mhurhangee/patent-ind-claim-en huggingface dataset:
A method of context-aware caller redirection from a telephony environment to a messaging environment, the method comprising: receiving telephony information from a telephony system , the telephony information including a caller identifier corresponding to a caller device and call context provided by the caller device during a telephone call between the caller device and the telephony system ; selecting a selected messaging operator of a plurality of messaging operators based on the call context; generating a messaging interface for the selected messaging operator , the messaging interface including the caller identifier, the call context, and an input interface ; receiving a caller message from the caller device via a messaging service; updating the messaging interface to include the caller message in response to receipt of the caller message; triggering transmission of an operator message to the caller device via the messaging service, the operator message input by the selected messaging operator via the input interface of the messaging interface ; and updating the messaging interface to include the operator message in response to triggering transmission of the operator message. receiving telephony information from a telephony system , the telephony information including a caller identifier corresponding to a caller device and call context provided by the caller device during a telephone call between the caller device and the telephony system ; selecting a selected messaging operator of a plurality of messaging operators based on the call context; generating a messaging interface for the selected messaging operator , the messaging interface including the caller identifier, the call context, and an input interface ; receiving a caller message from the caller device via a messaging service; updating the messaging interface to include the caller message in response to receipt of the caller message; triggering transmission of an operator message to the caller device via the messaging service, the operator message input by the selected messaging operator via the input interface of the messaging interface ; and updating the messaging interface to include the operator message in response to triggering transmission of the operator message.
A method for wireless communication, the method being performed by a network device, the method comprising: indicating, using a value of a bit in a second indication field in a physical broadcasting channel, PBCH, in a first synchronization signal, SS, block, whether a first indication field in the PBCH in the first SS block is used for: indicating a physical resource block, PRB, grid offset between channels or signals of an SS block and a non-SS block, or indicating resource information of a second SS block; and sending the first SS block, wherein when the first indication field is used for indicating the resource information of the second SS block, the first indication field in the first SS block indicates the resource information of the second SS block. indicating a physical resource block, PRB, grid offset between channels or signals of an SS block and a non-SS block, or indicating resource information of a second SS block; and sending the first SS block, wherein when the first indication field is used for indicating the resource information of the second SS block, the first indication field in the first SS block indicates the resource information of the second SS block.
A magnetic marker detection method for detecting a magnetic marker laid on a road by using a plurality of, at least two or more, magnetic sensors (Cn, CnA, CnB) attached to a vehicle , the method including: a gradient generating process (S102) of generating a first magnetic gradient that can be calculated by first-order difference operation, second-order difference operation, or higher-order difference operation targeted on magnetic measurement values acquired in a same measurement period by two or more magnetic sensors (Cn, CnA, CnB) among the plurality of magnetic sensors (Cn, CnA, CnB); and a filter processing process (S103) of generating a filter output value by performing filter processing for suppressing or cutting off at least a low frequency component as to a change of a magnetic gradient in a travelling direction of the vehicle , the magnetic gradient being at least either of a second magnetic gradient, which is a difference between said first magnetic gradients with the targeting magnetic measurement values acquired in different measurement periods, and the first magnetic gradient, and at least part of input data of processing for detecting the magnetic marker (S104) being the filter output value. a gradient generating process (S102) of generating a first magnetic gradient that can be calculated by first-order difference operation, second-order difference operation, or higher-order difference operation targeted on magnetic measurement values acquired in a same measurement period by two or more magnetic sensors (Cn, CnA, CnB) among the plurality of magnetic sensors (Cn, CnA, CnB); and a filter processing process (S103) of generating a filter output value by performing filter processing for suppressing or cutting off at least a low frequency component as to a change of a magnetic gradient in a travelling direction of the vehicle , the magnetic gradient being at least either of a second magnetic gradient, which is a difference between said first magnetic gradients with the targeting magnetic measurement values acquired in different measurement periods, and the first magnetic gradient, and at least part of input data of processing for detecting the magnetic marker (S104) being the filter output value.
An electronic device comprising: a biological signal input unit configured to receive a biological signal of a user detected through an electrode (31-1) connectable to the biological signal input unit ; a voice input unit configured to receive a voice signal; a storage configured to store first characteristic information of a first synthesis signal in which a voice signal regarding a specific utterance of the user and a biological signal of the user are synthesized; and a processor configured to: generate a second synthesis signal in which the received voice signal and the received biological signal are synthesized; extract second characteristic information from the second synthesis signal; and identify the user by comparing the extracted second characteristic information of the second synthesis signal with the first characteristic information of the first synthesis signal stored in the storage . a biological signal input unit configured to receive a biological signal of a user detected through an electrode (31-1) connectable to the biological signal input unit ; a voice input unit configured to receive a voice signal; a storage configured to store first characteristic information of a first synthesis signal in which a voice signal regarding a specific utterance of the user and a biological signal of the user are synthesized; and a processor configured to: generate a second synthesis signal in which the received voice signal and the received biological signal are synthesized; extract second characteristic information from the second synthesis signal; and identify the user by comparing the extracted second characteristic information of the second synthesis signal with the first characteristic information of the first synthesis signal stored in the storage . generate a second synthesis signal in which the received voice signal and the received biological signal are synthesized; extract second characteristic information from the second synthesis signal; and identify the user by comparing the extracted second characteristic information of the second synthesis signal with the first characteristic information of the first synthesis signal stored in the storage .
A composition consisting essentially of a sulfonic acid selected from the group consisting of an alkylbenzenesulfonic acid having structure (I), or its hydrate, a sulfosalicylic acid having structure (II), or its hydrate, and mixtures thereof, wherein n is an integer from 6 to 16, and the solvent dipropylene glycol dimethyl ether (III), and optionally a surfactant, a sulfonic acid selected from the group consisting of an alkylbenzenesulfonic acid having structure (I), or its hydrate, a sulfosalicylic acid having structure (II), or its hydrate, and mixtures thereof, wherein n is an integer from 6 to 16, and an alkylbenzenesulfonic acid having structure (I), or its hydrate, a sulfosalicylic acid having structure (II), or its hydrate, and mixtures thereof, wherein n is an integer from 6 to 16, and the solvent dipropylene glycol dimethyl ether (III), and optionally a surfactant,
Layer structure, comprising i) a substrate layer made of a thermoplastic polycarbonate-based composition and ii) a metal layer applied to the substrate layer i, characterized in that the thermoplastic polycarbonate-based composition of substrate layer i contains the following components: a) 44% to 63% by weight of aromatic polycarbonate, b) 3% to 8% by weight of expanded graphite, c) 34% to 38% by weight of fired silicon dioxide, d) 0% to 10% by weight of one or more further additives, wherein the total amount of expanded graphite and fired silicon dioxide is at least 40% by weight. i) a substrate layer made of a thermoplastic polycarbonate-based composition and ii) a metal layer applied to the substrate layer i, characterized in that the thermoplastic polycarbonate-based composition of substrate layer i contains the following components: a) 44% to 63% by weight of aromatic polycarbonate, b) 3% to 8% by weight of expanded graphite, c) 34% to 38% by weight of fired silicon dioxide, d) 0% to 10% by weight of one or more further additives, a) 44% to 63% by weight of aromatic polycarbonate, b) 3% to 8% by weight of expanded graphite, c) 34% to 38% by weight of fired silicon dioxide, d) 0% to 10% by weight of one or more further additives, wherein the total amount of expanded graphite and fired silicon dioxide is at least 40% by weight.
A geared turbomachine fluid delivery system , comprising: a first fluid path configured to communicate fluid from a supply to a gear system of a geared turbomachine; a second fluid path configured to communicate fluid from the supply to the gear system , wherein the fluid introduced to the gear system by the first fluid path is cooler than that the fluid introduced to the gear system by the second fluid path , wherein fluid moving along the first fluid path moves through a cooler assembly ; the geared turbomachine fluid delivery system is characterised by further comprising a valve that controls flow from the supply to the first fluid path , to the second fluid path , or both; and a third fluid path configured to communicate some fluid that has moved through the cooler assembly from the first fluid path to the second fluid path . a first fluid path configured to communicate fluid from a supply to a gear system of a geared turbomachine; a second fluid path configured to communicate fluid from the supply to the gear system , wherein the fluid introduced to the gear system by the first fluid path is cooler than that the fluid introduced to the gear system by the second fluid path , wherein fluid moving along the first fluid path moves through a cooler assembly ; the geared turbomachine fluid delivery system is characterised by further comprising a valve that controls flow from the supply to the first fluid path , to the second fluid path , or both; and a third fluid path configured to communicate some fluid that has moved through the cooler assembly from the first fluid path to the second fluid path .
Load relief device for compensating for the axial thrust of a jet engine, having an element which is rotationally conjoint with a shaft and forms at least one gap together with a fixed opposing element , wherein a carbon layer is disposed at least in regions between the element and the opposing element , characterized in that it is a tetrahedral hydrogen-free amorphous carbon layer and the carbon layer has been applied as a coating to the element and the opposing element .
A rollback prevention control device (8,SV05) on an electrically driven vehicle, wherein (i) the vehicle is capable of traveling by transmitting driving force from a rotation electric machine to wheels and (ii) the wheels are capable of being braked by regenerative braking associated with electric generation of the rotation electric machine and a frictional braking on an as required basis, comprising: - a charging restriction detecting unit (S51) that is configured to detect when charging from the rotation electric machine is being prohibited; - an accelerator operation detecting unit that is configured to detect an accelerator operation of a driver of the electrically driven vehicle; - a vehicle rollback detecting unit (S55) that is configured to detect that the vehicle rolls back in a direction opposite to an acceleration direction when the accelerator operation detecting unit has detected the accelerator operation; and - a frictional braking control unit (SB-06, SV-10) that it is configured to cause the frictional braking to occur and to control the frictional braking force (TPMC) to increase at constant rate of change in accordance with an increase of the accelerator operation when the accelerator operation detecting unit and the vehicle rollback detecting unit (S55) detect the vehicle rollback at the accelerator operation (APO) and the charging restriction detecting unit (S51) detects prohibition of charging operation, wherein, when charging from the rotation electric machine is not prohibited, regenerative braking is used. (i) the vehicle is capable of traveling by transmitting driving force from a rotation electric machine to wheels and (ii) the wheels are capable of being braked by regenerative braking associated with electric generation of the rotation electric machine and a frictional braking on an as required basis, - a charging restriction detecting unit (S51) that is configured to detect when charging from the rotation electric machine is being prohibited; - an accelerator operation detecting unit that is configured to detect an accelerator operation of a driver of the electrically driven vehicle; - a vehicle rollback detecting unit (S55) that is configured to detect that the vehicle rolls back in a direction opposite to an acceleration direction when the accelerator operation detecting unit has detected the accelerator operation; and - a frictional braking control unit (SB-06, SV-10) that it is configured to cause the frictional braking to occur and to control the frictional braking force (TPMC) to increase at constant rate of change in accordance with an increase of the accelerator operation when the accelerator operation detecting unit and the vehicle rollback detecting unit (S55) detect the vehicle rollback at the accelerator operation (APO) and the charging restriction detecting unit (S51) detects prohibition of charging operation, wherein, when charging from the rotation electric machine is not prohibited, regenerative braking is used.
An image decoding apparatus for decoding input image coded data, comprising: an image-coded data extractor that extracts image coded data pertaining to a decoding target layer set including at least one layer, from the input image coded data, based on a target layer ID list indicating layers contained in the decoding target layer set and on a target highest temporal ID of the decoding target layer set; and a picture decoding unit that decodes a picture in the decoding target layer set, from the extracted image coded data, wherein a target NAL unit having a layer ID that is not in the target layer ID list or having a temporal ID that is greater than a value of the target highest temporal ID is discarded from the extracted image coded data, wherein the temporal ID is for identifying a temporal sub-layer and the target NAL unit is a non-VCL NAL unit or a VCL NAL unit, and wherein the layer ID of a target NAL unit that is a non-VCL NAL unit having a parameter set NAL unit type and having a layer ID that is not in the target layer ID list is set to the lowest layer ID in the target layer ID list. an image-coded data extractor that extracts image coded data pertaining to a decoding target layer set including at least one layer, from the input image coded data, based on a target layer ID list indicating layers contained in the decoding target layer set and on a target highest temporal ID of the decoding target layer set; and a picture decoding unit that decodes a picture in the decoding target layer set, from the extracted image coded data, wherein a target NAL unit having a layer ID that is not in the target layer ID list or having a temporal ID that is greater than a value of the target highest temporal ID is discarded from the extracted image coded data, wherein the temporal ID is for identifying a temporal sub-layer and the target NAL unit is a non-VCL NAL unit or a VCL NAL unit, and wherein the layer ID of a target NAL unit that is a non-VCL NAL unit having a parameter set NAL unit type and having a layer ID that is not in the target layer ID list is set to the lowest layer ID in the target layer ID list.
A biopsy site marker, comprising: a carrier (520, 620 ... 1620); and a marker element (512, 612 ... 1612) disposed within the carrier (520, 620 ... 1620), the carrier (520, 620 ... 1620) including a first marker material (522, 622, ... 1622) and a second marker material (524, 624, ... 1624), characterized by the first marker material and the second marker material being each configured to expand in the presence of moisture, the first marker material being configured to expand at a rapid rate relative to the second marker material in the presence of moisture. a carrier (520, 620 ... 1620); and a marker element (512, 612 ... 1612) disposed within the carrier (520, 620 ... 1620), the carrier (520, 620 ... 1620) including a first marker material (522, 622, ... 1622) and a second marker material (524, 624, ... 1624), characterized by the first marker material and the second marker material being each configured to expand in the presence of moisture, the first marker material being configured to expand at a rapid rate relative to the second marker material in the presence of moisture.
An alloy material, comprising the following elements in weight percentages given: magnesium: less than 3%; selenium:0.05%-0.3%; strontium: 0.001%-0.5%; zinc: the remainder. magnesium: less than 3%; selenium:0.05%-0.3%; strontium: 0.001%-0.5%; zinc: the remainder.
A first node for access and mobility management, for a Public Land Mobile Network, PLMN, the first node comprising: means for receiving, from a second node , information for identifying a stand-alone non-public network, SNPN, wherein the second node is communicatively coupled with the first node via a reference point of N2; and means for sending, to the second node , information of a warning message to be broadcast to a user equipment, UE, that accesses the SNPN. means for receiving, from a second node , information for identifying a stand-alone non-public network, SNPN, wherein the second node is communicatively coupled with the first node via a reference point of N2; and means for sending, to the second node , information of a warning message to be broadcast to a user equipment, UE, that accesses the SNPN.
Instrument system for minimally invasive surgery on the tissue of a patient having an instrument shaft comprising a distal end which is insertable into the body of a patient and a proximal end which remains extracorporeal, an inner cannula extending axially through the instrument shaft , at least one operating cannula extending axially through the instrument shaft and having an obturator which can coaxially receive an optical device and which can be inserted into the inner cannula so that its transparent distal tip protrudes from the distal end face of the instrument shaft , wherein a valve block , is disposed on the proximal end of the instrument shaft , closing the inner cannula and allowing for a sealed penetration of the obturator or of an optical device, characterized in that the plane of the distal end face of the instrument shaft is slanted toward the middle axis of the instrument shaft at an angle different from 90°, in that the inner cannula and the at least one operating cannula of the instrument shaft emerge from the distal end face , and in that , when the obturator is inserted, its distal protruding tip transitions gradually into the end face .
A device for obtaining thermal images of a living mammal body section , said device comprising: - a thermal energy storage surface structure for contacting said body section , - a thermal sensor for obtaining thermal images reflecting thermal energy storage over at least a portion of said thermal energy storage surface structure in a registration mode of operation of said device, - a thermal energy transfer module for transferring thermal energy to said thermal energy storage surface structure for bringing same at a reference temperature in a calibration mode of operation of said device, characterised in that the device further comprises: - a control circuit arranged for monitoring presence of a body section at said thermal energy storage surface structure and for controlling thermal energy transfer by said thermal energy transfer module in said calibration mode in the presence of a body section at said thermal energy storage surface structure for restraining thermal energy transfer by said thermal energy transfer module to said body section . - a thermal energy storage surface structure for contacting said body section , - a thermal sensor for obtaining thermal images reflecting thermal energy storage over at least a portion of said thermal energy storage surface structure in a registration mode of operation of said device, - a thermal energy transfer module for transferring thermal energy to said thermal energy storage surface structure for bringing same at a reference temperature in a calibration mode of operation of said device, - a control circuit arranged for monitoring presence of a body section at said thermal energy storage surface structure and for controlling thermal energy transfer by said thermal energy transfer module in said calibration mode in the presence of a body section at said thermal energy storage surface structure for restraining thermal energy transfer by said thermal energy transfer module to said body section .
A corner panel of an LNG cargo, comprising: a main body arranged at a corner area of the cargo, an internal face of the main body having curvature; and a stress diverging part including a curvature member and configured to reduce convergence of stress of the main body, an external face of the curvature member being adhered to the internal face of the main body , wherein a slit is formed on the external face of the curvature member. a main body arranged at a corner area of the cargo, an internal face of the main body having curvature; and a stress diverging part including a curvature member and configured to reduce convergence of stress of the main body, an external face of the curvature member being adhered to the internal face of the main body , wherein a slit is formed on the external face of the curvature member.