mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: establishing a communication session between a source device and one or more sink devices; notifying (702, 84A) each of the sink devices of a universal queue size selected by the source device for the communication session based on supported queue sizes of at least the source device and the one or more sink devices; sending data packets to each of the sink devices, wherein the data packets are held at the sink devices in sink queues having the universal queue size; holding the data packets at the source device in a source queue having the universal queue size; measuring a transmission delay interval for the source device, wherein the transmission delay interval represents a time interval for a last sink device to receive the data packets; upon detecting that the source queue is full, waiting for the transmission delay interval before beginning processing of the data packets in the source queue for display at the source device, wherein the processing at the source device is synchronized with processing of the data packets at the sink devices for display at the sink devices; calculating a trigger delay interval for each of the sink devices that represents a wait time for a particular sink device between detecting that the sink queue is full and beginning processing of the packets in the sink queue; and notifying each of the sink devices of their respective trigger delay interval. establishing a communication session between a source device and one or more sink devices; notifying (702, 84A) each of the sink devices of a universal queue size selected by the source device for the communication session based on supported queue sizes of at least the source device and the one or more sink devices; sending data packets to each of the sink devices, wherein the data packets are held at the sink devices in sink queues having the universal queue size; holding the data packets at the source device in a source queue having the universal queue size; measuring a transmission delay interval for the source device, wherein the transmission delay interval represents a time interval for a last sink device to receive the data packets; upon detecting that the source queue is full, waiting for the transmission delay interval before beginning processing of the data packets in the source queue for display at the source device, wherein the processing at the source device is synchronized with processing of the data packets at the sink devices for display at the sink devices; calculating a trigger delay interval for each of the sink devices that represents a wait time for a particular sink device between detecting that the sink queue is full and beginning processing of the packets in the sink queue; and notifying each of the sink devices of their respective trigger delay interval.
An internal temperature measuring device (10, 10B-10G) for internal body temperature, comprising: an acquisition unit that acquires a one side temperature (θ a) and a one side heat flux (φ qa) of a measurement target on a one side surface side and an opposite side temperature (θ b) and an opposite side heat flux (φ qb) of the measurement target on an opposite side surface side; and a computation unit that computes an internal temperature of the measurement target by applying the one side temperature, the one side heat flux, the opposite side temperature, and the opposite side heat flux. an acquisition unit that acquires a one side temperature (θ a) and a one side heat flux (φ qa) of a measurement target on a one side surface side and an opposite side temperature (θ b) and an opposite side heat flux (φ qb) of the measurement target on an opposite side surface side; and a computation unit that computes an internal temperature of the measurement target by applying the one side temperature, the one side heat flux, the opposite side temperature, and the opposite side heat flux.
A failure diagnosis system (800, 800A) configured to diagnose a state of an air-conditioning apparatus (100, 100A) having a refrigerant circuit in which refrigerant circulates, the failure diagnosis system (800, 800A) comprising: a state detection unit configured to detect a state of the refrigerant in the refrigerant circuit as state data; a controller configured to control an actuator of the air-conditioning apparatus (100, 100A); and an abnormality diagnosis unit configured to perform normal-operation abnormality diagnosis determining presence or absence of abnormality of the air-conditioning apparatus (100, 100A) by using the state data, and control data indicating a content of control by the controller during a normal operation of the air-conditioning apparatus (100, 100A), the failure diagnosis system being characterized in that the abnormality diagnosis unit is configured to, when determining that abnormality is present in the air-conditioning apparatus (100, 100A), change a control value of the actuator of the air-conditioning apparatus (100, 100A), acquire the state data and the control data, perform abnormality-cause identification diagnosis identifying a cause of an abnormality of the air-conditioning apparatus (100, 100A) by using the state data and the control data that are acquired before the change of the control value, and the state data and the control data that are acquired after the change of the control value. a state detection unit configured to detect a state of the refrigerant in the refrigerant circuit as state data; a controller configured to control an actuator of the air-conditioning apparatus (100, 100A); and an abnormality diagnosis unit configured to perform normal-operation abnormality diagnosis determining presence or absence of abnormality of the air-conditioning apparatus (100, 100A) by using the state data, and control data indicating a content of control by the controller during a normal operation of the air-conditioning apparatus (100, 100A), the failure diagnosis system being characterized in that the abnormality diagnosis unit is configured to, the state data, and control data indicating a content of control by the controller during a normal operation of the air-conditioning apparatus (100, 100A), the failure diagnosis system being characterized in that the abnormality diagnosis unit is configured to, when determining that abnormality is present in the air-conditioning apparatus (100, 100A), change a control value of the actuator of the air-conditioning apparatus (100, 100A), acquire the state data and the control data, perform abnormality-cause identification diagnosis identifying a cause of an abnormality of the air-conditioning apparatus (100, 100A) by using the state data and the control data that are acquired before the change of the control value, and the state data and the control data that are acquired after the change of the control value. the state data and the control data that are acquired before the change of the control value, and the state data and the control data that are acquired after the change of the control value.
An apparatus, comprising configuration informing means adapted to inform a terminal device on one or more resource pools comprised by a set of resource pools, wherein each of the resource pools comprises respective one or more resource units, and each of the resource units is defined by at least one of a respective frequency band, a respective time period, and a respective coding space, control means adapted to control the terminal device such that, when the terminal device wants to perform a contention based transmission, the contention based transmission may be performed on at least one of the resource pools of the set, and tag providing means adapted to provide, for at least one of the resource pools of the set, a respective tag to the terminal device, wherein each of the tags comprises information on at least one of a channel condition of the respective resource pool, a load status of the respective resource pool, and an expected capacity of the respective resource pool. configuration informing means adapted to inform a terminal device on one or more resource pools comprised by a set of resource pools, wherein each of the resource pools comprises respective one or more resource units, and each of the resource units is defined by at least one of a respective frequency band, a respective time period, and a respective coding space, control means adapted to control the terminal device such that, when the terminal device wants to perform a contention based transmission, the contention based transmission may be performed on at least one of the resource pools of the set, and tag providing means adapted to provide, for at least one of the resource pools of the set, a respective tag to the terminal device, wherein each of the tags comprises information on at least one of a channel condition of the respective resource pool, a load status of the respective resource pool, and an expected capacity of the respective resource pool.
A cooking support method for a cooking support system which is connected through a network to a thermal image camera to take a thermal image of a region including a cookware during cooking and to a notification device capable of notifying the user of information, and which supports cooking by a user, comprising: acquiring (S1, S11), through the network from the thermal image camera, a thermal image of the region including the cookware at predetermined time intervals taken from the obliquely above the cookware by the thermal image camera; characterized in that calculating a value indicating a change in level of a content in the cookware from the acquired thermal image; determining whether or not the calculated value indicating the change in level is not less than a predetermined threshold; determining that there is a possibility of the content boiling over the cookware during cooking when it is determined that the calculated value indicating the change in level is not less than the predetermined threshold; and transmitting notification information to the notification device, the notification information indicating information notifying the user that there is the possibility of boiling over. acquiring (S1, S11), through the network from the thermal image camera, a thermal image of the region including the cookware at predetermined time intervals taken from the obliquely above the cookware by the thermal image camera; characterized in that calculating a value indicating a change in level of a content in the cookware from the acquired thermal image; determining whether or not the calculated value indicating the change in level is not less than a predetermined threshold; determining that there is a possibility of the content boiling over the cookware during cooking when it is determined that the calculated value indicating the change in level is not less than the predetermined threshold; and transmitting notification information to the notification device, the notification information indicating information notifying the user that there is the possibility of boiling over.
A system comprising: a first clock module configured to generate a first clock reference that is not corrected using automatic frequency correction, AFC; a global position system, GPS, module configured to receive the first clock reference; a baseband module; characterized in that the system further comprises: an integrated circuit for a cellular transceiver including a clock distribution module configured to receive the first clock reference from the first clock module and to output the first clock reference to the GPS module, and a system phase lock loop module configured to receive the first clock reference from the clock distribution module and to generate a second clock reference that is AFC corrected by performing AFC on the first clock reference in response to an AFC signal, wherein the cellular transceiver further includes a multiplexer configured to selectively output one of the first clock reference and the second clock reference to the baseband module; and the baseband module configured to receive the selectively output clock reference and to generate the AFC Signal. a first clock module configured to generate a first clock reference that is not corrected using automatic frequency correction, AFC; a global position system, GPS, module configured to receive the first clock reference; a baseband module; an integrated circuit for a cellular transceiver including a clock distribution module configured to receive the first clock reference from the first clock module and to output the first clock reference to the GPS module, and a system phase lock loop module configured to receive the first clock reference from the clock distribution module and to generate a second clock reference that is AFC corrected by performing AFC on the first clock reference in response to an AFC signal, wherein the cellular transceiver further includes a multiplexer configured to selectively output one of the first clock reference and the second clock reference to the baseband module; and the baseband module configured to receive the selectively output clock reference and to generate the AFC Signal.
An apparatus, comprising: a plurality of compute units (131, 132, 133) of an artificial neural network configured to store weight values (W 1, W 2, W 3) for the artificial neural network, wherein a first of the plurality of compute units is configured to: receive input data from a unified buffer shared among the plurality of compute units, and perform operations on the input data; characterized in that the first of the plurality of compute units is further configured to: shift at least a portion of the input data (161, 162) to a second of the plurality of compute units without transferring the at least a portion of the input data through the unified buffer; and a local data link (155, 156) configured to transfer the at least a portion of the input data between the first of the plurality of compute units and the second of the plurality of compute units, wherein the local data link is not coupled to the unified buffer nor to a unified data bus. a plurality of compute units (131, 132, 133) of an artificial neural network configured to store weight values (W 1, W 2, W 3) for the artificial neural network, wherein a first of the plurality of compute units is configured to: receive input data from a unified buffer shared among the plurality of compute units, and perform operations on the input data; characterized in that the first of the plurality of compute units is further configured to: shift at least a portion of the input data (161, 162) to a second of the plurality of compute units without transferring the at least a portion of the input data through the unified buffer; and receive input data from a unified buffer shared among the plurality of compute units, and perform operations on the input data; characterized in that the first of the plurality of compute units is further configured to: shift at least a portion of the input data (161, 162) to a second of the plurality of compute units without transferring the at least a portion of the input data through the unified buffer; and a local data link (155, 156) configured to transfer the at least a portion of the input data between the first of the plurality of compute units and the second of the plurality of compute units, wherein the local data link is not coupled to the unified buffer nor to a unified data bus.
A flow battery comprising: a first liquid containing a first nonaqueous solvent; wherein the first nonaqueous solvent contains one or more types of solvents, and the one or more types of solvents each independently have at least one selected from the group consisting of a carbonate group and an ether oxygen; wherein the first liquid further comprises an electrolyte selected from the group consisting of LiBF 4, LiPF 6, LiTFSI, LiFSI, LiCF 3 SO 3, and LiClO 4; a first electrode that is at least partly immersed in the first liquid; a second electrode which is a counter electrode to the first electrode; and a separator isolating the first electrode from the second electrode, wherein the separator contains a lithium ion conductor, the lithium ion conductor contains a compound including main chains, at least one main chain of the main chains includes one or more aromatic rings and is cross-linked to at least another main chain of the main chains, and at least one aromatic ring of the one or more aromatic rings includes one or more sulfo groups. a first liquid containing a first nonaqueous solvent; wherein the first nonaqueous solvent contains one or more types of solvents, and the one or more types of solvents each independently have at least one selected from the group consisting of a carbonate group and an ether oxygen; wherein the first liquid further comprises an electrolyte selected from the group consisting of LiBF 4, LiPF 6, LiTFSI, LiFSI, LiCF 3 SO 3, and LiClO 4; a first electrode that is at least partly immersed in the first liquid; a second electrode which is a counter electrode to the first electrode; and a separator isolating the first electrode from the second electrode, wherein the separator contains a lithium ion conductor, the lithium ion conductor contains a compound including main chains, at least one main chain of the main chains includes one or more aromatic rings and is cross-linked to at least another main chain of the main chains, and at least one aromatic ring of the one or more aromatic rings includes one or more sulfo groups.
A method for channel state information measurement feedback in a V2X direct communication scenario, characterized in that the method comprises: receiving, by a first device, CSI measurement reference signal resource pool configuration information transmitted by a base station, wherein the CSI measurement reference signal resource pool configuration information comprises identification information of n CSI measurement reference signal resources in a CSI measurement reference signal resource set, where n is a positive integer; transmitting, by the first device, CSI measurement configuration information to a second device in direct communication with the first device, wherein the CSI measurement configuration information comprises the identification information of m CSI measurement reference signal resources in the n CSI measurement reference signal resources, where m is a positive integer less than or equal to n; and receiving, by the first device, CSI measurement feedback information transmitted by the second device. receiving, by a first device, CSI measurement reference signal resource pool configuration information transmitted by a base station, wherein the CSI measurement reference signal resource pool configuration information comprises identification information of n CSI measurement reference signal resources in a CSI measurement reference signal resource set, where n is a positive integer; transmitting, by the first device, CSI measurement configuration information to a second device in direct communication with the first device, wherein the CSI measurement configuration information comprises the identification information of m CSI measurement reference signal resources in the n CSI measurement reference signal resources, where m is a positive integer less than or equal to n; and receiving, by the first device, CSI measurement feedback information transmitted by the second device.
A measurement transducer for measuring a force comprising a resonator element which can be excited to at least one resonance frequency (f); and comprising at least one force application element (30, 30'), on which the force is applied and which transmits the force to the resonator element; wherein the force application element (30, 30') is a hollow body comprising a top surface (31, 31'), a lateral surface (32, 32') and a cavity (33, 33'), wherein the top surface (31, 31') and lateral surface (32, 32') are mechanically connected to each other and enclose the cavity (33, 33'); wherein the resonator element is arranged in the cavity (33, 33"); wherein the resonator element is mechanically connected to the lateral surface (32, 32'); wherein the force acts on the top surface (31, 31') which transmits the force into the lateral surface (32, 32'); wherein the lateral surface (32, 32') has at least one recessed area (34, 34'), which extends into the cavity (33, 33') and prevents transmission of the force within the lateral surface (32, 32'); wherein the lateral surface (32, 32') comprises at least one non-recessed area (35, 35') and it is only this non-recessed area (35, 35') that transmits the force; wherein the force application element (30, 30') comprises a base (36, 36') at an end thereof that faces away from the top surface (31, 31'); wherein top surface (31, 31') and base (36, 36') are mechanically connected to each other by the lateral surface (32, 32'); the resonator element is mechanically connected to the base (36, 36'); the base (36, 36') transmits the force into the resonator element; the force causes a transverse expansion of the resonator element, the transverse expansion occurs in the resonator element in a transverse direction, said transverse direction forming an angle with the direction of the force that is different from zero, wherein an amount of said transverse expansion is proportional to the force; the force application element (30, 30') has a longitudinal axis (AA'), said longitudinal axis (AA') extending from the top surface (31, 31') to the base (36, 36'); top surface (31, 31') and base (36, 36') are parallel to each other in a transverse plane; the longitudinal axis (AA') is perpendicular to the transverse plane;, characterized in that the transverse expansion causes a frequency change (Δf) of the resonator element that has been excited to the resonance frequency (f), said frequency change (Δf) being a function of the force and that a maximum distance of the base (36, 36') to the longitudinal axis (AA') is greater than a maximum distance of the top surface (31, 31') to the longitudinal axis (AA'); that the force application element (30, 30') being hollow spherical segment-shaped or hollow truncated coneshaped or hollow cylindrical in shape or hollow truncated pyramidal in shape.