mhurhangee/ep-ind-claims huggingface dataset:
Delivery unit having a drive shaft and a rotor which is driven by the drive shaft and is arranged rotatably in a stator housing, the drive shaft having an oblique sliding plane which interacts with the rotor, is formed on a shoulder of the drive shaft and allows the rotor to tumble with its rotor axis about the drive axis of the drive shaft, the rotor having a toothing system on its end side which faces away from the drive shaft, which toothing system meshes with a toothing system which is formed on the stator housing, working spaces being formed between the toothing system of the rotor and the toothing system of the stator housing, which working spaces can be filled via an inflow and can be emptied via an outflow, characterized in that the inflow is provided in a channel of the drive shaft and the outflow is provided on the shoulder of the drive shaft, or vice versa, wherein the outflow is of arcuate configuration or wherein the outflow comprises a plurality of outflow openings which are arranged arcuately, wherein the oblique sliding plane is of circular configuration and the inflow is arranged in one circle half and the outflow is arranged in the other circle half of the oblique sliding plane, wherein at least one separating web is provided between the inflow and the outflow.
A communication device (44, 64, 134) comprising: a transmitter (46, 66, 136) configured to receive a digital input signal and output a radio frequency transmit signal that is transmitted by the communication device (44, 64, 134); a main receiver (48, 68, 138) configured to receive a radio frequency receive signal and output a digital output signal, the digital output signal comprising passive intermodulation distortion that is a non-linear function of the radio frequency transmit signal output by the transmitter (46, 66, 136); a combined digital predistortion and passive intermodulation estimate generation subsystem (74, 144) configured to: - receive the digital input signal of the transmitter (46, 66, 136); - predistort the digital input signal of the transmitter (66, 136) according to a behavioral model of an inverse of a nonlinearity of the transmitter (66, 136); generate a digital passive intermodulation estimate signal that is an estimate of the passive intermodulation distortion in the digital output signal of the main receiver (48, 68, 138) based on the digital input signal of the transmitter (46, 66, 136) according to a behavioral model of the transmitter (46, 66, 136), a source of the passive intermodulation distortion, and the main receiver (48, 68, 138); and subtract the digital passive intermodulation estimate signal from the digital output signal of the main receiver (48, 68, 138) to thereby provide a compensated digital output signal. a transmitter (46, 66, 136) configured to receive a digital input signal and output a radio frequency transmit signal that is transmitted by the communication device (44, 64, 134); a main receiver (48, 68, 138) configured to receive a radio frequency receive signal and output a digital output signal, the digital output signal comprising passive intermodulation distortion that is a non-linear function of the radio frequency transmit signal output by the transmitter (46, 66, 136); a combined digital predistortion and passive intermodulation estimate generation subsystem (74, 144) configured to: - receive the digital input signal of the transmitter (46, 66, 136); - predistort the digital input signal of the transmitter (66, 136) according to a behavioral model of an inverse of a nonlinearity of the transmitter (66, 136); - receive the digital input signal of the transmitter (46, 66, 136); - predistort the digital input signal of the transmitter (66, 136) according to a behavioral model of an inverse of a nonlinearity of the transmitter (66, 136); generate a digital passive intermodulation estimate signal that is an estimate of the passive intermodulation distortion in the digital output signal of the main receiver (48, 68, 138) based on the digital input signal of the transmitter (46, 66, 136) according to a behavioral model of the transmitter (46, 66, 136), a source of the passive intermodulation distortion, and the main receiver (48, 68, 138); and subtract the digital passive intermodulation estimate signal from the digital output signal of the main receiver (48, 68, 138) to thereby provide a compensated digital output signal.
A device for detecting posture change, including: a photo interrupter, and a photoelectric baffle structure including: a base; a first cylinder, one end of the first cylinder is fixed on one side end surface of the base; and a plurality of baffle pieces fixed on a circular end surface of another end of the first cylinder; wherein, the plurality of baffle pieces include a first baffle piece and second baffle pieces other than the first baffle piece, the first baffle piece has a length specification different from that of the second baffle pieces, and there is a gap between every two adjacent baffle pieces, and an output signal from the photo interrupter changes according to the aligning relationship between the photo interrupter and the plurality of baffle pieces, wherein, after the device is mounted to a camera, one of the photoelectric baffle structure and the photo interrupter follows the motion of an operation part of the camera while the other one remains unmoved, so that the output signal from the photo interrupter changes according to a posture change of the operation part. a photo interrupter, and a photoelectric baffle structure including: a base; a first cylinder, one end of the first cylinder is fixed on one side end surface of the base; and a plurality of baffle pieces fixed on a circular end surface of another end of the first cylinder; a base; a first cylinder, one end of the first cylinder is fixed on one side end surface of the base; and a plurality of baffle pieces fixed on a circular end surface of another end of the first cylinder; wherein, the plurality of baffle pieces include a first baffle piece and second baffle pieces other than the first baffle piece, the first baffle piece has a length specification different from that of the second baffle pieces, and there is a gap between every two adjacent baffle pieces, and an output signal from the photo interrupter changes according to the aligning relationship between the photo interrupter and the plurality of baffle pieces, wherein, after the device is mounted to a camera, one of the photoelectric baffle structure and the photo interrupter follows the motion of an operation part of the camera while the other one remains unmoved, so that the output signal from the photo interrupter changes according to a posture change of the operation part.
A battery comprising a nickel or manganese cathode, an iron anode comprised of a single layer of a conductive substrate coated on at least one side with a coating comprising an iron active material and a polyvinyl alcohol binder, and an electrolyte comprised of sodium hydroxide, lithium hydroxide and sodium sulfide, with the amount of sulfide in the electrolyte ranging from 0.23 % to 0.75 % by weight of the electrolyte.
Method for positioning a motor vehicle comprising a longitudinal axis, a transverse axis and a vertical axis with respect to a fixed frame of reference comprising a reference longitudinal axis, a reference transverse axis and a reference vertical axis in the absence of action of a motor or engine that drives the motor vehicle, the method comprising a first step of transversely centering the vehicle with respect to a reference longitudinal-vertical plane (X, Z) that is invariable in the fixed frame of reference until the center of a first axle of the vehicle coincides or substantially coincides with the reference plane (X, Z), whatever the track width of the first axle of the vehicle, the method comprising a second step of positioning the vehicle with respect to the fixed frame of reference, comprising: - a positioning of the vehicle with respect to the fixed frame of reference along the reference longitudinal axis, and/or - a positioning of the vehicle with respect to the fixed frame of reference about the reference vertical axis so as to make a median longitudinal-vertical plane of the vehicle coincide with the reference longitudinal-vertical plane (X, Z), the method being characterized in that the second positioning step further comprises the placing of the two wheels of the first axle of the vehicle in a longitudinal positioning element by lowering a support element on which these wheels rest during the first centering step. - a positioning of the vehicle with respect to the fixed frame of reference along the reference longitudinal axis, and/or - a positioning of the vehicle with respect to the fixed frame of reference about the reference vertical axis so as to make a median longitudinal-vertical plane of the vehicle coincide with the reference longitudinal-vertical plane (X, Z), the method being characterized in that the second positioning step further comprises the placing of the two wheels of the first axle of the vehicle in a longitudinal positioning element by lowering a support element on which these wheels rest during the first centering step.
A method for safely processing a fluid, where the processing involves explosive vapor-gas species, the method comprising: receiving and transporting the fluid; processing the fluid, to form a processed fluid including a vapor-gas portion; measuring at least an indication of an explosiveness level of said vapor-gas portion; determining that said measurement of said vapor-gas portion exceeds a pre-determined threshold explosiveness level (PDTEL); condensing at least part of said vapor-gas portion, for forming a condensate, and an output vapor-gas whose explosiveness level is less than a lower explosion limit of said output vapor-gas; and then processing said output vapor-gas, to form a processed vapor-gas product. receiving and transporting the fluid; processing the fluid, to form a processed fluid including a vapor-gas portion; measuring at least an indication of an explosiveness level of said vapor-gas portion; determining that said measurement of said vapor-gas portion exceeds a pre-determined threshold explosiveness level (PDTEL); condensing at least part of said vapor-gas portion, for forming a condensate, and an output vapor-gas whose explosiveness level is less than a lower explosion limit of said output vapor-gas; and then processing said output vapor-gas, to form a processed vapor-gas product.
An apparatus, comprising: a first network control entity (122, 132, 142, 380, 381, 382, 450, 510) associated with a distributed multi-stage switch, the first network control entity configured to receive, from a management module, a set of identifiers different from a set of identifiers assigned to a second network control entity by the management module, the first network control entity configured to be associated with a Fibre Channel Domain corresponding to a Fibre Channel Domain associated with the second network control entity, the first network control entity configured to assign an identifier from its set of identifiers to a port in response to the first network control entity receiving a login request from the port, the first network control entity configured to receive, from the management module, an instance of an active zone set from a zone set database stored at the management module, the first network control entity configured to enforce the active zone set with respect to the port, and to receive a state change registration, SCR, request from the port and configured to modify at least one of an N-port detected events list or a fabric-detected events list, in response to the state change registration request. a first network control entity (122, 132, 142, 380, 381, 382, 450, 510) associated with a distributed multi-stage switch, the first network control entity configured to receive, from a management module, a set of identifiers different from a set of identifiers assigned to a second network control entity by the management module, the first network control entity configured to be associated with a Fibre Channel Domain corresponding to a Fibre Channel Domain associated with the second network control entity, the first network control entity configured to assign an identifier from its set of identifiers to a port in response to the first network control entity receiving a login request from the port, the first network control entity configured to receive, from the management module, an instance of an active zone set from a zone set database stored at the management module, the first network control entity configured to enforce the active zone set with respect to the port, and to receive a state change registration, SCR, request from the port and configured to modify at least one of an N-port detected events list or a fabric-detected events list, in response to the state change registration request.
A control system for adjusting downforce on a row unit for a seeding machine, the control system comprising: a memory; and a processor, wherein the processor is configured to receive signals from a depth sensor and to calculate furrow depths from the received signals, wherein the processor is configured to determine if the furrow is maintaining a consistent depth over a predetermined period of time, wherein the processor is configured to determine that the furrow depth is consistent if the calculated furrow depths are within a predetermined range over the predetermined period of time, and wherein the processor is configured to determine that the furrow depth is not consistent if the calculated furrow depths are not within the predetermined range over the predetermined period of time; wherein the processor is further configured to send signals to a downforce adjustment mechanism to adjust a downforce based on the calculated furrow depths to activate the downforce adjustment mechanism to increase the downforce if the processor has determined that the furrow depth is not consistent. a memory; and a processor, wherein the processor is configured to receive signals from a depth sensor and to calculate furrow depths from the received signals, wherein the processor is configured to determine if the furrow is maintaining a consistent depth over a predetermined period of time, wherein the processor is configured to determine that the furrow depth is consistent if the calculated furrow depths are within a predetermined range over the predetermined period of time, and wherein the processor is configured to determine that the furrow depth is not consistent if the calculated furrow depths are not within the predetermined range over the predetermined period of time; wherein the processor is further configured to send signals to a downforce adjustment mechanism to adjust a downforce based on the calculated furrow depths to activate the downforce adjustment mechanism to increase the downforce if the processor has determined that the furrow depth is not consistent.
An electrode assembly for a lithium secondary battery, comprising: a positive electrode in which a positive electrode mixture layer includes a positive electrode active material and a positive electrode additive represented by the following Chemical Formula 1; a negative electrode in which a negative electrode mixture layer includes a carbon material and a silicon (Si)-containing material as a negative electrode active material; and a separator located between the positive electrode and the negative electrode, wherein a content of the positive electrode additive ranges from 0.01 to 5 parts by weight based on 100 parts by weight of the positive electrode mixture layer, and a ratio of CR Lip /CR Si between a content percentage of the positive electrode additive CR Lip based on a total weight of the positive electrode mixture layer and a content percentage of the Si-containing material CR Si based on a total weight of the negative electrode mixture layer ranges from 0.03 to 0.30: [Chemical Formula 1] Li p Co (1-q) M 1 q O 4, in Chemical Formula 1, M 1 denotes at least one element selected from the group consisting of W, Cu, Fe, V, Cr, Ti, Zr, Zn, Al, In, Ta, Y, La, Sr, Ga, Sc, Gd, Sm, Ca, Ce, Nb, Mg, B, and Mo, and p and q are 5≤p≤7 and 0≤q≤0.5, respectively. a positive electrode in which a positive electrode mixture layer includes a positive electrode active material and a positive electrode additive represented by the following Chemical Formula 1; a negative electrode in which a negative electrode mixture layer includes a carbon material and a silicon (Si)-containing material as a negative electrode active material; and a separator located between the positive electrode and the negative electrode, wherein a content of the positive electrode additive ranges from 0.01 to 5 parts by weight based on 100 parts by weight of the positive electrode mixture layer, and a ratio of CR Lip /CR Si between a content percentage of the positive electrode additive CR Lip based on a total weight of the positive electrode mixture layer and a content percentage of the Si-containing material CR Si based on a total weight of the negative electrode mixture layer ranges from 0.03 to 0.30: [Chemical Formula 1] Li p Co (1-q) M 1 q O 4, in Chemical Formula 1, M 1 denotes at least one element selected from the group consisting of W, Cu, Fe, V, Cr, Ti, Zr, Zn, Al, In, Ta, Y, La, Sr, Ga, Sc, Gd, Sm, Ca, Ce, Nb, Mg, B, and Mo, and p and q are 5≤p≤7 and 0≤q≤0.5, respectively. M 1 denotes at least one element selected from the group consisting of W, Cu, Fe, V, Cr, Ti, Zr, Zn, Al, In, Ta, Y, La, Sr, Ga, Sc, Gd, Sm, Ca, Ce, Nb, Mg, B, and Mo, and p and q are 5≤p≤7 and 0≤q≤0.5, respectively.
A measurement instrument comprising: an analog-to-digital converter arranged to receive a test signal of arbitrary length and to produce a digital signal; an FFT module arranged to receive the digital signal and to produce a frequency domain output; characterized by a power calculator connected to the frequency domain output to measure power statistics related to power contained within a specified frequency band for the test signal of arbitrary length; and an accumulator (62, 64, 66, 68) arranged to store a power measurement value. an analog-to-digital converter arranged to receive a test signal of arbitrary length and to produce a digital signal; an FFT module arranged to receive the digital signal and to produce a frequency domain output; characterized by a power calculator connected to the frequency domain output to measure power statistics related to power contained within a specified frequency band for the test signal of arbitrary length; and an accumulator (62, 64, 66, 68) arranged to store a power measurement value.
A communication method, comprising: receiving, by a communication apparatus, configuration information from a network device, wherein the configuration information comprises position information of specific radio frames in a time unit, and position information of one or more specific subframes in each of the specific radio frames, wherein the time unit comprises 2 M radio frames, and the specific radio frames are two or more radio frames of the 2 M radio frames, where M is a nonnegative integer; and receiving, by the communication apparatus, service data in the one or more specific subframes from the network device; wherein the position information of the specific radio frames in the time unit is represented by an interval between two specific radio frames in the time unit, wherein the interval is 2 m, and 0≤m≤M. receiving, by a communication apparatus, configuration information from a network device, wherein the configuration information comprises position information of specific radio frames in a time unit, and position information of one or more specific subframes in each of the specific radio frames, wherein the time unit comprises 2 M radio frames, and the specific radio frames are two or more radio frames of the 2 M radio frames, where M is a nonnegative integer; and receiving, by the communication apparatus, service data in the one or more specific subframes from the network device; wherein the position information of the specific radio frames in the time unit is represented by an interval between two specific radio frames in the time unit, wherein the interval is 2 m, and 0≤m≤M.
A method (2000, 2400, 2500) for wireless communication, comprising: identifying (2005, 2405, 2505) that a first physical random access channel, PRACH, transmission received at a first reception time failed to be successfully decoded, the first PRACH transmission comprising a first control message; receiving (2010, 2410, 2510) a second PRACH transmission at a second reception time based at least in part on identifying the first PRACH transmission has failed to be successfully decoded, the second PRACH transmission comprising a second control message; identifying (2015, 2415, 2515) a common message portion present in both the first PRACH transmission and the second PRACH transmission based at least in part on the first control message and the second control message; determining (2020, 2420, 2520) a fixed timing between the first PRACH transmission and the second PRACH transmission based at least in part on the first reception time and the second reception time; extracting (2025, 2425) data that is common to both the first PRACH transmission and the second PRACH transmission based at least in part on the common message portion and the fixed timing. identifying (2005, 2405, 2505) that a first physical random access channel, PRACH, transmission received at a first reception time failed to be successfully decoded, the first PRACH transmission comprising a first control message; receiving (2010, 2410, 2510) a second PRACH transmission at a second reception time based at least in part on identifying the first PRACH transmission has failed to be successfully decoded, the second PRACH transmission comprising a second control message; identifying (2015, 2415, 2515) a common message portion present in both the first PRACH transmission and the second PRACH transmission based at least in part on the first control message and the second control message; determining (2020, 2420, 2520) a fixed timing between the first PRACH transmission and the second PRACH transmission based at least in part on the first reception time and the second reception time; extracting (2025, 2425) data that is common to both the first PRACH transmission and the second PRACH transmission based at least in part on the common message portion and the fixed timing.