mhurhangee/patent-ind-claim-en huggingface dataset:
Battery cell for a battery of a motor vehicle with a battery cell housing , in which a galvanic element is accommodated, with two electrical connections , via which the battery cell can be electrically connected with at least one further battery cell of the battery , and with a control device which is operatively connected with at least one functional unit of the battery cell , wherein the control device of the battery cell is configured to receive a command outputted from an external control device , wherein the battery cell has an identifier which can be read out by the external control device , characterised in that the control device comprises a verification unit which is configured to verify an authorisation of the external control device to output the command , wherein the identifier can be read out from every external control device which is authorised to communicate with the control device of the battery cell , wherein - the at least one functional unit of the battery cell comprises a switching element which is configured to interrupt and to establish an electrically conducting connection between a charge eliminator of the galvanic element and at least one of the electrical connections , wherein the control device of the battery cell is configured, upon the command , to alter a switching state of the switching element , and/or - the at least one functional unit of the battery cell comprises a switching element which is disposed in a line which connects charge eliminators of the galvanic element with one another, wherein in the line is disposed a resistance element , wherein the control device of the battery cell is configured, upon the command , to close the switching element , and wherein the control device of the battery cell is configured, at the reception of at least one predetermined special command , independently of the identifier of the battery cell to open the switching element disposed between the charge eliminator and the at least one electrical connection and/or to close the switching element disposed in the line . - the at least one functional unit of the battery cell comprises a switching element which is configured to interrupt and to establish an electrically conducting connection between a charge eliminator of the galvanic element and at least one of the electrical connections , wherein the control device of the battery cell is configured, upon the command , to alter a switching state of the switching element , and/or - the at least one functional unit of the battery cell comprises a switching element which is disposed in a line which connects charge eliminators of the galvanic element with one another, wherein in the line is disposed a resistance element , wherein the control device of the battery cell is configured, upon the command , to close the switching element ,
Drain gutter arrangement comprising a gutter and a sealing collar , the gutter having a gutter base extending horizontally in a planar manner with a top and a bottom, a gutter connecting piece being arranged on the bottom of the gutter base which extends vertically downwards away from the gutter base and which surrounds a drain hole provided in the gutter base in a circumferentially closed manner, the sealing collar forming a sealing tray with a tray bottom in which the drain gutter is located, wherein the sealing tray has a tray connecting piece surrounding an opening provided in the tray bottom in a circumferentially closed manner, within which opening the gutter connecting piece is arranged, wherein a drain pot is provided into which the tray connecting piece opens in each operating position of the drain gutter arrangement and which is sealed against the sealing tray in each operating position in a circumferentially closed manner from the outside around the tray opening , wherein a sealing device comprising a first sealing section , a second sealing section and a connecting section, preferably an immersion pipe , characterized in that in a first operating position the first sealing section sealingly abuts the gutter opening and the connecting section and the second sealing section sealingly abuts the tray opening and the connecting section to form a sealed collection volume between the tray opening and the gutter opening , wherein the connecting section in the first operating position connects the two sealing sections to each other in a watertight manner via a releasable connection and wherein in a second operating position the releasable connection is released, leaving free a passage opening between the collection volume and the opening provided in the tray bottom , whereas the passage opening is closed in the first operating position so that the opening provided in the tray bottom does not communicate with the collection volume, and wherein in particular the drain gutter has a length in a first horizontal direction (X) which is at least five times its length in a second horizontal direction.
An x-ray detector comprising: an enclosure ; an imager disposed within the enclosure; an electronics layer disposed within the enclosure and operably connected to the imager; and at least one filler layer disposed within the enclosure and between the electronic layer and the enclosure, wherein the at least one filler layer comprises a first layer of a first material and a second layer of a second material, wherein the second layer is adjacent to the first layer and wherein: the first material is a cushioning material and the second material is rigid, the first layer at least partially overlays the second layer, the electronics layer comprises a circuit board, and the first layer is positioned on or against contact surfaces of the circuit board. an enclosure ; an imager disposed within the enclosure; an electronics layer disposed within the enclosure and operably connected to the imager; and the first material is a cushioning material and the second material is rigid, the first layer at least partially overlays the second layer, the electronics layer comprises a circuit board, and the first layer is positioned on or against contact surfaces of the circuit board.
A nonaqueous lithium power storage element containing a positive electrode, a negative electrode, a separator and a nonaqueous electrolytic solution containing lithium ion, wherein the positive electrode has a positive electrode power collector and a positive electrode active material layer disposed on one or both sides of the positive electrode power collector, the positive electrode active material layer comprising a positive electrode active material containing a carbon material, the negative electrode has a negative electrode power collector and a negative electrode active material layer disposed on one or both sides of the negative electrode power collector, the negative electrode active material layer comprising a negative electrode active material that can intercalate and release lithium ions, and when the pore distribution of the positive electrode active material layer is measured by mercury intrusion, the pore distribution curve for the relationship between the pore size and the log differential pore volume has at least one peak with a peak value of 1.0 mL/g to 5.0 mL/g for the log differential pore volume in the pore diameter range of 0.1 μm to 50 μm, and the total cumulative pore volume Vp in the pore diameter range of 0.1 μm to 50 μm is 0.7 mL/g to 3.0 mL/g. the positive electrode has a positive electrode power collector and a positive electrode active material layer disposed on one or both sides of the positive electrode power collector, the positive electrode active material layer comprising a positive electrode active material containing a carbon material, the negative electrode has a negative electrode power collector and a negative electrode active material layer disposed on one or both sides of the negative electrode power collector, the negative electrode active material layer comprising a negative electrode active material that can intercalate and release lithium ions, and when the pore distribution of the positive electrode active material layer is measured by mercury intrusion, the pore distribution curve for the relationship between the pore size and the log differential pore volume has at least one peak with a peak value of 1.0 mL/g to 5.0 mL/g for the log differential pore volume in the pore diameter range of 0.1 μm to 50 μm, and the total cumulative pore volume Vp in the pore diameter range of 0.1 μm to 50 μm is 0.7 mL/g to 3.0 mL/g.
A communication method, comprising: receiving, by a terminal device, first indication information sent by a network device, wherein the first indication information is used for scheduling first uplink transmission of the terminal device (S210); receiving, by the terminal device, a physical-layer signaling sent by the network device, wherein the physical-layer signaling is used for instructing the terminal device to abandon the first uplink transmission (S220); and performing, by the terminal device, processing on the first uplink transmission according to the physical-layer signaling (S230), wherein the performing comprises: if the terminal device has not completed the first uplink transmission when receiving the physical-layer signaling, performing, by the terminal device, the processing on the first uplink transmission according to the physical-layer signaling; wherein the terminal device has not completed the first uplink transmission refers to that the first uplink transmission is started but the terminal device has not sent an uplink reference signal, or a Physical Uplink Control Channel, PUCCH, corresponding to the first uplink transmission. receiving, by a terminal device, first indication information sent by a network device, wherein the first indication information is used for scheduling first uplink transmission of the terminal device (S210); receiving, by the terminal device, a physical-layer signaling sent by the network device, wherein the physical-layer signaling is used for instructing the terminal device to abandon the first uplink transmission (S220); and performing, by the terminal device, processing on the first uplink transmission according to the physical-layer signaling (S230), wherein the performing comprises: if the terminal device has not completed the first uplink transmission when receiving the physical-layer signaling, performing, by the terminal device, the processing on the first uplink transmission according to the physical-layer signaling; wherein the terminal device has not completed the first uplink transmission refers to that the first uplink transmission is started but the terminal device has not sent an uplink reference signal, or a Physical Uplink Control Channel, PUCCH, corresponding to the first uplink transmission.
A method of altering the optical power of a lens, comprising: providing a lens having a first optical power, the lens comprising a polymer matrix having photobleachable chromophores; exposing a portion of the lens to radiation, causing photobleaching to occur in the exposed portion of the lens and changing the refractive index of the exposed portion of the lens, thereby altering the optical power of the lens to a second different optical power, characterized in that a radical scavenger is dispersed in the polymer matrix. providing a lens having a first optical power, the lens comprising a polymer matrix having photobleachable chromophores; exposing a portion of the lens to radiation, causing photobleaching to occur in the exposed portion of the lens and changing the refractive index of the exposed portion of the lens, thereby altering the optical power of the lens to a second different optical power, characterized in that a radical scavenger is dispersed in the polymer matrix.
A method for upgrading, which is applied to a terminal, the terminal communicates with at least two router apparatuses, the terminal interacts with a server through a communication link between any one of the router apparatuses and the server, and the method comprises: detecting , by the terminal, whether an application in a first router apparatus of the at least two router apparatuses needs to be upgraded; when the application in the first router apparatus needs to be upgraded, acquiring , by the terminal, an upgrade file necessary for the application to be upgraded through a communication link between a second router apparatus of the at least two router apparatuses and the server; and sending , by the terminal, the upgrade file to the first router apparatus, such that the first router apparatus upgrades the application by using the upgrade file. detecting , by the terminal, whether an application in a first router apparatus of the at least two router apparatuses needs to be upgraded; when the application in the first router apparatus needs to be upgraded, acquiring , by the terminal, an upgrade file necessary for the application to be upgraded through a communication link between a second router apparatus of the at least two router apparatuses and the server; and sending , by the terminal, the upgrade file to the first router apparatus, such that the first router apparatus upgrades the application by using the upgrade file.
A method of operation of License Assisted Access, LAA, network comprising i) a plurality of Reception/Transmission, R/T, points (22, 22-1, 22-2, 22-N) of a shared cell in an unlicensed frequency spectrum, each R/T point being one of the plurality of R/T points serving the shared cell , and ii) a processing system to schedule downlink transmissions to wireless devices in the shared cell in the unlicensed frequency spectrum, the method comprising: performing (102, 102-1, 102-2, 102-N), by each R/T point, a Clear Channel Assessment, CCA, the CCA being independent from CCAs performed by other R/T points of the multiple R/T points serving the shared cell ; either transmitting (104, 104-1, 104-2, 104-N), by each R/T point, a downlink signal for the shared cell or muting transmission from the R/T point according to a CCA decision that results from performing the CCA for the R/T point ; receiving (106-1, 106-2, 106-N), by the processing system, the independent CCA decisions from the plurality of R/T points serving the shared cell , each CCA decision from each R/T point being indicative of whether a CCA succeeded or failed at the R/T point ; and performing , by the processing system, scheduling for one or more upcoming Transmit Time Intervals, TTIs, based on the CCA decisions received from the plurality of R/T points serving the shared cell . performing (102, 102-1, 102-2, 102-N), by each R/T point, a Clear Channel Assessment, CCA, the CCA being independent from CCAs performed by other R/T points of the multiple R/T points serving the shared cell ; either transmitting (104, 104-1, 104-2, 104-N), by each R/T point, a downlink signal for the shared cell or muting transmission from the R/T point according to a CCA decision that results from performing the CCA for the R/T point ; receiving (106-1, 106-2, 106-N), by the processing system, the independent CCA decisions from the plurality of R/T points serving the shared cell , each CCA decision from each R/T point being indicative of whether a CCA succeeded or failed at the R/T point ; and performing , by the processing system, scheduling for one or more upcoming Transmit Time Intervals, TTIs, based on the CCA decisions received from the plurality of R/T points serving the shared cell .
A system for pacing a heart, comprising: an electrostimulation circuit configured to generate His-bundle pacing (HBP) pulses having a stimulation strength to stimulate a His bundle of the heart; a sensing circuit configured to sense a physiologic signal and to detect, from the sensed physiologic signal, a local His-bundle activation discrete from a pacing artifact of the delivered HBP pulses; and a control circuit configured to: verify a capture status using the detection of the local His-bundle activation; and determine, using the verified capture status, one or more of a selective HBP threshold (S-threshold) representing a threshold strength for the HBP pulses to capture only the His bundle but not local myocardium, or a non-selective HBP threshold (NS-threshold) representing a threshold strength for the HBP pulses to capture both the His bundle and the local myocardium; wherein the sensing circuit is configured to detect an isoelectric interval that separates the local His-bundle activation from the pacing artifact of the HBP pulse, and the control circuit is configured to verify the capture status further using the detected isoelectric interval. an electrostimulation circuit configured to generate His-bundle pacing (HBP) pulses having a stimulation strength to stimulate a His bundle of the heart; a sensing circuit configured to sense a physiologic signal and to detect, from the sensed physiologic signal, a local His-bundle activation discrete from a pacing artifact of the delivered HBP pulses; and a control circuit configured to: verify a capture status using the detection of the local His-bundle activation; and determine, using the verified capture status, one or more of a selective HBP threshold (S-threshold) representing a threshold strength for the HBP pulses to capture only the His bundle but not local myocardium, or a non-selective HBP threshold (NS-threshold) representing a threshold strength for the HBP pulses to capture both the His bundle and the local myocardium; wherein the sensing circuit is configured to detect an isoelectric interval that separates the local His-bundle activation from the pacing artifact of the HBP pulse, and the control circuit is configured to verify the capture status further using the detected isoelectric interval. verify a capture status using the detection of the local His-bundle activation; and determine, using the verified capture status, one or more of a selective HBP threshold (S-threshold) representing a threshold strength for the HBP pulses to capture only the His bundle but not local myocardium, or a non-selective HBP threshold (NS-threshold) representing a threshold strength for the HBP pulses to capture both the His bundle and the local myocardium;
A terminal apparatus , comprising: a control module configured to detect receipt of a group information indicative of a group of at least two network apparatuses , the group information being descriptive for a certain configuration of communication parameters enabling the terminal apparatus to communicate with anyone of the network apparatuses of the respective group, detect a handover condition, cause an autonomous handover to one of the at least two network apparatuses by causing to select a network apparatus of the group for establishing a communication link by transmitting an attach request or a message including the group information to the selected network apparatus , upon receipt of a response of the selected network apparatus , transmit a change message including the group information to the serving apparatus of the group of at least two network apparatuses, and, request connecting to the selected network apparatus of the group of at least two network apparatuses by use of the certain configuration. a control module configured to detect receipt of a group information indicative of a group of at least two network apparatuses , the group information being descriptive for a certain configuration of communication parameters enabling the terminal apparatus to communicate with anyone of the network apparatuses of the respective group, detect a handover condition, cause an autonomous handover to one of the at least two network apparatuses by causing to select a network apparatus of the group for establishing a communication link by transmitting an attach request or a message including the group information to the selected network apparatus , upon receipt of a response of the selected network apparatus , transmit a change message including the group information to the serving apparatus of the group of at least two network apparatuses, and, request connecting to the selected network apparatus of the group of at least two network apparatuses by use of the certain configuration.
A wax composition comprising a hydrogenated natural oil comprising (i) at least 50 wt% of a triacylglycerol component having a fatty acid composition from 14 to 25 wt% C16:0 fatty acid, 45 to 60 wt% C18:1 fatty acid and 20 to 30 wt% C18:0 fatty acid, and (ii) a nickel content of less than 1 ppm, and (iii) a melt point of 49 °C to 57 °C. (i) at least 50 wt% of a triacylglycerol component having a fatty acid composition from 14 to 25 wt% C16:0 fatty acid, 45 to 60 wt% C18:1 fatty acid and 20 to 30 wt% C18:0 fatty acid, and (ii) a nickel content of less than 1 ppm, and (iii) a melt point of 49 °C to 57 °C.
A method performed by a terminal operating in a Long Term Evolution, LTE, communication system for dynamically determining a transmission location of an UpLink, UL. DeModulation Reference Signal, DMRS, the method comprising: receiving , by the terminal, a DownLink, DL, control channel; and determining , by the terminal, the transmission location of the UL DMRS according to the DL control channel; the method being characterized in that : when multiple terminals, including said terminal, transmit in different UL short, Transmission Time Intervals, TTIs, in a Time Division Multiplexing, TDM, manner, multiple UL short TTIs share a same time domain location to transmit the DMRS and the DL control channel indicates that the DMRS is transmitted on a specific location in a slot or sub-frame; or, when the terminal is consecutively scheduled in multiple UL short TTIs, the DL control channel indicates that the DMRS is transmitted between the multiple UL short TTIs, in which the terminal is scheduled. receiving , by the terminal, a DownLink, DL, control channel; and determining , by the terminal, the transmission location of the UL DMRS according to the DL control channel; the method being characterized in that : when multiple terminals, including said terminal, transmit in different UL short, Transmission Time Intervals, TTIs, in a Time Division Multiplexing, TDM, manner, multiple UL short TTIs share a same time domain location to transmit the DMRS and the DL control channel indicates that the DMRS is transmitted on a specific location in a slot or sub-frame; or, when the terminal is consecutively scheduled in multiple UL short TTIs, the DL control channel indicates that the DMRS is transmitted between the multiple UL short TTIs, in which the terminal is scheduled. when multiple terminals, including said terminal, transmit in different UL short, Transmission Time Intervals, TTIs, in a Time Division Multiplexing, TDM, manner, multiple UL short TTIs share a same time domain location to transmit the DMRS and the DL control channel indicates that the DMRS is transmitted on a specific location in a slot or sub-frame; or, when the terminal is consecutively scheduled in multiple UL short TTIs, the DL control channel indicates that the DMRS is transmitted between the multiple UL short TTIs, in which the terminal is scheduled.