mhurhangee/patent-ind-claim-en huggingface dataset:
Method for controlling a motor vehicle battery charger, the charger being provided with a leakage current sensor and being connected to a power supply network via a circuit breaker, said method comprising the following steps: measuring the variation over time in the amplitude of the leakage current of the charger, determining the amplitude of the components of the leakage current that have different frequencies and are capable of causing the circuit breaker to be blinded depending on the variation over time in the amplitude of the leakage current, determining whether one of the components of the leakage current is above an associated threshold value, and determining whether the supply of power to the charger should be disconnected on the basis of the result of the comparisons of the components with the associated thresholds. measuring the variation over time in the amplitude of the leakage current of the charger, determining the amplitude of the components of the leakage current that have different frequencies and are capable of causing the circuit breaker to be blinded depending on the variation over time in the amplitude of the leakage current, determining whether one of the components of the leakage current is above an associated threshold value, and determining whether the supply of power to the charger should be disconnected on the basis of the result of the comparisons of the components with the associated thresholds.
A moisture barrier laminate comprising: a gas barrier film substrate (A) having a gas barrier layer, a moisture trapping layer (B) formed on the film substrate A; a protective resin layer (C) having a moisture permeability in a range of 4.0 × 10 to 5.0 × 10 4 g/m2/day at 40°C and 90%RH, the protective resin layer (C) being laminated on a surface of the moisture trapping layer (B) opposite to the film substrate (A); and a desiccant sheet having: a) a hygroscopic resin layer in which a desiccant is dispersed; and b) a surface protective resin layer ; wherein the surface protective resin layer is provided on one surface of the hygroscopic resin layer ; and wherein the other surface of the hygroscopic resin layer makes a hygroscopic functional surface that is peelably stuck on the surface of the protective resin layer (C) . a gas barrier film substrate (A) having a gas barrier layer, a moisture trapping layer (B) formed on the film substrate A; a protective resin layer (C) having a moisture permeability in a range of 4.0 × 10 to 5.0 × 10 4 g/m2/day at 40°C and 90%RH, the protective resin layer (C) being laminated on a surface of the moisture trapping layer (B) opposite to the film substrate (A); and a desiccant sheet having: a) a hygroscopic resin layer in which a desiccant is dispersed; and b) a surface protective resin layer ; wherein the surface protective resin layer is provided on one surface of the hygroscopic resin layer ; and wherein the other surface of the hygroscopic resin layer makes a hygroscopic functional surface that is peelably stuck on the surface of the protective resin layer (C) .
An optical fiber comprising a chlorine-doped silica core region ; and a fluorine-doped cladding region , CHARACTERIZED IN THAT the optical fiber further comprises a fluorine-doped annular stress-accommodation region disposed between the core region and the cladding region, the fluorine-doped annular stress-accommodation region including a concentration of a fluorine dopant such that the viscosity of the annular stress-accommodation region matches the viscosity of the core region, the cladding region having a fluorine dopant concentration greater than the annular stress accommodation region to provide confinement of the propagating optical signal to the combination of the core region and the annular stress-accommodation region.
A client system (110; 400; 500) comprising: a security engine (140; 428) including an identity provider means configured to: generate a first key pair of a key pairing associating a user of the client system (110; 400; 500) and a service provider that provides a web service and having a second system coupled to the client system (110; 400; 500) via a network; perform a secure communication with the second system to enable the second system to verify that the identity provider means is executing in a trusted execution environment; and responsive to the verification, send a first key of the first key pair to the second system, the first key to enable the second system to verify an assertion communicated by the identity provider means that the user has been authenticated to the client system (110; 400; 500) according to a multi-factor authentication; and the client system (110; 400; 500) further characterised by at least one sensor means for providing sensed information regarding the user to the security engine (140; 428), wherein the security engine (140; 428) is to authenticate the user using the sensed information. a security engine (140; 428) including an identity provider means configured to: generate a first key pair of a key pairing associating a user of the client system (110; 400; 500) and a service provider that provides a web service and having a second system coupled to the client system (110; 400; 500) via a network; perform a secure communication with the second system to enable the second system to verify that the identity provider means is executing in a trusted execution environment; and responsive to the verification, send a first key of the first key pair to the second system, the first key to enable the second system to verify an assertion communicated by the identity provider means that the user has been authenticated to the client system (110; 400; 500) according to a multi-factor authentication; and the client system (110; 400; 500) further characterised by generate a first key pair of a key pairing associating a user of the client system (110; 400; 500) and a service provider that provides a web service and having a second system coupled to the client system (110; 400; 500) via a network; perform a secure communication with the second system to enable the second system to verify that the identity provider means is executing in a trusted execution environment; and responsive to the verification, send a first key of the first key pair to the second system, the first key to enable the second system to verify an assertion communicated by the identity provider means that the user has been authenticated to the client system (110; 400; 500) according to a multi-factor authentication; and the client system (110; 400; 500) further characterised by at least one sensor means for providing sensed information regarding the user to the security engine (140; 428), wherein the security engine (140; 428) is to authenticate the user using the sensed information.
A system for delivering laser energy to an eye of a patient, the system comprising: a microphone for capturing audio data; a voice control module for receiving the captured audio data and generating voice command information based on the captured audio data; a parameter regulation module for generating parameter information based on the voice command information; and a control module for receiving the parameter information and setting the parameters for the delivered laser energy based on the parameter information; characterized in that the parameter regulation module is for generating the parameter information based on the voice command information and a predetermined safety policy; and that the voice control module generates the voice command information by recognizing spoken language indicating 1) whether a pulse duration should be incrementally increased or decreased; and 2) whether a power level should be incrementally increased or decreased, wherein the safety policy indicates maximum percentages by which the parameters can be increased and/or decreased, wherein the parameter regulation module is configured to generate the parameter information based on whether the voice command information indicates that current parameters should be changed incrementally and to calculate new values for the parameters being changed based on the maximum percentages according to the safety policy. a microphone for capturing audio data; a voice control module for receiving the captured audio data and generating voice command information based on the captured audio data; a parameter regulation module for generating parameter information based on the voice command information; and a control module for receiving the parameter information and setting the parameters for the delivered laser energy based on the parameter information; characterized in that the parameter regulation module is for generating the parameter information based on the voice command information and a predetermined safety policy; and that the voice control module generates the voice command information by recognizing spoken language indicating 1) whether a pulse duration should be incrementally increased or decreased; and 2) whether a power level should be incrementally increased or decreased, wherein the safety policy indicates maximum percentages by which the parameters can be increased and/or decreased, wherein the parameter regulation module is configured to generate the parameter information based on whether the voice command information indicates that current parameters should be changed incrementally and to calculate new values for the parameters being changed based on the maximum percentages according to the safety policy.
A method for expanding B cells in vitro, the method comprising: (a) isolating at least one B cell, and (b) culturing the at least one B cell from step (a) with a feeder cell line comprising a thymic epithelial cell line modified to express a CD154 polypeptide (or CD40 agonist) and a BLyS polypeptide (or B cell survival factor), in combination with IL-21 and without additional exogenous IL-4, wherein the B cells are cultured with the feeder cell line under sufficient conditions and for a sufficient time to cause the human B cells to expand in number, wherein the B cells are optionally human B cells, wherein the IL-21 is optionally added exogenously to the culture or the feeder cell line is modified to express an IL-21 polypeptide, and wherein the at least one B cell has been exposed to an antigen prior to isolation in step (a), wherein one B cell is isolated in step (a) for use in step (b). (a) isolating at least one B cell, and (b) culturing the at least one B cell from step (a) with a feeder cell line comprising a thymic epithelial cell line modified to express a CD154 polypeptide (or CD40 agonist) and a BLyS polypeptide (or B cell survival factor), in combination with IL-21 and without additional exogenous IL-4, wherein the B cells are cultured with the feeder cell line under sufficient conditions and for a sufficient time to cause the human B cells to expand in number, wherein the B cells are optionally human B cells, wherein the IL-21 is optionally added exogenously to the culture or the feeder cell line is modified to express an IL-21 polypeptide, and wherein the at least one B cell has been exposed to an antigen prior to isolation in step (a), wherein one B cell is isolated in step (a) for use in step (b).
Assistance system for a vehicle for providing an emergency stop assistance function, having: - an execution device for executing the emergency stop assistance function with at least one of multiple activation levels , - a detection device for automatically detecting driver inactivity, in order to activate the emergency stop assistance function with a first level selection of the activation levels , - a trigger device for monitoring an operating element of an electric parking brake of the vehicle in order, in the event of manual actuation of the operating element , to activate the emergency stop assistance function with a second level selection , which differs from the first level selection , of the activation levels , characterized in that the activation in the manual activation mode takes place only when pressing of the operating element is detected, wherein the pressing is associated exclusively with the activation of the emergency stop assistance function in the vehicle . - an execution device for executing the emergency stop assistance function with at least one of multiple activation levels , - a detection device for automatically detecting driver inactivity, in order to activate the emergency stop assistance function with a first level selection of the activation levels , - a trigger device for monitoring an operating element of an electric parking brake of the vehicle in order, in the event of manual actuation of the operating element , to activate the emergency stop assistance function with a second level selection , which differs from the first level selection , of the activation levels ,
A wireless terminal (26, 26-14, 26-17, 26-21, 26-25, 26-29, 26-32, 26-36) comprising: receiver unit configured to receive, from a base station apparatus (22, 22-17, 22-21, 22-25, 22-29, 22-32, 22-36), a minimum system information, SI, block including scheduling information used for configuring one or more SI window(s), the one or more SI window(s) being periodic broadcast occasion(s) for corresponding one or more other system information blocks, SIBs; processor unit configured to determine the one or more SI window(s) based on the scheduling information; the receiver unit further configured to perform a reception procedure to attempt to receive at least one of the other SIBs within the one or more SI window(s) of a current modification period; wherein the reception procedure: ends in a case that the at least one of the other SIBs is successfully received, and continues until an end of the current modification period in a case that the at least one of the other SIBs is not received within any of the one or more SI window(s) of the current modification period. receiver unit configured to receive, from a base station apparatus (22, 22-17, 22-21, 22-25, 22-29, 22-32, 22-36), a minimum system information, SI, block including scheduling information used for configuring one or more SI window(s), the one or more SI window(s) being periodic broadcast occasion(s) for corresponding one or more other system information blocks, SIBs; processor unit configured to determine the one or more SI window(s) based on the scheduling information; the receiver unit further configured to perform a reception procedure to attempt to receive at least one of the other SIBs within the one or more SI window(s) of a current modification period; wherein the reception procedure: ends in a case that the at least one of the other SIBs is successfully received, and continues until an end of the current modification period in a case that the at least one of the other SIBs is not received within any of the one or more SI window(s) of the current modification period. ends in a case that the at least one of the other SIBs is successfully received, and continues until an end of the current modification period in a case that the at least one of the other SIBs is not received within any of the one or more SI window(s) of the current modification period.
A system comprising a connector , in which a DC-side connector and an AC-side connector are integrally formed and a power inverter that fixes a connector , to a casing , the power inverter comprising: a power inverter that fixes the connector , in which a DC-side connector and an AC-side connector are integrally formed, to a casing , the power inverter comprising: a power semiconductor module that converts a DC current into an AC current; a DC terminal that delivers the DC current to the power semiconductor module ; an AC terminal that delivers the AC current to an electrical motor; and the casing that houses the power semiconductor module , characterized in that , the DC terminal and the AC terminal are arranged on one side face of the casing , the one side face of the casing forms a rectangular shape that is configured by a side formed in a widthwise direction and a side formed in a longitudinal direction, the DC terminal is configured by a positive-side DC terminal and a negative-side DC terminal , the AC terminal is configured by a U-phase side terminal , a V-phase side terminal , and a W-phase side terminal , the positive-side DC terminal and the negative-side DC terminal are arranged to be aligned along one side, which is formed in the widthwise direction, of the one side face of the casing , and the U-phase side terminal , the V-phase side terminal , and the W-phase side terminal are arranged to be aligned along one side, which is formed in the longitudinal direction, of the one side face of the casing . a power semiconductor module that converts a DC current into an AC current; a DC terminal that delivers the DC current to the power semiconductor module ; an AC terminal that delivers the AC current to an electrical motor; and the casing that houses the power semiconductor module , characterized in that , the DC terminal and the AC terminal are arranged on one side face of the casing , the one side face of the casing forms a rectangular shape that is configured by a side formed in a widthwise direction and a side formed in a longitudinal direction, the DC terminal is configured by a positive-side DC terminal and a negative-side DC terminal , the AC terminal is configured by a U-phase side terminal , a V-phase side terminal , and a W-phase side terminal , the positive-side DC terminal and the negative-side DC terminal are arranged to be aligned along one side, which is formed in the widthwise direction, of the one side face of the casing , and the U-phase side terminal , the V-phase side terminal , and the W-phase side terminal are arranged to be aligned along one side, which is formed in the longitudinal direction, of the one side face of the casing .
Temperature regulation device , notably cooling device, for an electrical component liable to give off heat during operation, notably for an electrical energy storage device, this device having an upper plate and a lower plate joined to the upper plate to together form a plurality of circulation channels for a heat-transfer fluid, notably a refrigerant fluid, notably a fluid selected from the following refrigerant fluids: R134a, R1234yf or R744, in which device the channels are grouped together in groups of channels, the channels of a group extending substantially parallel to one another with a predetermined spacing between neighbouring channels, referred to as intragroup spacing, two groups of channels that have one and the same fluid circulation direction being separated from one another by at least one group of channels that have an opposite fluid circulation direction, the device having a connector joined to the upper or lower plate and designed to create a fluid pathway for connecting two collecting zones , notably outlet collecting zones, of two groups of channels having notably the same circulation direction, these collecting zones being formed between the two, upper and lower, plates, this connector having an external inlet orifice for fluid and an external outlet orifice for fluid, one of these two external orifices being in fluidic communication with the fluid pathway of the connector and the other of the external orifices being in fluidic communication with a fluid collecting zone of an intermediate group of channels which is located between the two groups of channels connected to one another by the fluid pathway in the connector, this intermediate group notably having a circulation direction that is the opposite direction to the two other groups, it being possible for the one or more groups of channels to be reduced to one channel if appropriate, the connector moreover having two internal orifices into which the fluid pathway of the connector leads, which pathway moreover communicates with one of the external orifices, these internal orifices being positioned respectively facing two holes in the plate, which holes preferably lead into the associated collecting zones, and the connector having a third internal orifice which communicates with the other of the external orifices via a channel in the connector, which channel is notably cylindrical in shape, this third internal orifice being positioned preferably facing a hole in the plate that leads into the collecting zone of the intermediate group of channels.
A communication control device comprising: an acquisition unit that acquires a parameter associated with one or more devices of one or more second wireless systems for calculating a coverage of the one or more second wireless systems that share a part or a whole of a frequency allocated to a first wireless system; and a control unit that calculates the coverage of the second wireless system on a basis of the parameter acquired by the acquisition unit and a predetermined reception power reference value, generates information as bitmap indicating by bits whether or not a partitioned geographical range is included in the coverage, and records a reception power level from the second wireless system in the geographical range included in the coverage, wherein the reception power reference value is a value set by the communication control device on a basis of i) a value of an allowable interference power of the first wireless system, ii) the number of devices that perform wireless communication by use of the second wireless system, or iii) a reachable range by a maximum reception power at which a probability that an allowable interference power of the first wireless system does not exceed a threshold is greater than a predetermined value. an acquisition unit that acquires a parameter associated with one or more devices of one or more second wireless systems for calculating a coverage of the one or more second wireless systems that share a part or a whole of a frequency allocated to a first wireless system; and a control unit that calculates the coverage of the second wireless system on a basis of the parameter acquired by the acquisition unit and a predetermined reception power reference value, generates information as bitmap indicating by bits whether or not a partitioned geographical range is included in the coverage, and records a reception power level from the second wireless system in the geographical range included in the coverage, wherein the reception power reference value is a value set by the communication control device on a basis of i) a value of an allowable interference power of the first wireless system, ii) the number of devices that perform wireless communication by use of the second wireless system, or iii) a reachable range by a maximum reception power at which a probability that an allowable interference power of the first wireless system does not exceed a threshold is greater than a predetermined value. i) a value of an allowable interference power of the first wireless system, ii) the number of devices that perform wireless communication by use of the second wireless system, or iii) a reachable range by a maximum reception power at which a probability that an allowable interference power of the first wireless system does not exceed a threshold is greater than a predetermined value.