mhurhangee/patent-ind-claim-en huggingface dataset:
Electrical power supply device for the electrical power supply of electrical components from a power source, wherein the power supply device has at least one program memory with a computer program stored therein and a computer for executing the computer program, wherein the computer program has software control functions for controlling power supply functions of the power supply device , wherein the power supply device has at least one electronic overcurrent circuit breaker realized in software by means of the computer program, the electronic overcurrent circuit breaker comprising a function for switching off the output current (I) emitted by the power supply device and/or a function for limiting the output current (I) emitted by the power supply device to a predetermined current value, characterized in that the power supply device comprises power electronics components with primary-side components and secondary-side components , and in that the switching off of the output current (I) emitted by the power supply unit or the limitation of the output current (I) emitted by the power supply unit is carried out by primary-side control of the power supply unit .
A method for trust-based orchestration in an edge computing environment, comprising: sending , by an edge orchestrator , to an edge node in the edge computing environment, an instruction to perform a workload, the edge node being in a group of edge nodes managed with a blockchain ledger (BC1, BC2); executing , by the edge node , the workload to produce a result, and evaluating, by validator nodes (806A-806J) in the group of edge nodes , this execution of the workload to produce a reputation score of the edge node , wherein to produce the reputation of the edge node , the validator nodes (806A-806J) collect telemetry on the edge node and the reputation of the edge node is based on the telemetry collected in addition to service level agreement, SLA, or key performance indicator, KPI, parameters, and the telemetry is based on resource utilization of the edge node ; and providing , by the edge node , the result to the edge orchestrator . sending , by an edge orchestrator , to an edge node in the edge computing environment, an instruction to perform a workload, the edge node being in a group of edge nodes managed with a blockchain ledger (BC1, BC2); executing , by the edge node , the workload to produce a result, and evaluating, by validator nodes (806A-806J) in the group of edge nodes , this execution of the workload to produce a reputation score of the edge node , wherein to produce the reputation of the edge node , the validator nodes (806A-806J) collect telemetry on the edge node and the reputation of the edge node is based on the telemetry collected in addition to service level agreement, SLA, or key performance indicator, KPI, parameters, and the telemetry is based on resource utilization of the edge node ; and providing , by the edge node , the result to the edge orchestrator .
A reader comprising: a scanning head that comprises an optical sensor to capture an indicia that encodes data and a processor to interpret the indicia to decode the data; and an elongate handle connected at a first end to the scanning head and graspable to orient the optical sensor toward the indicia , wherein a selected one of the scanning head and the elongate handle comprises: a first receiving coil ; and a battery to provide electric power to the processor and the optical sensor ; characterized by at least a second receiving coil ; a power receiving circuit coupled to the first and second receiving coils in series, and configured to operate the first and second receiving coils together to wirelessly receive electric power to charge the battery . a scanning head that comprises an optical sensor to capture an indicia that encodes data and a processor to interpret the indicia to decode the data; and an elongate handle connected at a first end to the scanning head and graspable to orient the optical sensor toward the indicia , wherein a selected one of the scanning head and the elongate handle comprises: a first receiving coil ; and a battery to provide electric power to the processor and the optical sensor ; characterized by at least a second receiving coil ; a power receiving circuit coupled to the first and second receiving coils in series, and configured to operate the first and second receiving coils together to wirelessly receive electric power to charge the battery . a first receiving coil ; and a battery to provide electric power to the processor and the optical sensor ; characterized by at least a second receiving coil ; a power receiving circuit coupled to the first and second receiving coils in series, and configured to operate the first and second receiving coils together to wirelessly receive electric power to charge the battery .
A heating system , comprising: - a heater ; - a power source configured to provide power to a heater to heat a workpiece via the heater ; - a controller ; - at least one sensor for measuring the temperature of the workpiece and for providing temperature measurements to the controller ; - a memory device including a list of values that associates temperature change values with corresponding thermal mass of the workpiece ; characterized in that the controller is configured to: - receive a first temperature measurement signal from the at least one sensor , the first temperature measurement signal corresponding to a first temperature of the workpiece ; - turn on the power source to activate the heater to heat the workpiece ; - receive a second temperature measurement signal from the at least one sensor in response to heating the workpiece , the second temperature measurement signal corresponding to a second temperature of the workpiece ; - calculate a change in temperature of the workpiece based on the first and second temperatures; and - access the memory device that includes a list of values that associates temperature change values with corresponding thermal mass of the workpiece ; - identify a temperature change value corresponding to the calculated change in temperature; and - identify the thermal mass by looking up the change in temperature in the memory device , so that the thermal mass of the workpiece is determined based on the change in temperature. - a heater ; - a power source configured to provide power to a heater to heat a workpiece via the heater ; - a controller ; - at least one sensor for measuring the temperature of the workpiece and for providing temperature measurements to the controller ; - a memory device including a list of values that associates temperature change values with corresponding thermal mass of the workpiece ; - receive a first temperature measurement signal from the at least one sensor , the first temperature measurement signal corresponding to a first temperature of the workpiece ; - turn on the power source to activate the heater to heat the workpiece ; - receive a second temperature measurement signal from the at least one sensor in response to heating the workpiece , the second temperature measurement signal corresponding to a second temperature of the workpiece ; - calculate a change in temperature of the workpiece based on the first and second temperatures; and - access the memory device that includes a list of values that associates temperature change values with corresponding thermal mass of the workpiece ; - identify a temperature change value corresponding to the calculated change in temperature; and - identify the thermal mass by looking up the change in temperature in the memory device , so that the thermal mass of the workpiece is determined based on the change in temperature.
A cationic lipid compound according to formula I : or a pharmaceutically acceptable salt thereof, wherein: each instance of X is independently O or S; each instance of Y is independently O or S; each instance of R 1 is a group of formula (iv): L is an C 1-50 alkylene, C 2-50 alkenylene, C 2-50 alkynylene, heteroC 1-50 alkylene, heteroC 2-50 alkenylene, heteroC 2-50 alkynylene, C 3-10 carbocyclylene, 3-14 membered heterocyclylene, arylene, or 5-14 membered heteroarylene, and each instance of R 6 and R 7 is a group of formula R L is C 1-50 alkyl, C 2-50 alkenyl, C 2-50 alkynyl, heteroC 1-50 alkyl, heteroC 2-50 alkenyl, or heteroC 2-50 alkynyl; heteroC 1-50 alkyl is a saturated group having from 1 to 50 carbon atoms and 1 or more heteroatoms selected from oxygen, sulfur, nitrogen, boron, silicon, and phosphorus inserted between adjacent carbon atoms of and/or placed at one or more terminal position(s) of the parent chain; heteroC 2-50 alkenyl is a group having from 2 to 50 carbon atoms, at least one double bond, and 1 or more heteroatoms selected from oxygen, sulfur, nitrogen, boron, silicon, and phosphorus inserted between adjacent carbon atoms of and/or placed at one or more terminal position(s) of the parent chain; and heteroC 2-50 alkynyl is a group having from 2 to 50 carbon atoms, at least one triple bond, and 1 or more heteroatoms selected from oxygen, sulfur, nitrogen, boron, silicon, and phosphorus inserted between adjacent carbon atoms of and/or placed at one or more terminal position(s) of the parent chain. each instance of X is independently O or S; each instance of Y is independently O or S; each instance of R 1 is a group of formula (iv): L is an C 1-50 alkylene, C 2-50 alkenylene, C 2-50 alkynylene, heteroC 1-50 alkylene, heteroC 2-50 alkenylene, heteroC 2-50 alkynylene, C 3-10 carbocyclylene, 3-14 membered heterocyclylene, arylene, or 5-14 membered heteroarylene, and each instance of R 6 and R 7 is a group of formula R L is C 1-50 alkyl, C 2-50 alkenyl, C 2-50 alkynyl, heteroC 1-50 alkyl, heteroC 2-50 alkenyl, or heteroC 2-50 alkynyl; heteroC 1-50 alkyl is a saturated group having from 1 to 50 carbon atoms and 1 or more heteroatoms selected from oxygen, sulfur, nitrogen, boron, silicon, and phosphorus inserted between adjacent carbon atoms of and/or placed at one or more terminal position(s) of the parent chain; heteroC 2-50 alkenyl is a group having from 2 to 50 carbon atoms, at least one double bond, and 1 or more heteroatoms selected from oxygen, sulfur, nitrogen, boron, silicon, and phosphorus inserted between adjacent carbon atoms of and/or placed at one or more terminal position(s) of the parent chain; and heteroC 2-50 alkynyl is a group having from 2 to 50 carbon atoms, at least one triple bond, and 1 or more heteroatoms selected from oxygen, sulfur, nitrogen, boron, silicon, and phosphorus inserted between adjacent carbon atoms of and/or placed at one or more terminal position(s) of the parent chain.
A method for treating a pipe , in particular a motor vehicle pipe, wherein a flare is generated at least at one pipe end of the pipe , wherein at least areas of the flare are provided with at least one layer , which changes the friction properties of the coated surface of the flare , and wherein the flare is coated by means of plasma coating, characterized in that at least areas of the rear flare side facing the pipe are provided with a first layer via plasma coating, and that the first layer has a friction coefficient μ1, at least areas of the front flare side facing away from the pipe and forming a front end of the pipe are provided with a second layer via plasma coating, and that this second layer has a friction coefficient μ2, and that the second friction coefficient μ2 is greater than the first friction coefficient μ1. at least areas of the rear flare side facing the pipe are provided with a first layer via plasma coating, and that the first layer has a friction coefficient μ1, at least areas of the front flare side facing away from the pipe and forming a front end of the pipe are provided with a second layer via plasma coating, and that this second layer has a friction coefficient μ2, and that the second friction coefficient μ2 is greater than the first friction coefficient μ1.
A method for transmitting a Device-to-Device, D2D, control channel by a communication mode 1 D2D terminal in a wireless communication system, the method comprising: receiving a Timing Advance, TA, command from a network node; determining a value, NTA, indicating a timing offset between an uplink radio frame and a downlink radio frame from a TA indicated by the TA command; setting a TA indicator, ITAI, indicating a D2D signal reception timing adjustment value, TA', using the value, NTA, indicating the timing offset; transmitting a D2D control channel including the TA indicator ITAI indicating a D2D signal reception timing adjustment value TA' to another D2D terminal, and when the TA indicator is set, the value NTA indicating the timing offset is mapped to a closest value from among values available as D2D signal reception timing adjustment values TA'; and wherein a size of a field indicating the TA is different from a size of a field indicating the D2D signal reception timing adjustment value, TA'. receiving a Timing Advance, TA, command from a network node; determining a value, NTA, indicating a timing offset between an uplink radio frame and a downlink radio frame from a TA indicated by the TA command; setting a TA indicator, ITAI, indicating a D2D signal reception timing adjustment value, TA', using the value, NTA, indicating the timing offset; transmitting a D2D control channel including the TA indicator ITAI indicating a D2D signal reception timing adjustment value TA' to another D2D terminal, and when the TA indicator is set, the value NTA indicating the timing offset is mapped to a closest value from among values available as D2D signal reception timing adjustment values TA'; and wherein a size of a field indicating the TA is different from a size of a field indicating the D2D signal reception timing adjustment value, TA'.
A rubber composition for tire treads comprising: a diene rubber; from 1 to 25 parts by weight of an aromatic modified terpene resin; from 80 to 150 parts by weight of a silica; from 5 to 50 parts by weight of a carbon black; an oil component, per 100 parts by weight of the diene rubber; and from 0.1 to 20 wt.% of the weight of the silica of an alkyltriethoxysilane having an alkyl group having from 3 to 20 carbons, the diene rubber containing from 10 to 30 wt.% of a natural rubber, from 10 to 30 wt.% of a solution polymerized styrene butadiene rubber having a styrene unit content of 30 to 40 wt.%, and from 80 to 40 wt.% of an emulsion polymerized styrene butadiene rubber, and a ratio of a total amount W oil of an oil-extending component contained in the solution polymerized styrene butadiene rubber and/or the emulsion polymerized styrene butadiene rubber, the aromatic modified terpene resin, and the oil component to a weight W NR of the natural rubber (W oil /W NR ) being from 3.0 to 4.0. a diene rubber; from 1 to 25 parts by weight of an aromatic modified terpene resin; from 80 to 150 parts by weight of a silica; from 5 to 50 parts by weight of a carbon black; an oil component, per 100 parts by weight of the diene rubber; and from 0.1 to 20 wt.% of the weight of the silica of an alkyltriethoxysilane having an alkyl group having from 3 to 20 carbons, the diene rubber containing from 10 to 30 wt.% of a natural rubber, from 10 to 30 wt.% of a solution polymerized styrene butadiene rubber having a styrene unit content of 30 to 40 wt.%, and from 80 to 40 wt.% of an emulsion polymerized styrene butadiene rubber, and a ratio of a total amount W oil of an oil-extending component contained in the solution polymerized styrene butadiene rubber and/or the emulsion polymerized styrene butadiene rubber, the aromatic modified terpene resin, and the oil component to a weight W NR of the natural rubber (W oil /W NR ) being from 3.0 to 4.0.
A vehicle assembly system, comprising: a vehicle chassis of a vehicle under assembly; at least one object sensor mounted to the vehicle chassis, wherein the at least one object sensor is configured to generate sensor data based on at least one detected object; a vehicle controller mounted to the vehicle chassis and configured to receive the sensor data from the at least one object sensor , wherein, during assembly, the vehicle controller is configured with production control software that enables the vehicle controller to generate production object data from the sensor data, monitor for a safety event based on the production object data, and generate a safety event signal in response to detecting the safety event; a safety controller configured to receive the safety event signal from the vehicle controller and alter a movement of a surveilled machine corresponding to the safety event; and a software controller configured to reflash the vehicle controller with driving control software thereby overwriting the production control software , wherein the driving control software is configured to enable the vehicle controller to generate driving object data from the sensor data and apply the driving object data to at least one driving functionality during operation of the vehicle . a vehicle chassis of a vehicle under assembly; at least one object sensor mounted to the vehicle chassis, wherein the at least one object sensor is configured to generate sensor data based on at least one detected object; a vehicle controller mounted to the vehicle chassis and configured to receive the sensor data from the at least one object sensor , wherein, during assembly, the vehicle controller is configured with production control software that enables the vehicle controller to generate production object data from the sensor data, monitor for a safety event based on the production object data, and generate a safety event signal in response to detecting the safety event; a safety controller configured to receive the safety event signal from the vehicle controller and alter a movement of a surveilled machine corresponding to the safety event; and a software controller configured to reflash the vehicle controller with driving control software thereby overwriting the production control software , wherein the driving control software is configured to enable the vehicle controller to generate driving object data from the sensor data and apply the driving object data to at least one driving functionality during operation of the vehicle .
An image processing apparatus comprising: an acquisition means configured to acquire viewpoint information for specifying a movement path of a virtual viewpoint (6a-f) corresponding to a virtual viewpoint image to be generated based on captured image frames obtained by a plurality of cameras that performs imaging from a plurality of directions; and a control means configured to determine a placement area , in a three-dimensional space, of a virtual object which is included in the virtual viewpoint image and which is not included in the captured images; wherein the control means is configured to: divide the placement area into a plurality of subareas ; determine the value of a counter for each subarea, said counter indicating a frame count where said subarea is within the view of the virtual viewpoint; and determine, as the placement area of the virtual object, one or more subareas with a counter indicating a maximum frame count. an acquisition means configured to acquire viewpoint information for specifying a movement path of a virtual viewpoint (6a-f) corresponding to a virtual viewpoint image to be generated based on captured image frames obtained by a plurality of cameras that performs imaging from a plurality of directions; and a control means configured to determine a placement area , in a three-dimensional space, of a virtual object which is included in the virtual viewpoint image and which is not included in the captured images; wherein the control means is configured to: divide the placement area into a plurality of subareas ; determine the value of a counter for each subarea, said counter indicating a frame count where said subarea is within the view of the virtual viewpoint; and determine, as the placement area of the virtual object, one or more subareas with a counter indicating a maximum frame count. divide the placement area into a plurality of subareas ; determine the value of a counter for each subarea, said counter indicating a frame count where said subarea is within the view of the virtual viewpoint; and determine, as the placement area of the virtual object, one or more subareas with a counter indicating a maximum frame count.
A computer-implemented method for decision support for therapy, the method comprising: inputting patient information from different sources to a first deep auto-encoder, the patient information specific to a first patient and a type of therapy device; selecting similar patients to the first patient with an output of the first deep auto-encoder, the similar patients having been treated with the type of therapy device; inferring a range of outcomes from a range of therapy devices of the type of therapy device from data for the similar patients, wherein set features are used to determine nearest neighbor past patients, and wherein based on the retrieved nearest neighbor patients, the processor infers outcomes by aggregating the frequency and treatment efficacy for each type of device among the retrieved patients; and displaying the range of outcomes and the range of therapy devices for the first patient, wherein the decision support is for a use case of pulmonary artery stenting and/or cardiac resynchronization planning and/or ablation therapy and/or valve replacement, wherein the patient information includes scan data of a medical scanner, wherein the scan data represents a two or three-dimensional region of the patient, wherein the scan is repeatable to represent the region over time. inputting patient information from different sources to a first deep auto-encoder, the patient information specific to a first patient and a type of therapy device; selecting similar patients to the first patient with an output of the first deep auto-encoder, the similar patients having been treated with the type of therapy device; inferring a range of outcomes from a range of therapy devices of the type of therapy device from data for the similar patients, displaying the range of outcomes and the range of therapy devices for the first patient, wherein the decision support is for a use case of pulmonary artery stenting and/or cardiac resynchronization planning and/or ablation therapy and/or valve replacement, wherein the patient information includes scan data of a medical scanner, wherein the scan data represents a two or three-dimensional region of the patient, wherein the scan is repeatable to represent the region over time.