mhurhangee/patent-ind-claim-en huggingface dataset:
A method implemented in a wireless device (WW100), comprising: - transmitting (VV102) a transport message to a 3GPP Access and Mobility Management Function, AMF (WW200), wherein the transport message comprises a session management, SM, message, to be forwarded by the AMF (WW200) to a 3GPP Session Management Function, SMF; and - receiving (VV104) a status message transmitted by the AMF (WW200), wherein the status message comprises at least a portion of the transport message, an indication of non-delivery of the session management, SM, message, and a cause of failure to deliver the session management, SM, message to the SMF, wherein the portion of the transport message comprises the session management, SM, message, and wherein the indication of non-delivery is an indication of non-delivery of the session management, SM, message by the AMF (WW200) to the SMF. - transmitting (VV102) a transport message to a 3GPP Access and Mobility Management Function, AMF (WW200), wherein the transport message comprises a session management, SM, message, to be forwarded by the AMF (WW200) to a 3GPP Session Management Function, SMF; and - receiving (VV104) a status message transmitted by the AMF (WW200), wherein the status message comprises at least a portion of the transport message, an indication of non-delivery of the session management, SM, message, and a cause of failure to deliver the session management, SM, message to the SMF,
Household appliance with a housing, a control panel , which, on an outer surface , has a rotary selector , which can be rotated about an axis of rotation , with a cover surface , a casing surface and a base surface , and a control unit , wherein the rotary selector has a first touch-sensitive surface on at least one part of its casing surface and a second touch-sensitive surface on a part of the base surface , wherein the second touch-sensitive surface faces an inner touch-sensitive surface on an inner surface of the control panel in such a way that the second touch-sensitive surface and the inner touch-sensitive surface can interact with one another, wherein in order to generate a signal on the touch-sensitive surfaces , the touch-sensitive surfaces indicate a change in an electrical capacitance when touched by a user and/or when the rotary selector is rotated, wherein the signals are routed from the second touch-sensitive surface to the inner touch-sensitive surface , wherein an electronic evaluation system connected to the inner touch-sensitive surface is provided to evaluate the change in the electrical capacitance in respect of an absolute and/or relative change in a position of the rotary selector , wherein a change in an electrical capacitance occurring on the first touch-sensitive surface can be communicated to the second touch-sensitive surface , wherein the cover surface is embodied as a projection surface and the household appliance within the housing contains a projection device which is designed to display visual information on the projection surface .
An air conditioner system, comprising: a temperature regulator configured to regulate a temperature of an indoor air; an indoor air temperature detector configured to detect the temperature of the indoor air; and a control unit configured to control the temperature regulator so that the temperature detected by the indoor air temperature detector approaches a target temperature, wherein the control unit is configured to run in a first mode to alternately repeat a first operation of lowering the target temperature to a first target temperature lower than a predetermined reference temperature and a second operation of raising the target temperature to a second target temperature higher than the reference temperature, characterized in that the target temperature is gradually raised from the first target temperature to the second target temperature in the second operation, and lowering the target temperature to the first target temperature in the first operation takes shorter time than raising the target temperature to the second target temperature in the second operation. a temperature regulator configured to regulate a temperature of an indoor air; an indoor air temperature detector configured to detect the temperature of the indoor air; and a control unit configured to control the temperature regulator so that the temperature detected by the indoor air temperature detector approaches a target temperature, wherein the control unit is configured to run in a first mode to alternately repeat a first operation of lowering the target temperature to a first target temperature lower than a predetermined reference temperature and a second operation of raising the target temperature to a second target temperature higher than the reference temperature, characterized in that the target temperature is gradually raised from the first target temperature to the second target temperature in the second operation, and lowering the target temperature to the first target temperature in the first operation takes shorter time than raising the target temperature to the second target temperature in the second operation.
Electric shaver comprising a handle portion , a shaver head supported by said handle portion and including at least one drivable cutter element , and at least one rinse opening for rinsing water or other fluids through the interior of said shaver head , characterized in that said rinse opening forms a funnel-like inlet channel having a horn- or funnel-shaped contour with a cross-section continuously expanding towards the ambience of the shaver.
A vaporiser assembly for use in a vapour provision system, wherein the vaporiser assembly comprises: a liquid transport element formed from cotton; and a heating element comprising a coil of resistive wire around a portion of the liquid transport element, wherein the heating element has an electrical resistance of between 1.3 ohms and 1.5 ohms. a liquid transport element formed from cotton; and a heating element comprising a coil of resistive wire around a portion of the liquid transport element, wherein the heating element has an electrical resistance of between 1.3 ohms and 1.5 ohms.
A method, comprising: receiving, via an application programming interface, API, of a single provisioning system , multiplexed transmissions from multiple telemetry devices , the multiplexed transmissions each comprising a registration message and telemetry data, the telemetry data comprising location data of the telemetry devices ; demultiplexing, by the single provisioning system , the multiplexed transmissions to obtain the respective registration messages and the telemetry data; registering, by the single provisioning system , the multiple telemetry devices with a telemetry system based upon the respective registration messages; sending, by the single provisioning system , the respective telemetry data to the telemetry system ; and sending, by the provisioning system , registration responses to the telemetry devices , the registration responses confirming registration of the telemetry devices with the telemetry system , and receiving via the API, additional transmissions from the multiple telemetry devices , the additional transmissions comprising additional telemetry data, without registration messages; comparing the location data received to a predefined physical boundary for a respective telemetry device of the multiple telemetry devices ; and when the location data does not meet a predefined condition with regard to the defined physical boundary, then taking an action towards restricting use of the respective telemetry device . receiving, via an application programming interface, API, of a single provisioning system , multiplexed transmissions from multiple telemetry devices , the multiplexed transmissions each comprising a registration message and telemetry data, the telemetry data comprising location data of the telemetry devices ; demultiplexing, by the single provisioning system , the multiplexed transmissions to obtain the respective registration messages and the telemetry data; registering, by the single provisioning system , the multiple telemetry devices with a telemetry system based upon the respective registration messages; sending, by the single provisioning system , the respective telemetry data to the telemetry system ; and sending, by the provisioning system , registration responses to the telemetry devices , the registration responses confirming registration of the telemetry devices with the telemetry system , and receiving via the API, additional transmissions from the multiple telemetry devices , the additional transmissions comprising additional telemetry data, without registration messages; comparing the location data received to a predefined physical boundary for a respective telemetry device of the multiple telemetry devices ; and when the location data does not meet a predefined condition with regard to the defined physical boundary, then taking an action towards restricting use of the respective telemetry device .
A nickel-chromium alloy with high resistance to oxidation and carburisation and high creep rupture strength and creep resistance, formed of 0.4 to 0.6% carbon 28 to 33% chromium 15 to 25% iron 2 to 6% aluminium up to 2% silicon up to 2% manganese up to 1.5% niobium up to 1.5% tantalum up to 1.0% tungsten up to 1.0% titanium up to 1.0% zirconium up to 0.5% yttrium up to 0.5% cerium up to 0.5% molybdenum up to 0.1% nitrogen the rest being formed by nickel inclusive of melting-related impurities. 0.4 to 0.6% carbon 28 to 33% chromium 15 to 25% iron 2 to 6% aluminium up to 2% silicon up to 2% manganese up to 1.5% niobium up to 1.5% tantalum up to 1.0% tungsten up to 1.0% titanium up to 1.0% zirconium up to 0.5% yttrium up to 0.5% cerium up to 0.5% molybdenum up to 0.1% nitrogen the rest being formed by nickel inclusive of melting-related impurities.
A semiconductor device, comprising: a secure memory configured to store a programmable key comprising a plurality of sub-keys ; an interface for programming the programmable key in the secure memory ; and a plurality of configurable features of the semiconductor device each being associated with one of said plurality of sub-keys of the programmable key , each configurable feature having a set of multiple selectable configurations; wherein a value of each sub-key defines a selection of one of the multiple configurations for a respective one of the configurable features associated with that sub-key , wherein the plurality of configurable features comprises at last one of a pinout configuration, a memory mapping of a memory of the semiconductor device, a test entry sequence, a peripheral set availability, an interrupt vector table location, and an SRAM start location. a secure memory configured to store a programmable key comprising a plurality of sub-keys ; an interface for programming the programmable key in the secure memory ; and a plurality of configurable features of the semiconductor device each being associated with one of said plurality of sub-keys of the programmable key , each configurable feature having a set of multiple selectable configurations; wherein a value of each sub-key defines a selection of one of the multiple configurations for a respective one of the configurable features associated with that sub-key , wherein the plurality of configurable features comprises at last one of a pinout configuration, a memory mapping of a memory of the semiconductor device, a test entry sequence, a peripheral set availability, an interrupt vector table location, and an SRAM start location.
A method of manufacturing a glass resin laminating body comprising: a step of sticking a glass film on a resin film via an adhesive layer while holding the glass film and the resin film between a first roller that presses against the resin film and a second roller that is disposed opposite to the first roller and that presses against the glass film , wherein a ratio of an elastic modulus P1 of a surface layer of the first roller to an elastic modulus P2 of the resin film P1/P2 satisfies a relation of 3×10 -3 ≤ P1/P2 ≤ 1.0, wherein a thickness of the adhesive layer is less than or equal to 5 um, wherein the surface layer of the first roller is formed of a material having an elastic modulus that is lower than the elastic modulus of iron, wherein the surface layer of the first roller is a portion of the first roller 1 mm inward from the surface of the first roller towards the center, and wherein the surface layer of the first roller is formed of polyethylene terephthalate, polyethylene or polypropylene. a step of sticking a glass film on a resin film via an adhesive layer while holding the glass film and the resin film between a first roller that presses against the resin film and a second roller that is disposed opposite to the first roller and that presses against the glass film , wherein a ratio of an elastic modulus P1 of a surface layer of the first roller to an elastic modulus P2 of the resin film P1/P2 satisfies a relation of 3×10 -3 ≤ P1/P2 ≤ 1.0, a thickness of the adhesive layer is less than or equal to 5 um, wherein the surface layer of the first roller is formed of a material having an elastic modulus that is lower than the elastic modulus of iron, wherein the surface layer of the first roller is a portion of the first roller 1 mm inward from the surface of the first roller towards the center, and
An apparatus comprising: means for receiving a square video block having a size of NxN pixels of more than 16x16 pixels, where N is an integer multiple of 16; means for partitioning the video block into partitions using hierarchical partitioning with one or more levels, wherein, at each hierarchical partitioning level, square partitions can be further partitioned into two equally sized rectangular partitions or into four square partitions, wherein some of the partitions are differently sized; means for encoding one of the partitions using a first encoding mode, wherein the first encoding mode comprises intra-prediction encoding mode, I-mode, and wherein encoding the partition using the first encoding mode comprises predicting the partition from one or more neighboring pixels according to the I-mode; means for encoding another of the partitions using a second encoding mode, wherein the second encoding mode comprises one of P-mode and B-mode, and wherein the second encoding mode is different from the first encoding mode; and means for generating block-type syntax information for the video block that indicates the size of the video block and identifies the partitions of the video block and the encoding modes used to encode the partitions. means for receiving a square video block having a size of NxN pixels of more than 16x16 pixels, where N is an integer multiple of 16; means for partitioning the video block into partitions using hierarchical partitioning with one or more levels, wherein, at each hierarchical partitioning level, square partitions can be further partitioned into two equally sized rectangular partitions or into four square partitions, wherein some of the partitions are differently sized; means for encoding one of the partitions using a first encoding mode, wherein the first encoding mode comprises intra-prediction encoding mode, I-mode, and wherein encoding the partition using the first encoding mode comprises predicting the partition from one or more neighboring pixels according to the I-mode; means for encoding another of the partitions using a second encoding mode, wherein the second encoding mode comprises one of P-mode and B-mode, and wherein the second encoding mode is different from the first encoding mode; and means for generating block-type syntax information for the video block that indicates the size of the video block and identifies the partitions of the video block and the encoding modes used to encode the partitions.
A method in a terminal device , the method comprising: upon detecting that a first condition is met, causing a transmission of a measurement report to a wireless network; acquiring a conditional handover command from the wireless network in response to the transmission of the measurement report; upon detecting that a second condition, associated with the conditional handover command, is met , starting a handover execution timer for triggering execution of a handover from a source cell to a target cell ; detecting that a radio link failure condition is met (T4) before the execution of the handover is triggered (T5) and after starting the handover execution timer (T3); and on the basis of the detecting that the radio link failure condition is met, signaling , to the wireless network, information indicative of a cause of a conditional handover failure to be either misconfigured first condition or misconfigured second condition, wherein the information comprises timing information indicative of at least one of a first time period between detecting that the radio link failure condition is met and acquiring the conditional handover command or a second time period between starting the handover execution timer and acquiring the conditional handover command. upon detecting that a first condition is met, causing a transmission of a measurement report to a wireless network; acquiring a conditional handover command from the wireless network in response to the transmission of the measurement report; upon detecting that a second condition, associated with the conditional handover command, is met , starting a handover execution timer for triggering execution of a handover from a source cell to a target cell ; detecting that a radio link failure condition is met (T4) before the execution of the handover is triggered (T5) and after starting the handover execution timer (T3); and on the basis of the detecting that the radio link failure condition is met, signaling , to the wireless network, information indicative of a cause of a conditional handover failure to be either misconfigured first condition or misconfigured second condition, wherein the information comprises timing information indicative of at least one of a first time period between detecting that the radio link failure condition is met and acquiring the conditional handover command or a second time period between starting the handover execution timer and acquiring the conditional handover command.
A fuel heating system for a gas turbine system , the fuel heating system comprising: a boiler for generating steam ; a heat recovery steam generator (HRSG) independent of the boiler ; a single fuel heat exchanger including a first passage for fluidly communicating a fuel therethrough and a second passage in thermal communication with the first passage for fluidly communicating a heating medium therethrough to heat the fuel , the single fuel heat exchanger structured to operate using steam or water as the heating medium ; and a control valve system fluidly interconnecting the HRSG , the boiler and the single fuel heat exchanger and configured to selectively deliver the heating medium to the second passage of the single fuel heat exchanger as one of: the steam from the boiler and the hot feedwater from the HRSG . a boiler for generating steam ; a heat recovery steam generator (HRSG) independent of the boiler ; a single fuel heat exchanger including a first passage for fluidly communicating a fuel therethrough and a second passage in thermal communication with the first passage for fluidly communicating a heating medium therethrough to heat the fuel , the single fuel heat exchanger structured to operate using steam or water as the heating medium ; and a control valve system fluidly interconnecting the HRSG , the boiler and the single fuel heat exchanger and configured to selectively deliver the heating medium to the second passage of the single fuel heat exchanger as one of: the steam from the boiler and the hot feedwater from the HRSG .
Device for the protection of a radar of a motor vehicle, comprising the elements: - a body consisting of a material transparent to radar waves and light, - a light source , - a light reflector consisting of a material transparent to radar waves , and - an electrically conductive heating track positioned on the surface or inside the body of transparent material, the elements being arranged in such a way that a light beam emitted by the light source is reflected by the light reflector towards the body in transparent material, characterized in that an air cavity is arranged between the light reflector and the transparent body . - a body consisting of a material transparent to radar waves and light, - a light source , - a light reflector consisting of a material transparent to radar waves , and - an electrically conductive heating track positioned on the surface or inside the body of transparent material,
A system comprising an atmospheric pressure plasma generation device , an imaging device , and an information processing device , the information processing device comprising: an application position calculating section configured to calculate an application position of plasma on a processing target object based on captured image data of the processing target object captured by the imaging device when plasma is applied to the processing target object from the atmospheric pressure plasma generation device .
Radio tag (7-14), which is designed to communicate with a communication station using a time slot communication procedure, in which communication procedure a number of time slots (Z1-ZN) per time slot cycle in a repeating sequence are available for communication, and each time slot (Z1-ZN) is characterized by a unique time slot symbol (ZS1-ZSN), wherein at the beginning of the respective time slot (Z1-ZN) the communication station sends out a synchronization data signal (SD) comprising the time slot symbol (Z1-ZN) for the currently present time slot (Z1-ZN), and wherein the radio tag (7-14) is designed: + to switch from a sleep state (S) into an active state (E) at a wake-up time (TA1), and + to receive the synchronization data signal (SD) in the active state (E), and, + to determine its synchronism with the communications station solely by the fact of detecting the time slot symbol (ZS1-ZSN) that occurs at the time it expects or in an expected time window, and indicates the time slot (Z1-ZN) intended for it, and, + if the received time slot symbol (ZS1-ZSN) indicates a time slot (Z1-ZN) intended for it, to define a new wakeup time (TA2) corresponding to the next occurrence of the time slot (Z1-ZN) intended for it in a time slot cycle that follows the currently present time slot cycle, and, + after the radio tag (7-14) has determined its synchronism, to switch back into the sleep state and remain there until a wake-up and changeover from the sleep state into the active state is carried out at the new wake-up time in the next time slot cycle. + to switch from a sleep state (S) into an active state (E) at a wake-up time (TA1), and + to receive the synchronization data signal (SD) in the active state (E), and, + to determine its synchronism with the communications station solely by the fact of detecting the time slot symbol (ZS1-ZSN) that occurs at the time it expects or in an expected time window, and indicates the time slot (Z1-ZN) intended for it, and, + if the received time slot symbol (ZS1-ZSN) indicates a time slot (Z1-ZN) intended for it, to define a new wakeup time (TA2) corresponding to the next occurrence of the time slot (Z1-ZN) intended for it in a time slot cycle that follows the currently present time slot cycle, and, + after the radio tag (7-14) has determined its synchronism, to switch back into the sleep state and remain there until a wake-up and changeover from the sleep state into the active state is carried out at the new wake-up time in the next time slot cycle.