mhurhangee/ep-ind-claims huggingface dataset:
A system for operating a ballast car hopper door, comprising: an actuator (22, 110) mechanically coupled to a hopper door, the actuator (22, 110) operable to move the hopper door between open and closed positions; a door position sensor coupled to the hopper door and operable to generate an electrical signal corresponding to a position of the hopper door; at least one further system sensor operable to measure at least one system parameter corresponding to movement of the hopper door, wherein the system parameter is not a position of the hopper door; and logic and control circuitry (26, 118) in communication with the position sensor and the system sensor, wherein the logic and control circuitry (26, 118) is designed: to determine whether the position sensor is functioning properly using data obtained from the position sensor; to command the actuator (22, 110) to move the hopper door to a desired position; and if the position sensor is not functioning properly, to monitor real-time data from the at least one system sensor as the hopper door moves and to compare the real-time data to corresponding stored data to determine that the hopper door moved as commanded. an actuator (22, 110) mechanically coupled to a hopper door, the actuator (22, 110) operable to move the hopper door between open and closed positions; a door position sensor coupled to the hopper door and operable to generate an electrical signal corresponding to a position of the hopper door; at least one further system sensor operable to measure at least one system parameter corresponding to movement of the hopper door, wherein the system parameter is not a position of the hopper door; and logic and control circuitry (26, 118) in communication with the position sensor and the system sensor, wherein the logic and control circuitry (26, 118) is designed: to determine whether the position sensor is functioning properly using data obtained from the position sensor; to command the actuator (22, 110) to move the hopper door to a desired position; and if the position sensor is not functioning properly, to monitor real-time data from the at least one system sensor as the hopper door moves and to compare the real-time data to corresponding stored data to determine that the hopper door moved as commanded. to determine whether the position sensor is functioning properly using data obtained from the position sensor; to command the actuator (22, 110) to move the hopper door to a desired position; and if the position sensor is not functioning properly, to monitor real-time data from the at least one system sensor as the hopper door moves and to compare the real-time data to corresponding stored data to determine that the hopper door moved as commanded.
A method in a low power Radio Base Station, RBS, being associated to at least one macro RBS and configured to provide radio coverage in a cell of a heterogeneous cellular communication network for scheduling downlink transmissions to a user equipment, UE, connected to the low power RBS and being located in the cell, characterised in the method comprising: - receiving, by the low power RBS, a measurement report comprising a channel quality measurement from the UE, - adjusting, by the low power RBS, a current Signal to Noise and Interference, SINR, value based on the received measurement report for a period of an Almost Blank Subframe, ABS, of the at least one macro RBS associated with the low power RBS, - determining, by the low power RBS, downlink transmission parameters based on the adjusted SINR value, and - scheduling, by the low power RBS, a downlink transmission to the UE in a subframe of the low power RBS coinciding with an ABS of the at least one macro RBS using the determined downlink transmission parameters. - receiving, by the low power RBS, a measurement report comprising a channel quality measurement from the UE, - adjusting, by the low power RBS, a current Signal to Noise and Interference, SINR, value based on the received measurement report for a period of an Almost Blank Subframe, ABS, of the at least one macro RBS associated with the low power RBS, - determining, by the low power RBS, downlink transmission parameters based on the adjusted SINR value, and - scheduling, by the low power RBS, a downlink transmission to the UE in a subframe of the low power RBS coinciding with an ABS of the at least one macro RBS using the determined downlink transmission parameters.
A multi-module counterflow drying apparatus for drying material, the apparatus comprising: a material inlet for inputting material to the upper part of the apparatus; a material outlet for outputting dried material from the lower part of the apparatus; a heat inlet for inputting heat to the apparatus such that the heat traverses the apparatus in the opposite direction than the material; movable paddles configured to discontinuously move the material forward; characterised by a plurality of mutually interchangeable modules stacked on top of each other, wherein the material is configured to move in the apparatus from one module to another such that the movement direction of the material in a given module is opposite to the movement direction of the material in a module above or below the given module, wherein each module comprises said movable paddles, and wherein the paddles are configured to discontinuously move the material forward in the module. a material inlet for inputting material to the upper part of the apparatus; a material outlet for outputting dried material from the lower part of the apparatus; a heat inlet for inputting heat to the apparatus such that the heat traverses the apparatus in the opposite direction than the material; movable paddles configured to discontinuously move the material forward; characterised by a plurality of mutually interchangeable modules stacked on top of each other, wherein the material is configured to move in the apparatus from one module to another such that the movement direction of the material in a given module is opposite to the movement direction of the material in a module above or below the given module, wherein each module comprises said movable paddles, and wherein the paddles are configured to discontinuously move the material forward in the module.
A biopsy device, the biopsy device comprising at least one tissue sample holder, wherein the tissue sample holder comprises: (i) a plurality of strips (1350, 1450), wherein the strips (1350, 1450) are configured to be axially received within one or more of a plurality of chambers defined by a portion of the biopsy device, wherein at least one strip is configured to receive a tissue sample, and (ii) a flexible member, wherein the flexible member joins at least one strip of the strips (1350, 1450) to another strip, wherein the strips (1350, 1450) are configured to pivot relative to the flexible member such that the strips (1350, 1450) are positioned flat or arcuate relative to one another; and wherein one or more strips of the plurality of the strips (1350, 1450) includes two sidewalls (1342, 1442) and a floor (1344, 1444) extending longitudinally between a back wall and a front portion, wherein the sidewalls, floor, back wall and front portion define a tissue sample chamber (1346, 1446), characterized in that each sidewall (1342, 1442) includes a wing (1340, 1440), wherein the wing (1340, 1440) of each sidewall (1342, 1442) extends along a longitudinal length of each sidewall (1342, 1442), wherein each wing (1340, 1440) extends laterally from each sidewall (1342, 1442), wherein the wings (1340, 1440) of each sidewall (1342, 1442) are configured to seal against one or both of: (i) a sidewall of the chambers defined by the biopsy device, or (ii) a top portion of the chambers defined by the biopsy device. (i) a plurality of strips (1350, 1450), wherein the strips (1350, 1450) are configured to be axially received within one or more of a plurality of chambers defined by a portion of the biopsy device, wherein at least one strip is configured to receive a tissue sample, and (ii) a flexible member, wherein the flexible member joins at least one strip of the strips (1350, 1450) to another strip, wherein the strips (1350, 1450) are configured to pivot relative to the flexible member such that the strips (1350, 1450) are positioned flat or arcuate relative to one another; and (i) a sidewall of the chambers defined by the biopsy device, or (ii) a top portion of the chambers defined by the biopsy device.
An apparatus comprising: means for processing a first signal to obtain a second signal; means for processing a third signal to obtain a fourth signal; and means for performing impedance matching between the means for processing the first signal and the means for processing the third signal, the means for performing impedance matching comprising a tunable capacitor that can be varied in discrete steps to adjust the impedance matching, wherein the tunable capacitor comprises a plurality of capacitors (632a,..., 632m) coupled in parallel, and a plurality of switches (636a1,..., 636aL;...; 636m1,..., 636mL) coupled to the plurality of capacitors (632a,..., 632m), one switch (636a1,...,636aL;...; 636m1,..., 636mL) for each capacitor (632a,..., 632m), wherein each switch (636a1,...,636aL;...; 636m1,..., 636mL) is implemented with a plurality of N-channel metal oxide semiconductor, NMOS, transistors coupled in a stack, wherein each transitor in the stack receives a same respective digital control signal (S1,..., SM), and wherein each switch (636a1,..., 636aL;...; 636m1,..., 636mL) is turned on to select an associated capacitor or turned off to unselect the associated capacitor, and wherein the plurality of switchable capacitors (632a,..., 632m) have binary weighted capacitance values. means for processing a first signal to obtain a second signal; means for processing a third signal to obtain a fourth signal; and means for performing impedance matching between the means for processing the first signal and the means for processing the third signal, the means for performing impedance matching comprising a tunable capacitor that can be varied in discrete steps to adjust the impedance matching, wherein the tunable capacitor comprises a plurality of capacitors (632a,..., 632m) coupled in parallel, and a plurality of switches (636a1,..., 636aL;...; 636m1,..., 636mL) coupled to the plurality of capacitors (632a,..., 632m), one switch (636a1,...,636aL;...; 636m1,..., 636mL) for each capacitor (632a,..., 632m), wherein each switch (636a1,...,636aL;...; 636m1,..., 636mL) is implemented with a plurality of N-channel metal oxide semiconductor, NMOS, transistors coupled in a stack, wherein each transitor in the stack receives a same respective digital control signal (S1,..., SM), and wherein each switch (636a1,..., 636aL;...; 636m1,..., 636mL) is turned on to select an associated capacitor or turned off to unselect the associated capacitor, and wherein the plurality of switchable capacitors (632a,..., 632m) have binary weighted capacitance values.
A system for deploying loads out of an aircraft, comprising - an aerial delivery parachute with an aerial-delivery parachute line, - an activation means for placing the aerial delivery parachute in an enveloping flow past the aircraft, the system further comprising a receiving device for wirelessly receiving signals or data; a first force measuring device that is connected to the aerial-delivery parachute line for measuring a tractive force acting on the aerial-delivery parachute line in a series connection, wherein the first force measuring device is either arranged directly on the aerial-delivery parachute at a connection point of several aerial-delivery parachute lines or the aerial-delivery parachute line is subdivided, and the first force measuring device is attached between the individual parts of the aerial delivery parachute line; and a first autarkical voltage supply as well as a wireless first transmitting device that is connected to the first autarkical voltage supply, wherein the first transmitting device is equipped to transmit to the receiving device signals and/or data representing acquired measuring data. - an aerial delivery parachute with an aerial-delivery parachute line, - an activation means for placing the aerial delivery parachute in an enveloping flow past the aircraft,
Method for providing a ballasting proposal for an agricultural tractor, in which method a target tractive power specific to a selected implement is calculated by multiplying a target tractive force that is required for operating the selected implement by the specific cultivation speed for each of the axles (24, 30) of the agricultural tractor, taking into account a specific soil cultivation speed of the selected implement, wherein, depending on the calculated target tractive power on the basis of the tractive capacity of associated tyres, a contact force that is required for transmitting a drive power corresponding to the calculated target tractive power and, from this contact force, a target value for an axle load, which target value is to be maintained on the axle (24, 30) in question, are derived for each of the axles (24, 30) of the agricultural tractor and the target value is compared with an actual value that is ascertained for the axle load, wherein, based on the comparison result, ballasting for each axle that is required for maintaining the target value is calculated and output in the form of an associated ballasting proposal, wherein a starting value that is characteristic of the respectively selected implement is defined for the required target tractive force, the starting value being modified in accordance with information relating to the soil condition and/or topographical properties including a topographical profile.
Drive unit for an auxiliary drive of externally moved vehicles, in particular trailers, the drive unit (10, 11) having a drive train with a preferably electric motor traction drive, a transmission and a driving wheel which acts on a vehicle wheel, the drive unit (10, 11) having a clutch device which is arranged in the drive train, characterized in that the clutch device transmits a rotation which is introduced on the drive side and blocks or brakes a rotation which is introduced on the output side.
A positive resist composition comprising a resin that increases solubility in a developing solution by the action of an acid and comprises (a) a repeating unit containing a group that is decomposed by the action of an acid to become alkali-soluble, (b) a repeating unit containing an alicyclic lactone structure, (c) a repeating unit containing an alicyclic structure substituted with a hydroxy group and (d) a methacrylic acid repeating unit, wherein an amount of the methacrylic acid repeating unit is from 5 to 18% by mole based on the total repeating units of the resin, and a compound that generates an acid upon irradiation of an actinic ray or radiation, wherein the alicyclic lactone structure contained in the repeating unit (b) is a structure represented by formula (a-1) or (a-3): wherein R 1 to R 6 each independently represent a hydrogen atom, an alkyl group, a cycloalkyl group, an alkenyl group or -COOR a, wherein R a represents an alkyl group, and two of R 1 to R 6 may be combined with each other to form a ring, and wherein the positive resist composition does not comprise 10 g of the resin having the following structure, 0.7 g of the compound having the following structure, 0.02 g of 2,6-diisopropylaniline, 0.02 g of N-phenyldiethanolamine, 0.03 g of TROYSOL ® S-366 as a surfactant and a solvent consisting of propyleneglycolmethyl ether acetate and propyleneglycol methyl ether in a weight ratio of 60/40:.
Method for the chip-producing processing of a workpiece on a processing machine with a tool axis, a CNC-controlled workpiece axis, and a fluid supply apparatus, which emits fluid under pressure through at least one discharge nozzle towards a processing zone, whereby a tool, which is mounted at a tool spindle to be rotatable about the tool axis and the workpiece about the workpiece axis, characterized in that the method comprises the following steps: - carrying out a computer-aided simulation of the motion sequences of the tool and the workpiece planned, which are being carried out when the processing of the workpiece is being carried out, in order to define a 3-dimensional collision area (KA, KB, KR), which, during the processing of the workpiece, is being passed through by the tool and/or the workpiece, - computer-aided definition of at least one possible position (P1, P7) for mounting of a discharge nozzle on the fluid supply apparatus, whereby this position lies outside the 3-dimensional collision area (KA, KB, KR) and whereby this position enables a direct line of a fluid jet between the discharge nozzle and the processing zone, and that - the fluid supply apparatus is annularly arranged around the tool spindle, - and the fluid supply apparatus follows the movements, which the tool performs, in the 3-dimensional space, whereby the fluid supply apparatus does not rotate with the tool spindle. - carrying out a computer-aided simulation of the motion sequences of the tool and the workpiece planned, which are being carried out when the processing of the workpiece is being carried out, in order to define a 3-dimensional collision area (KA, KB, KR), which, during the processing of the workpiece, is being passed through by the tool and/or the workpiece, - computer-aided definition of at least one possible position (P1, P7) for mounting of a discharge nozzle on the fluid supply apparatus, whereby this position lies outside the 3-dimensional collision area (KA, KB, KR) and whereby this position enables a direct line of a fluid jet between the discharge nozzle and the processing zone, and that - the fluid supply apparatus is annularly arranged around the tool spindle, - and the fluid supply apparatus follows the movements, which the tool performs, in the 3-dimensional space, whereby the fluid supply apparatus does not rotate with the tool spindle.
A method for determining a fast charging current limit of a battery cell, the method comprising: dividing a process of charging the battery cell into n charging stages based on electric quantity; characterized in that, the method further comprising: determining a rebound potential value and a polarization potential value of each charging stage and a difference value between allowable lowest negative electrode potentials of adjacent charging stages in an order from larger to smaller values of n; calculating one or more charging current values of each charging stage based on the rebound potential value and the polarization potential value of the charging stage and the difference value between the allowable lowest negative electrode potentials of adjacent charging stages; and determining target fast charging current limits corresponding to different charging stages that satisfy a preset condition based on the one or more charging current values of each of the n charging stages. dividing a process of charging the battery cell into n charging stages based on electric quantity; characterized in that, the method further comprising: determining a rebound potential value and a polarization potential value of each charging stage and a difference value between allowable lowest negative electrode potentials of adjacent charging stages in an order from larger to smaller values of n; calculating one or more charging current values of each charging stage based on the rebound potential value and the polarization potential value of the charging stage and the difference value between the allowable lowest negative electrode potentials of adjacent charging stages; and determining target fast charging current limits corresponding to different charging stages that satisfy a preset condition based on the one or more charging current values of each of the n charging stages. determining a rebound potential value and a polarization potential value of each charging stage and a difference value between allowable lowest negative electrode potentials of adjacent charging stages in an order from larger to smaller values of n; calculating one or more charging current values of each charging stage based on the rebound potential value and the polarization potential value of the charging stage and the difference value between the allowable lowest negative electrode potentials of adjacent charging stages; and determining target fast charging current limits corresponding to different charging stages that satisfy a preset condition based on the one or more charging current values of each of the n charging stages.
A method for performing uplink transmission, the method performed by a user equipment UE and comprising: receiving a value used to generate a demodulation reference signal DMRS for physical shared channel PUSCH, wherein the DMRS for the PUSCH is generated based on a first parameter related to the received value and a second parameter related to a pseudo-random sequence; generating a DMRS for physical uplink control channel PUCCH based on a third parameter, a fourth parameter, and a fifth parameter, wherein the third parameter is equal to the first parameter and the fourth parameter is equal to the second parameter, and wherein the fifth parameter is for the PUCCH; and transmitting the DMRS for the PUCCH. receiving a value used to generate a demodulation reference signal DMRS for physical shared channel PUSCH, wherein the DMRS for the PUSCH is generated based on a first parameter related to the received value and a second parameter related to a pseudo-random sequence; generating a DMRS for physical uplink control channel PUCCH based on a third parameter, a fourth parameter, and a fifth parameter, wherein the third parameter is equal to the first parameter and the fourth parameter is equal to the second parameter, and wherein the fifth parameter is for the PUCCH; and transmitting the DMRS for the PUCCH.
A method of wireless communications, comprising: performing, by a user equipment, UE, a cell search to obtain a cell identification, ID; decoding, by the UE, a message based on the cell ID, wherein the message includes a master information block, MIB; identifying, by the UE, a virtual cell ID used for single frequency network, SFN,-type transmissions of one or more minimum system information blocks, MSIBs, based on information decoded from the MIB; determining, based on a flag in the MIB whether the virtual cell ID for the one or more MSIBs may also be used for one or more processes including random access, other system information, OSI, and/or paging; and if it is determined that the virtual cell ID for the one or more MSIBs may not be used for the one or more processes, identifying, by the UE, a virtual cell ID for SFN-type transmissions for at least one of the one or more processes, based on information decoded from an MSIB or from OSI. performing, by a user equipment, UE, a cell search to obtain a cell identification, ID; decoding, by the UE, a message based on the cell ID, wherein the message includes a master information block, MIB; identifying, by the UE, a virtual cell ID used for single frequency network, SFN,-type transmissions of one or more minimum system information blocks, MSIBs, based on information decoded from the MIB; determining, based on a flag in the MIB whether the virtual cell ID for the one or more MSIBs may also be used for one or more processes including random access, other system information, OSI, and/or paging; and if it is determined that the virtual cell ID for the one or more MSIBs may not be used for the one or more processes, identifying, by the UE, a virtual cell ID for SFN-type transmissions for at least one of the one or more processes, based on information decoded from an MSIB or from OSI.