherein each of the at least two state models (252, 254, 256, 258, 260, 262) defines a subsequent state model and a transition condition associated with a respective state model to have the control program transition to the subsequent state model defined by the respective state model in response to the transition condition being satisfied, wherein each of the at least two state models includes the first state model; determining, by the control program, whether the transition condition for the first state model is satisfied,; and controlling, by the control program, power to the heater based on a second state model in response to the transition condition of the first state model being satisfied, wherein the second state model is among the at least two state models (252, 254, 256, 258, 260, 262) and is provided as the subsequent state model of the first state model.
A process for producing chlorine by feeding hydrogen chloride and oxygen into catalyst beds which are formed in the reaction tubes of a fixed-bed multitubular reactor and which contain catalysts for use in oxidation of hydrogen chloride, characterized in that the catalyst beds in one reaction zone in the fixed-bed multitubular reactor are catalyst beds formed by packing catalysts of a plurality of production lots; and in that the catalysts of the plurality of production lots satisfy the following conditions and: Condition: a value of A/B is smaller than 1.20, with the proviso that A and B are values of three significant figures, having a relationship of A ≥ B, wherein the pore volume of a catalyst of one production lot optionally selected from the plurality of production lots is A [ml/g], and the pore volume of another one production lot is B [ml/g]; Condition: a value of G/H is smaller than 1.10, with the proviso that G and H are values of three significant figures and have a relationship of G > H, wherein the content of a catalytically active component of a catalyst of one production lot optionally selected from the plurality of production lots is G [% by weight]; and the content of a catalytically active component of a catalyst of another one production lot, H [% by weight]. Condition: a value of A/B is smaller than 1.20, with the proviso that A and B are values of three significant figures, having a relationship of A ≥ B, wherein the pore volume of a catalyst of one production lot optionally selected from the plurality of production lots is A [ml/g], and the pore volume of another one production lot is B [ml/g]; Condition: a value of G/H is smaller than 1.10, with the proviso that G and H are values of three significant figures and have a relationship of G > H, wherein the content of a catalytically active component of a catalyst of one production lot optionally selected from the plurality of production lots is G [% by weight]; and the content of a catalytically active component of a catalyst of another one production lot, H [% by weight].
A cross-sectional profile for a flat key or the keyway of a cylinder lock, comprising a back surface, a first lateral surface and a second lateral surface, wherein a. the lateral surfaces (4, 4') extend in the vertical direction to the back surface, b. the lateral surfaces (4, 4') are arranged offset to one another by a distance, which optionally varies along their extension, c. the outline of the cross-sectional profile defines a preferably substantially rectangular base profile, d. the lateral surfaces (4, 4') each extend at least in sections along sinusoidal profiling lines (7, 7'), and wherein e. the centerlines (8, 8') of the profiling lines (7, 7') lie within the base profile, characterized in that the centerlines (8, 8') of the profiling lines (7, 7') f. extend at an angle α to the center plane of the base profile, which is preferably approximately 5°, and g. linearly approach one another along their extension from the back surface. a. the lateral surfaces (4, 4') extend in the vertical direction to the back surface, b. the lateral surfaces (4, 4') are arranged offset to one another by a distance, which optionally varies along their extension, c. the outline of the cross-sectional profile defines a preferably substantially rectangular base profile, d. the lateral surfaces (4, 4') each extend at least in sections along sinusoidal profiling lines (7, 7'), and wherein e. the centerlines (8, 8') of the profiling lines (7, 7') lie within the base profile, characterized in that the centerlines (8, 8') of the profiling lines (7, 7') f. extend at an angle α to the center plane of the base profile, which is preferably approximately 5°, and g. linearly approach one another along their extension from the back surface.