mhurhangee/ep-ind-claims huggingface dataset:
A battery, comprising: a plurality of battery cells arranged along a first direction; and a thermal management component extending along the first direction and being connected to a first wall of each battery cell of the plurality of battery cells, the first wall being a wall with a largest surface area of the battery cell; the thermal management component comprising a flow channel for accommodating a fluid to adjust a temperature of the battery cell; a second direction being perpendicular to the first wall; wherein, a size of the flow channel in the second direction is W, and a capacity Q of the battery cell and the size W of the flow channel satisfy: 1.0Ah/mm≤Q/W≤400Ah/mm; wherein the battery comprises a plurality of the battery cells arranged in a plurality of columns along the first direction and a plurality of the thermal management components, wherein the plurality of columns of the battery cells and the plurality of the thermal management components are alternately disposed in the second direction. a plurality of battery cells arranged along a first direction; and a thermal management component extending along the first direction and being connected to a first wall of each battery cell of the plurality of battery cells, the first wall being a wall with a largest surface area of the battery cell; the thermal management component comprising a flow channel for accommodating a fluid to adjust a temperature of the battery cell; a second direction being perpendicular to the first wall; wherein, a size of the flow channel in the second direction is W, and a capacity Q of the battery cell and the size W of the flow channel satisfy: 1.0Ah/mm≤Q/W≤400Ah/mm; wherein the battery comprises a plurality of the battery cells arranged in a plurality of columns along the first direction and a plurality of the thermal management components, wherein the plurality of columns of the battery cells and the plurality of the thermal management components are alternately disposed in the second direction.
An induction heating device comprising: a first board having, thereon: a first working coil; a first inverter for performing a switching operation to apply a resonant current to the first working coil; and a first control unit configured for controlling an operation of the first inverter; and a second board having, thereon: a second working coil; a second inverter for performing a switching operation to apply a resonant current to the second working coil; and a second control unit configured for controlling an operation of the second inverter, wherein the first control unit is configured for enabling the first and second working coils (WC1, WC2) to operate concurrently at an in-phase or 180-degrees out-of-phase, characterized in that when the first and second working coils (WC1, WC2) operate concurrently, the first control unit is configured to control the operations of both the first and second inverters (IVI, IV2). a first board having, thereon: a first working coil; a first inverter for performing a switching operation to apply a resonant current to the first working coil; and a first control unit configured for controlling an operation of the first inverter; and a first working coil; a first inverter for performing a switching operation to apply a resonant current to the first working coil; and a first control unit configured for controlling an operation of the first inverter; and a second board having, thereon: a second working coil; a second inverter for performing a switching operation to apply a resonant current to the second working coil; and a second control unit configured for controlling an operation of the second inverter, a second working coil; a second inverter for performing a switching operation to apply a resonant current to the second working coil; and a second control unit configured for controlling an operation of the second inverter, wherein the first control unit is configured for enabling the first and second working coils (WC1, WC2) to operate concurrently at an in-phase or 180-degrees out-of-phase, characterized in that when the first and second working coils (WC1, WC2) operate concurrently, the first control unit is configured to control the operations of both the first and second inverters (IVI, IV2).
A method for identifying and selecting a wireless device that is to be remotely controlled by a Remote Control Appliance, RCA, for media presentation in a vehicle, wherein the RCA is separate and distinct from a vehicle head unit of the vehicle, the method comprising: responsive to an occurrence of a vehicle operation, the RCA broadcasting a Bluetooth Low Energy, BLE, advertising message receivable by one or several wireless devices located in a vicinity of the RCA; responsive to a receipt of a broadcasted BLE advertising message from the RCA, in each one of the wireless devices located in the vicinity of the RCA: initiating a checking operation to determine whether the wireless device is paired or is in a current cabled connection with a vehicle head unit of the vehicle; and upon a determination that the wireless device is paired or is in a current cabled connection with the vehicle head unit, authorizing the wireless device for subsequent communication with the RCA to enable the RCA to remotely control the media presentation as presented by an application module of the wireless device. responsive to an occurrence of a vehicle operation, the RCA broadcasting a Bluetooth Low Energy, BLE, advertising message receivable by one or several wireless devices located in a vicinity of the RCA; responsive to a receipt of a broadcasted BLE advertising message from the RCA, in each one of the wireless devices located in the vicinity of the RCA: initiating a checking operation to determine whether the wireless device is paired or is in a current cabled connection with a vehicle head unit of the vehicle; and upon a determination that the wireless device is paired or is in a current cabled connection with the vehicle head unit, authorizing the wireless device for subsequent communication with the RCA to enable the RCA to remotely control the media presentation as presented by an application module of the wireless device.
Plug intended to be fastened onto a valve of a tyre inflated with a gas and intended to function with an equipment for testing a calibrated leak of gas out of said tyre, characterised in that is comprises a means for pressure on the valve member of the valve and an orifice having a calibrated cross-section letting a predetermined flow rate of gas escape, said orifice is calibrated by insertion of a sintered membrane.
A vehicular system comprising: a control system configured to autonomously control a vehicle based on vehicular control instructions; and a connector coupled to a roof of the vehicle configured to enable a housing of a sensor unit to couple to the vehicle, wherein the connector comprises: a power supply connection; and a data bus, wherein the data bus is coupled to the control system and configured to provide the vehicular control instructions from the sensor unit to the control system, wherein the vehicular control instructions indicate a path for the vehicle to autonomously navigate based on objects determined to be in an environment of the vehicle, wherein the vehicular control instructions are determined by a processing system positioned locally in the housing of the sensor unit based on sensor data from a plurality of sensors (310, 312, 314) positioned in the housing of the sensor unit. a control system configured to autonomously control a vehicle based on vehicular control instructions; and a connector coupled to a roof of the vehicle configured to enable a housing of a sensor unit to couple to the vehicle, wherein the connector comprises: a power supply connection; and a data bus, wherein the data bus is coupled to the control system and configured to provide the vehicular control instructions from the sensor unit to the control system, wherein the vehicular control instructions indicate a path for the vehicle to autonomously navigate based on objects determined to be in an environment of the vehicle, wherein the vehicular control instructions are determined by a processing system positioned locally in the housing of the sensor unit based on sensor data from a plurality of sensors (310, 312, 314) positioned in the housing of the sensor unit. a power supply connection; and a data bus, wherein the data bus is coupled to the control system and configured to provide the vehicular control instructions from the sensor unit to the control system, wherein the vehicular control instructions indicate a path for the vehicle to autonomously navigate based on objects determined to be in an environment of the vehicle, wherein the vehicular control instructions are determined by a processing system positioned locally in the housing of the sensor unit based on sensor data from a plurality of sensors (310, 312, 314) positioned in the housing of the sensor unit.
Shaft furnace, in particular a cupola furnace, for melting a metal-containing feedstock, with at least one nozzle device, the nozzle device comprising an outlet nozzle for discharging a residual blast, which is connected at its downstream end to a residual blast pipe, a driving nozzle for supplying an oxygen-containing conveying medium, which is connected at its downstream end to a conveying medium pipe; an injector blast pipe connected to the conveying medium pipe or the driving nozzle, wherein the outlet end of the driving nozzle is provided with an injector lance and the injector lance is arranged in the outlet nozzle in such a way that the outlet nozzle concentrically surrounds the injector lance, wherein the driving nozzle is formed in such a way that, in the driving nozzle, the conveying medium is accelerated and an injector blast is sucked in by means of the negative pressure produced during the acceleration of the conveying medium and is brought together with the conveying medium to form a driving nozzle flow and that the driving nozzle flow and a residual blast are directed into the shaft furnace, characterized in that the nozzle device comprises at least one fuel lance (13, 20), which is an integral part of the nozzle device and the downstream end of which is connected to a fuel pipe, wherein the nozzle device is formed in such a way that the driving nozzle flow entrains fuel, so that the driving nozzle flow mixes with the residual blast and with the fuel, and the resulting driving nozzle flow is injected into the shaft furnace via the nozzle device.
A metal-organic framework comprising: a tetravalent Group 4 element ion or a tetravalent rare earth ion as a metal ion; and an ion of a first organic molecule having a trimesic acid skeleton and an ion of a second organic molecule having an isophthalic acid skeleton as multidentate ligands, wherein: the ion of a first organic molecule having a trimesic acid skeleton is a trimesate ion or is of Formula: in which R represents a substituent selected from a hydroxy group, a nitro group, a fluoro group, a chloro group, a bromo group, an iodine group, a methyl group, an ethyl group and a tert-butyl group, and n represents a natural number of 1 to 3, and the ion of a second organic molecule having an isophthalic acid skeleton is an isophthalate ion or is of Formula: in which R represents a substituent selected from a hydroxy group, a nitro group, a fluoro group, a chloro group, a bromo group, an iodine group, a methyl group, an ethyl group and a tert-butyl group, and n represents a natural number of 1 to 4. a tetravalent Group 4 element ion or a tetravalent rare earth ion as a metal ion; and an ion of a first organic molecule having a trimesic acid skeleton and an ion of a second organic molecule having an isophthalic acid skeleton as multidentate ligands, wherein: the ion of a first organic molecule having a trimesic acid skeleton is a trimesate ion or is of Formula: in which R represents a substituent selected from a hydroxy group, a nitro group, a fluoro group, a chloro group, a bromo group, an iodine group, a methyl group, an ethyl group and a tert-butyl group, and n represents a natural number of 1 to 3, and the ion of a second organic molecule having an isophthalic acid skeleton is an isophthalate ion or is of Formula: in which R represents a substituent selected from a hydroxy group, a nitro group, a fluoro group, a chloro group, a bromo group, an iodine group, a methyl group, an ethyl group and a tert-butyl group, and n represents a natural number of 1 to 4. the ion of a first organic molecule having a trimesic acid skeleton is a trimesate ion or is of Formula: in which R represents a substituent selected from a hydroxy group, a nitro group, a fluoro group, a chloro group, a bromo group, an iodine group, a methyl group, an ethyl group and a tert-butyl group, and n represents a natural number of 1 to 3, and the ion of a second organic molecule having an isophthalic acid skeleton is an isophthalate ion or is of Formula: in which R represents a substituent selected from a hydroxy group, a nitro group, a fluoro group, a chloro group, a bromo group, an iodine group, a methyl group, an ethyl group and a tert-butyl group, and n represents a natural number of 1 to 4.
A method comprising: - collecting, by an onboard data service, sensor data from a vehicle based source; - signing the collected sensor data, by the onboard data service, using an enhanced privacy identifier, EPID, private key to generate signature information; - transmitting the sensor data and the signature information from the onboard data service to a trusted cloud service; - transmitting the sensor data and the signature information, by the trusted cloud service, to a subscriber; - authenticating the sensor data, by the subscriber, using a EPID public key; wherein, prior to transmitting the sensor data, one of the onboard data service and the trusted cloud service encrypts the collected sensor data using a public key, characterized in that the EPID public key is associated to a pre-defined group so that the subscriber can verify that the sensor data was signed by a member of the group without identifying the vehicle based source. - collecting, by an onboard data service, sensor data from a vehicle based source; - signing the collected sensor data, by the onboard data service, using an enhanced privacy identifier, EPID, private key to generate signature information; - transmitting the sensor data and the signature information from the onboard data service to a trusted cloud service; - transmitting the sensor data and the signature information, by the trusted cloud service, to a subscriber; - authenticating the sensor data, by the subscriber, using a EPID public key;
A communications method, wherein the method comprises: determining, by a session management network element based on a session context of a current protocol data unit, PDU, session for a terminal apparatus, that the current PDU session is a non-always-on session; and sending, to the terminal apparatus by the session management network element, first indication information when the session management network element determines, based on first information, to establish a first low-latency service flow for the current PDU session, wherein the first information comprises at least one of the following: local configuration information, subscription data, or a first quality of service, QoS parameter; and the first indication information is used to indicate the terminal apparatus to modify the current PDU session to an always-on session. determining, by a session management network element based on a session context of a current protocol data unit, PDU, session for a terminal apparatus, that the current PDU session is a non-always-on session; and sending, to the terminal apparatus by the session management network element, first indication information when the session management network element determines, based on first information, to establish a first low-latency service flow for the current PDU session, wherein the first information comprises at least one of the following: local configuration information, subscription data, or a first quality of service, QoS parameter; and the first indication information is used to indicate the terminal apparatus to modify the current PDU session to an always-on session.
A flow-actuated valve (2,17) for use in a wellbore, comprising: a body; a poppet movable relative to the body between an open position and a closed position; and a spring biasing the poppet toward the closed position; characterized in that the valve (2,17) further comprises: a shifter (8,18,19,21-23,26) having a drogue and a detent engaged with a detent profile of the poppet and a locking receptacle of the body when in an auto-fill mode, thereby keeping the poppet in a partially open position, wherein: the valve (2,17) is operable to shift to a float mode in response to a first flow rate moving the poppet toward the open position to disengage the detent from the locking receptacle and a second flow rate imparting a drag force on the drogue sufficient to disengage the detent from the detent profile, and the second flow rate is different than the first flow rate. a body; a poppet movable relative to the body between an open position and a closed position; and a spring biasing the poppet toward the closed position; characterized in that the valve (2,17) further comprises: a shifter (8,18,19,21-23,26) having a drogue and a detent engaged with a detent profile of the poppet and a locking receptacle of the body when in an auto-fill mode, thereby keeping the poppet in a partially open position, wherein: the valve (2,17) is operable to shift to a float mode in response to a first flow rate moving the poppet toward the open position to disengage the detent from the locking receptacle and a second flow rate imparting a drag force on the drogue sufficient to disengage the detent from the detent profile, and the second flow rate is different than the first flow rate. a shifter (8,18,19,21-23,26) having a drogue and a detent engaged with a detent profile of the poppet and a locking receptacle of the body when in an auto-fill mode, thereby keeping the poppet in a partially open position, wherein: the valve (2,17) is operable to shift to a float mode in response to a first flow rate moving the poppet toward the open position to disengage the detent from the locking receptacle and a second flow rate imparting a drag force on the drogue sufficient to disengage the detent from the detent profile, and the second flow rate is different than the first flow rate. the valve (2,17) is operable to shift to a float mode in response to a first flow rate moving the poppet toward the open position to disengage the detent from the locking receptacle and a second flow rate imparting a drag force on the drogue sufficient to disengage the detent from the detent profile, and the second flow rate is different than the first flow rate.
A device for handling membranes, in particular for fuel cells, comprising a membrane storage station ( A 2)and means for conveying and handling a membrane from the storage station ( A 2) to a receiving station and the conveying and handling means comprise suction gripping means, characterized in that the membrane storage station ( A 2) comprises a membrane stacking storage magazine which is guided to move in a given direction on a stationary frame carrying means for damping and returning the magazine ( A 2) to a predetermined position in the absence of a supporting force exerted on the magazine ( A 2) in said direction by the suction gripping means.
Two-disc spreader with a spreading material container which has two funnel-shaped lower parts (8, 9) each having a rotatable base (14, 15) with metering devices arranged thereon, the metering devices each consisting of a metering opening (16, 17) and a controllable metering slide for dispensing the spreading material at adjustable spreading rates, and with two rotatingly driven distributor discs (3, 4), wherein, in order to shift the feeding point of the metered spreading material onto the distributor disc (3, 4), an electric cylinder (26, 27) is provided which is linked in a fixed position and, with its displacement, rotates the base (14, 15) together with the metering device, characterized in that the electric cylinder (26, 27) is arranged substantially transversely with respect to the direction of travel of the spreader in the region between the distributor discs (3, 4) and offset forwards in the direction of travel in relation to the axes thereof and acts on the rotatable base (14, 15) via a respective lever linkage with an outwardly extending link rod (41, 42).
A method performed by a network element for transitioning a radio resource control state on a user equipment, the method comprising: receiving a first transition indication from the user equipment; responsive to the first transition indication, sending to the user equipment a first state transition message; the method further characterized by: receiving a second transition indication from the user equipment, the second transition indication being received within a predetermined time period from the receipt of the first transition indication; and responsive to the second transition indication, not sending to the user equipment a second state transition message. receiving a first transition indication from the user equipment; responsive to the first transition indication, sending to the user equipment a first state transition message; the method further characterized by: receiving a second transition indication from the user equipment, the second transition indication being received within a predetermined time period from the receipt of the first transition indication; and responsive to the second transition indication, not sending to the user equipment a second state transition message. receiving a second transition indication from the user equipment, the second transition indication being received within a predetermined time period from the receipt of the first transition indication; and responsive to the second transition indication, not sending to the user equipment a second state transition message.
A lyophilized formulation comprising an anti-Epidermal Growth Factor Receptor (EGFR) antibody drug conjugate, a sugar, histidine, and a surfactant, wherein said anti-EGFR ADC comprises an anti-EGFR antibody conjugated to an auristatin, wherein the anti-EGFR antibody comprises a heavy chain variable region comprising complementarity domain regions (CDRs) comprising the amino acid sequences set forth in SEQ ID NOS: 15, 16, and 17, and comprises a light chain variable region comprising CDRs comprising the amino acid sequences set forth in SEQ ID NOS: 20, 21, and 22.
Feed trough for a feeding device for feeding flock fibers into a spinning preparation machine having a feed roller, the feed trough having a main body and at least one elastic lip which extends along a working width of the feed trough, characterized in that a support strip which extends along the working width is arranged on the main body, the support strip being arranged at a distance from the elastic lip and on the side of the elastic lip facing away from the feed roller, and the distance being such that it can be closed by an elastic deformation of the elastic lip.