mhurhangee/patent-ind-claim-en huggingface dataset:
Device for the standstill monitoring of vehicles, particularly rail vehicles, comprising at least - a logic unit for receiving and processing at least two incremental signals generated as a function of the rotation of a vehicle wheel; - a counting unit which increases or decreases a counter reading as a function of the at least two incremental signals processed by the logic unit ; - at least one comparator circuit for comparing the counter reading with a comparison value preset in the at least one comparator circuit and for outputting a result signal via a result line ; - a status element which is connected to the at least one comparator circuit via the result line and whose status changes at least as a function of the result signal; - an activation input for transmission of an activation signal to the counting unit and via a delay element to the status element , the activation signal setting the status element into an activated state; - a status output by means of which the state of the status element is issued; and - wherein a monitoring unit is provided for monitoring a supply voltage whose output is connected with the result line of the at least one comparator circuit to the status element via an OR logic gate . - a logic unit for receiving and processing at least two incremental signals generated as a function of the rotation of a vehicle wheel; - a counting unit which increases or decreases a counter reading as a function of the at least two incremental signals processed by the logic unit ; - at least one comparator circuit for comparing the counter reading with a comparison value preset in the at least one comparator circuit and for outputting a result signal via a result line ; - a status element which is connected to the at least one comparator circuit via the result line and whose status changes at least as a function of the result signal; - an activation input for transmission of an activation signal to the counting unit and via a delay element to the status element , the activation signal setting the status element into an activated state; - a status output by means of which the state of the status element is issued; and - wherein a monitoring unit is provided for monitoring a supply voltage whose output is connected with the result line of the at least one comparator circuit to the status element via an OR logic gate .
A coating method for a tube-type PERC solar cell, characterized in comprising: placing a graphite boat in a tubular PECVD coating device for baking the graphite boat at a temperature of 300-480°C for 10-60min; placing the graphite boat, which has been baked and taken out, in the tubular PECVD coating device again to coat a surface of the graphite boat with at least one layer of silicon carbide film; and placing a processed silicon wafer on the graphite boat and sending the processed silicon wafer via the graphite boat into the tubular PECVD coating device, so as to form a rear composite film on a surface of the silicon wafer, wherein the rear composite film includes an aluminum oxide film, a silicon dioxide film, a silicon oxynitride film and a silicon nitride film. placing a graphite boat in a tubular PECVD coating device for baking the graphite boat at a temperature of 300-480°C for 10-60min; placing the graphite boat, which has been baked and taken out, in the tubular PECVD coating device again to coat a surface of the graphite boat with at least one layer of silicon carbide film; and placing a processed silicon wafer on the graphite boat and sending the processed silicon wafer via the graphite boat into the tubular PECVD coating device, so as to form a rear composite film on a surface of the silicon wafer, wherein the rear composite film includes an aluminum oxide film, a silicon dioxide film, a silicon oxynitride film and a silicon nitride film.
Heat transfer device for controlling the temperature of batteries and power electronics components, in particular for an electric vehicle or a hybrid vehicle, having an inlet for a fluid and an outlet for the fluid, at least two fluid-conducting plate-formed heat exchanger elements , of which a first plate-formed heat exchanger element and a second plate-formed heat exchanger element are placed in planar contact with each other in order to transfer heat, wherein the second plate-formed heat exchanger element is designed to make planar contact with a heat transfer surface of a battery and/or of a power electronics component, wherein at least one fluid connection is formed between the first plate-formed heat exchanger element and the second plate-formed heat exchanger element so that the second plate-formed heat exchanger element can be flowed through by the fluid issuing from the first plate-formed heat exchanger element , wherein the first plate-formed heat exchanger element and the second plate-formed heat exchanger element are formed from three profiled plates which are arranged in a planar manner relative to each other and are, at least at the edges, connected to each other in a fluid-tight manner, wherein profilings of the plates form cavities between the plates acting as fluid passages , characterised in that the fluid connection between the planar-contacted plate-formed heat exchanger elements and fluid passages within the planar-contacted plate-formed heat exchanger elements are formed in such a way that the fluid within the fluid passage of the first plate-formed heat exchanger element is channelled in the same direction of flow as in the fluid passage in the second plate-formed heat exchanger element .
A method of monitoring a power saving-physical downlink control channel, PS-PDCCH, of a user equipment, UE, in a wireless communication system, the method comprising: receiving (S100) an offset relative to a starting slot of a discontinuous reception, DRX,-on duration; and monitoring (S200) the PS-PDCCH notifying power saving, PS, information in at least one PDCCH monitoring occasion, wherein the PS-PDCCH is not monitored in the DRX-on duration but monitored in the at least one PDCCH monitoring occasion located in a time window between a time indicated by the offset and the starting slot of the DRX-on duration. receiving (S100) an offset relative to a starting slot of a discontinuous reception, DRX,-on duration; and monitoring (S200) the PS-PDCCH notifying power saving, PS, information in at least one PDCCH monitoring occasion, wherein the PS-PDCCH is not monitored in the DRX-on duration but monitored in the at least one PDCCH monitoring occasion located in a time window between a time indicated by the offset and the starting slot of the DRX-on duration.
A system configured to generate a high frequency component of an audio signal from a low frequency component of the signal, the system comprising: - an analysis filter bank configured to provide a set of analysis subband signals from the low frequency component of the signal; wherein the set of analysis subband signals comprises at least two analysis subband signals, wherein the analysis filter bank has a frequency resolution of Δf ; - a nonlinear processing unit configured to determine a set of synthesis subband signals from the set of analysis subband signals using a transposition order P; wherein the nonlinear processing unit is configured to determine an n th synthesis subband signal of the set of synthesis subband signals from a k th analysis subband signal and a ( k +1) th analysis subband signal of the set of analysis subband signals; and - a synthesis filter bank configured to generate the high frequency component of the signal based on the set of synthesis subband signals, wherein the synthesis filter bank has a frequency resolution of FΔf , with F being a resolution factor, with F ≥ 1, wherein the transposition order P is different from the resolution factor F; wherein - the analysis filter bank has a number L A of analysis subbands, with L A > 1, where k is an analysis subband index with k = 0 ,..., L A - 1; and - the synthesis filter bank has a number L S of synthesis subbands, with L S > 0, where n is a synthesis subband index with n = 0 ,..., L S - 1. - an analysis filter bank configured to provide a set of analysis subband signals from the low frequency component of the signal; wherein the set of analysis subband signals comprises at least two analysis subband signals, wherein the analysis filter bank has a frequency resolution of Δf ; - a nonlinear processing unit configured to determine a set of synthesis subband signals from the set of analysis subband signals using a transposition order P; wherein the nonlinear processing unit is configured to determine an n th synthesis subband signal of the set of synthesis subband signals from a k th analysis subband signal and a ( k +1) th analysis subband signal of the set of analysis subband signals; and - a synthesis filter bank configured to generate the high frequency component of the signal based on the set of synthesis subband signals, wherein the synthesis filter bank has a frequency resolution of FΔf , with F being a resolution factor, with F ≥ 1, wherein the transposition order P is different from the resolution factor F; - the analysis filter bank has a number L A of analysis subbands, with L A > 1, where k is an analysis subband index with k = 0 ,..., L A - 1; and - the synthesis filter bank has a number L S of synthesis subbands, with L S > 0, where n is a synthesis subband index with n = 0 ,..., L S - 1.
Method for drawing in thread after the warp beam replacement in a warp knitting machine , comprising the steps: - connecting old warp threads , which are passed through eyelets of guide needles fastened to a guide bar of the warp knitting machine and form a knitted product drawn into a product draw-off device of the warp knitting machine , to replacement warp threads which belong to a warp beam newly inserted into the warp knitting machine , - drawing in the replacement warp threads , with the knitted product being drawn off by the product draw-off device , so that the old warp threads draw the replacement warp threads though the eyelets of the guide needles , characterised in that - during the drawing in of the replacement warp threads the warp beam is set into rotation by means of a warp beam drive of the warp knitting machine , so that the replacement warp threads are actively released by the warp beam , and in that - before the knitted product is drawn off, for the replacement warp threads to be drawn through the eyelets , all the stitches are knocked off by knitting needles of the warp knitting machine . - connecting old warp threads , which are passed through eyelets of guide needles fastened to a guide bar of the warp knitting machine and form a knitted product drawn into a product draw-off device of the warp knitting machine , to replacement warp threads which belong to a warp beam newly inserted into the warp knitting machine , - drawing in the replacement warp threads , with the knitted product being drawn off by the product draw-off device , so that the old warp threads draw the replacement warp threads though the eyelets of the guide needles , - during the drawing in of the replacement warp threads the warp beam is set into rotation by means of a warp beam drive of the warp knitting machine , so that the replacement warp threads are actively released by the warp beam , and in that - before the knitted product is drawn off, for the replacement warp threads to be drawn through the eyelets , all the stitches are knocked off by knitting needles of the warp knitting machine .
System for covering a luggage compartment of a motor vehicle, said system comprising: - two lateral supports , said supports each being provided with a guide rail , - a stationary panel covering the front part of said compartment, said panel comprising a first substantially planar and horizontal upper face , - a flap mounted so as to slide on said rails so as to be movable relative to said supports, said flap comprising a second substantially planar upper face , said flap being movable between: -- a position for covering said compartment in which it is arranged behind said panel, said faces lying substantially in the same plane, -- and a position for accessing said compartment in which said flap is moved so as to allow free access to said compartment, said system being characterised in that : - said flap is mounted so that said second face keeps its attitude during the transition from one position to the other, - said flap in the access position is raised and moved forward so as to cover said panel. - two lateral supports , said supports each being provided with a guide rail , - a stationary panel covering the front part of said compartment, said panel comprising a first substantially planar and horizontal upper face , - a flap mounted so as to slide on said rails so as to be movable relative to said supports, said flap comprising a second substantially planar upper face , said flap being movable between: -- a position for covering said compartment in which it is arranged behind said panel, said faces lying substantially in the same plane, -- and a position for accessing said compartment in which said flap is moved so as to allow free access to said compartment, said system being characterised in that : -- a position for covering said compartment in which it is arranged behind said panel, said faces lying substantially in the same plane, -- and a position for accessing said compartment in which said flap is moved so as to allow free access to said compartment, said system being characterised in that : - said flap is mounted so that said second face keeps its attitude during the transition from one position to the other, - said flap in the access position is raised and moved forward so as to cover said panel.
Force sensor , comprising: - a wall comprising an array of measurement cells , each measurement cell being filled with a filling material in which at least one inclusion of a substance is embedded, - for each cell, at least one light source arranged in order to illuminate the at least one inclusion embedded in this cell, - for each cell, a measurement system comprising at least one optical measurement point arranged in order to capture light originating from the at least one inclusion embedded in this cell, - for each cell, means arranged in order to convert optical signals originating from the measurement system of this cell to a signal representative of a force exerted on this cell, this signal being dependent on a movement of the at least one inclusion embedded within the filling material of this cell. - a wall comprising an array of measurement cells , each measurement cell being filled with a filling material in which at least one inclusion of a substance is embedded, - for each cell, at least one light source arranged in order to illuminate the at least one inclusion embedded in this cell, - for each cell, a measurement system comprising at least one optical measurement point arranged in order to capture light originating from the at least one inclusion embedded in this cell, - for each cell, means arranged in order to convert optical signals originating from the measurement system of this cell to a signal representative of a force exerted on this cell, this signal being dependent on a movement of the at least one inclusion embedded within the filling material of this cell.
An ex vivo method for making an immune cell resistant to an arginine depleted microenvironment comprising: modifying an immune cell by inactivating a gene encoding GCN2 by use of a rare-cutting endonuclease able to selectively inactivate said gene by DNA cleavage.
A user equipment for a mobile communication system, comprising: a receiver configured to receive a radio resource control, RRC, release message for transitioning the user equipment to a specific state, from a base station via a serving cell; and a controller configured to cause the user equipment to transition to the specific state in response to the reception of the RRC release message, wherein the RRC release message comprises: a radio access network, RAN, paging area identifier indicating a RAN paging area configured by the base station to the user equipment; and a public land mobile network, PLMN, identifier indicating a PLMN corresponding to the RAN paging area, wherein the controller is configured to perform a process of transmitting a notification to a cell when the user equipment moves to the cell that does not belong to the RAN paging area after transitioning to the specific state. a receiver configured to receive a radio resource control, RRC, release message for transitioning the user equipment to a specific state, from a base station via a serving cell; and a controller configured to cause the user equipment to transition to the specific state in response to the reception of the RRC release message, wherein the RRC release message comprises: a radio access network, RAN, paging area identifier indicating a RAN paging area configured by the base station to the user equipment; and a public land mobile network, PLMN, identifier indicating a PLMN corresponding to the RAN paging area, a radio access network, RAN, paging area identifier indicating a RAN paging area configured by the base station to the user equipment; and a public land mobile network, PLMN, identifier indicating a PLMN corresponding to the RAN paging area, wherein the controller is configured to perform a process of transmitting a notification to a cell when the user equipment moves to the cell that does not belong to the RAN paging area after transitioning to the specific state.
A sensor for locating metal objects, comprising coils or coil parts that form at least two transmitting coils (5.1, 5.7) and at least one receiving coil (7.1), which are inductively coupled to one another and are arranged to partly overlap for the purpose of decoupling interaction, wherein an optimal cancellation of the interaction may be achieved, and comprising a sensor electronics for supplying current to the transmitting coils while controlling the amplitude of the current supplied to the transmitting coils and for evaluating a received signal (10.6) from the receiving coil, wherein transmitting coils (5.1, 5.7) and receiving coil (7.1) essentially have an identical flat coil shape and are arranged twisted and/or offset with respect to one another, wherein a plurality of symmetrically arranged upper-lap regions (8.4) are formed, characterized in that the coil shape comprises meandering loop portions (5.2, 7.2) disposed along the periphery of the planar coil or coil parts, each loop portion being part of a winding of the coil or coil parts and comprising portions (5.3, 5.4) disposed at different radial spacings from the center of the coil and alternately connected to each other via portions (5.5)to form an electrical conductor
A method, comprising: determining, by a base station comprising a plurality of transmitting coils, a first plurality of mutual magnetic parameters characterizing mutual magnetic coupling between each transmitting coil of the plurality of transmitting coils and one or more receiving coils, at least one receiving coil associated with at least one electric or electronic device remotely located from and to be remotely powered by the base station; determining, by the base station, a plurality of control signals based on the first plurality of mutual magnetic parameters, each control signal of the plurality of control signals being associated with a corresponding transmitting coil of the plurality of transmitting coils; and using each control signal of the plurality of control signals to cause a driving circuit coupled to the transmitting coil corresponding to the control signal to cause a current with a magnitude and phase determined from the control signal to flow in said transmitting coil, wherein a different amount of power is provided via each of the transmit coils such that the efficiency of power transmission is optimized; wherein determining the plurality of control signals is further based on a second plurality of mutual magnetic parameters, each mutual magnetic parameter of the second plurality of mutual magnetic parameters being associated with a different pair of transmitting coils of the plurality of transmitting coils, the method further comprising determining, by the base station, the second plurality of mutual magnetic parameters. determining, by a base station comprising a plurality of transmitting coils, a first plurality of mutual magnetic parameters characterizing mutual magnetic coupling between each transmitting coil of the plurality of transmitting coils and one or more receiving coils, at least one receiving coil associated with at least one electric or electronic device remotely located from and to be remotely powered by the base station; determining, by the base station, a plurality of control signals based on the first plurality of mutual magnetic parameters, each control signal of the plurality of control signals being associated with a corresponding transmitting coil of the plurality of transmitting coils; and using each control signal of the plurality of control signals to cause a driving circuit coupled to the transmitting coil corresponding to the control signal to cause a current with a magnitude and phase determined from the control signal to flow in said transmitting coil, wherein a different amount of power is provided via each of the transmit coils such that the efficiency of power transmission is optimized; wherein determining the plurality of control signals is further based on a second plurality of mutual magnetic parameters, each mutual magnetic parameter of the second plurality of mutual magnetic parameters being associated with a different pair of transmitting coils of the plurality of transmitting coils, the method further comprising determining, by the base station, the second plurality of mutual magnetic parameters.
A charger for charging the traction battery of an electric vehicle having an input interface which has a direct current input and an alternating current input and via which either a direct current source or an alternating current source can be connected, and with an output interface to which the traction battery can be connected, and with a housing , within which at least a direct current line , which is led from the direct current input to the output interface , and an AC/DC converter whose input is connected to the AC input and which has a voltage output which can be connected or is connected to the DC line , characterized by this, in that an EMC filter is inserted into the DC line upstream of the output interface , and in that the voltage output of the AC/DC converter can be connected or is connected to the DC line leading to the input of the EMC filter via an output filter forming a line filter.
A fiber-reinforced resin article comprising a unidirectional fiber-reinforced resin sheet (UDS) and a plurality of chopped sheets (CS) located on at least one face of the unidirectional fiber-reinforced resin sheet, wherein the chopped sheets (CS) are small pieces of a unidirectional fiber-reinforced resin sheet that is the same as or differs from the unidirectional fiber-reinforced resin sheet (UDS), and the proportion of the chopped sheets (CS) relative to 100 parts by mass of the unidirectional fiber-reinforced resin sheet (UDS) is 40 parts by mass or more and 100 parts by mass or less. a unidirectional fiber-reinforced resin sheet (UDS) and a plurality of chopped sheets (CS) located on at least one face of the unidirectional fiber-reinforced resin sheet, wherein the chopped sheets (CS) are small pieces of a unidirectional fiber-reinforced resin sheet that is the same as or differs from the unidirectional fiber-reinforced resin sheet (UDS), and the proportion of the chopped sheets (CS) relative to 100 parts by mass of the unidirectional fiber-reinforced resin sheet (UDS) is 40 parts by mass or more and 100 parts by mass or less.