mhurhangee/ep-ind-claims huggingface dataset:
A method for providing device data from a source device to a data requester, the method being performed in a data provider and comprising the steps of: determining an operating mode for the data provider in respect of the source device, the operating mode being either a pass-through mode or a cache mode, based on estimated resource usage for each of the pass-through mode and the cache mode; receiving a read request from the data requester, the read request requesting device data from the source device; when the data provider is in the pass-through mode, transmitting a corresponding read request to the source device and forwarding a read response comprising device data, from the source device to the data requester; when the data provider is in the cache mode, retrieving device data from storage of the data provider and transmitting a read response to the data requester, the read response comprising the device data from storage; and populating, the storage of the data provider with device data received from the source device when the data provider is in the cache mode. determining an operating mode for the data provider in respect of the source device, the operating mode being either a pass-through mode or a cache mode, based on estimated resource usage for each of the pass-through mode and the cache mode; receiving a read request from the data requester, the read request requesting device data from the source device; when the data provider is in the pass-through mode, transmitting a corresponding read request to the source device and forwarding a read response comprising device data, from the source device to the data requester; when the data provider is in the cache mode, retrieving device data from storage of the data provider and transmitting a read response to the data requester, the read response comprising the device data from storage; and populating, the storage of the data provider with device data received from the source device when the data provider is in the cache mode.
A wheel alignment device adapted to measure the characteristic dimensions and angles of wheels, steering and chassis of vehicles, comprising a scanning system for the contactless measurement equipped with at least one projector projecting onto an object to be measured a structured light with a pattern, at least two video cameras arranged for the acquisition of the image of the object to be measured, and a processing unit for processing the acquired image for the three-dimensional reconstruction of the object to be measured, said projector comprising at least one matrix of emitters integrated into a monolithic substrate, said processing unit being configured to compare the image acquired by the two cameras so that the geometry of the pattern does not need to be known a priori to avoid measurement inaccuracies due to the derivation of this geometry over time for example due to thermal, mechanical or optical causes, characterised in that it comprises movement means for moving said at least one projector, in that said at least one projector is configured to project said structured light with a changing pattern and in that said processing unit is configured to mediate the results acquired with changed patterns.
Apparatus for use in the household, in sanitary facilities or in the garden, comprising a joint, comprising at least one pivoting body, which can be pivoted about a pivot-axis member relative to a stator body, wherein the pivot-axis member and the pivoting body can be slid relative to the stator body, wherein the pivoting body can be pivoted from a hanging position, in which it can be pivoted, into a sliding position, in which it can be slid relative to the stator body, wherein, at least in one setting of its sliding position, the pivoting body is no longer pivotable, but can be slid into a fixed position, wherein the stator body has a groove-like or slot-like aperture, and wherein the pivot-axis member can be slid and displaced within the aperture, characterized in that the pivoting body can be slid telescopically relative to the stator body in order either to allow the pivoting body to pivot or to prevent it from pivoting, wherein the pivoting body can be slid onto the stator body.
An electric bicycle assistance controlling method applied to an operation processor of an electric bicycle, the operation processor being electrically connected to a human power detector, a heart rate detector and an assistance motor of the electric bicycle, the electric bicycle assistance controlling method characterized by: defining a plurality of preset health levels and a first power interval and a second power interval, wherein the first power interval and the second power interval correspond to the plurality of preset health levels, and the second power interval is greater than the first power interval; acquiring one actual health level and determining the first power interval and the second power interval corresponding to the actual health level; acquiring a target heart rate interval; measuring a current human power by the human power detector and further measuring a current heart rate by the heart rate detector; and driving the assistance motor to output a second motor assistance in response to the current human power inside the first power interval, or driving the assistance motor to output a third motor assistance in response to the current human power inside the second power interval when the current heart rate is within the target heart rate interval; wherein the third motor assistance is greater than the second motor assistance. defining a plurality of preset health levels and a first power interval and a second power interval, wherein the first power interval and the second power interval correspond to the plurality of preset health levels, and the second power interval is greater than the first power interval; acquiring one actual health level and determining the first power interval and the second power interval corresponding to the actual health level; acquiring a target heart rate interval; measuring a current human power by the human power detector and further measuring a current heart rate by the heart rate detector; and driving the assistance motor to output a second motor assistance in response to the current human power inside the first power interval, or driving the assistance motor to output a third motor assistance in response to the current human power inside the second power interval when the current heart rate is within the target heart rate interval; wherein the third motor assistance is greater than the second motor assistance.
A mobile communications device comprising: a near field communications, NFC, port; and a processor operable to: execute a trusted application within a trusted execution environment, TEE, for processing sensitive data; execute a first NFC driver within the TEE for providing a secure channel between the trusted application and the NFC port such that sensitive data being exchanged across the secure channel are inaccessible to other processes being executed by the processor; execute the first NFC driver for controlling a non-secure channel to the NFC port, wherein the non-secure channel is provided through a second NFC driver within a kernel space which is separated from the TEE; and control the first NFC driver to disable the second NFC driver for disabling the non-secure channel during the exchange of sensitive data between the trusted application and the NFC port through the secure channel. a near field communications, NFC, port; and a processor operable to: execute a trusted application within a trusted execution environment, TEE, for processing sensitive data; execute a first NFC driver within the TEE for providing a secure channel between the trusted application and the NFC port such that sensitive data being exchanged across the secure channel are inaccessible to other processes being executed by the processor; execute the first NFC driver for controlling a non-secure channel to the NFC port, wherein the non-secure channel is provided through a second NFC driver within a kernel space which is separated from the TEE; and control the first NFC driver to disable the second NFC driver for disabling the non-secure channel during the exchange of sensitive data between the trusted application and the NFC port through the secure channel. execute a trusted application within a trusted execution environment, TEE, for processing sensitive data; execute a first NFC driver within the TEE for providing a secure channel between the trusted application and the NFC port such that sensitive data being exchanged across the secure channel are inaccessible to other processes being executed by the processor; execute the first NFC driver for controlling a non-secure channel to the NFC port, wherein the non-secure channel is provided through a second NFC driver within a kernel space which is separated from the TEE; and control the first NFC driver to disable the second NFC driver for disabling the non-secure channel during the exchange of sensitive data between the trusted application and the NFC port through the secure channel.
A secondary battery comprising: a first oxide semiconductor layer having a first conductivity type; a first charging layer disposed on the first oxide semiconductor layer, the first charging layer composed by comprising a first insulating material and a second oxide semiconductor layer, the second oxide semiconductor layer having the first conductivity type; a third oxide semiconductor layer having a second conductivity type disposed on the first charging layer; and a hydroxide layer disposed between the first charging layer and the third oxide semiconductor layer, the hydroxide layer containing a hydroxide of a metal constituting the third oxide semiconductor layer. a first oxide semiconductor layer having a first conductivity type; a first charging layer disposed on the first oxide semiconductor layer, the first charging layer composed by comprising a first insulating material and a second oxide semiconductor layer, the second oxide semiconductor layer having the first conductivity type; a third oxide semiconductor layer having a second conductivity type disposed on the first charging layer; and a hydroxide layer disposed between the first charging layer and the third oxide semiconductor layer, the hydroxide layer containing a hydroxide of a metal constituting the third oxide semiconductor layer.
A method for processing data table join types, comprising: setting, based on an environment of a distributed data warehouse where to-be-joined data tables locate, a parameter list for cost estimation; estimating, based on parameters in the parameter list and execution logic of each data table join type candidate, an execution cost for each data table join type candidate in performing join calculations on the to-be-joined data tables; and selecting, based on the estimated execution cost for each data table join type candidate in performing join calculations on the to-be-joined data tables, a target data table join type for performing join calculations on the to-be-joined data tables wherein the estimating, based on parameters in the parameter list and execution logic of each data table join type candidate, an execution cost for each data table join type candidate in performing join calculations on the to-be-joined data tables comprises: determining, for each data table join type candidate, execution steps of the data table join type candidate and a key operation in each execution step; estimating, based on the parameters in the parameter list and the key operation in each execution step, an execution cost for each execution step; and obtaining, based on the execution cost for each execution step, an execution cost for the data table join type candidate. setting, based on an environment of a distributed data warehouse where to-be-joined data tables locate, a parameter list for cost estimation; estimating, based on parameters in the parameter list and execution logic of each data table join type candidate, an execution cost for each data table join type candidate in performing join calculations on the to-be-joined data tables; and selecting, based on the estimated execution cost for each data table join type candidate in performing join calculations on the to-be-joined data tables, a target data table join type for performing join calculations on the to-be-joined data tables wherein the estimating, based on parameters in the parameter list and execution logic of each data table join type candidate, an execution cost for each data table join type candidate in performing join calculations on the to-be-joined data tables comprises: determining, for each data table join type candidate, execution steps of the data table join type candidate and a key operation in each execution step; estimating, based on the parameters in the parameter list and the key operation in each execution step, an execution cost for each execution step; and obtaining, based on the execution cost for each execution step, an execution cost for the data table join type candidate. determining, for each data table join type candidate, execution steps of the data table join type candidate and a key operation in each execution step; estimating, based on the parameters in the parameter list and the key operation in each execution step, an execution cost for each execution step; and obtaining, based on the execution cost for each execution step, an execution cost for the data table join type candidate.
A pharmaceutical composition comprising naltrexone or an analogue thereof, for use in the treatment of a subject having a tumour/cancer; wherein the naltrexone or the analogue thereof is to be administered to the subject in a first treatment phase, followed by a recovery phase; wherein, following the recovery phase, a small molecule signalling inhibitor selected from the group consisting of PI3-kinase inhibitors, AKT inhibitors, taxanes, antimetabolites, alkylating agents and cell cycle inhibitors is to be administered to the subject in a second treatment phase; the recovery phase being characterised by the absence of administration of the naltrexone or the analogue thereof and the small molecule signalling inhibitor.
Method for welding a sensor housing element to a bumper, both the sensor housing element and the bumper being plastics parts for a motor vehicle, which method comprises the per se known torsional ultrasonic welding method using a cylindrical torsion sonotrode for transmitting the vibrations producing the welding action to the sensor housing element to be welded, the sensor housing element being provided with a coupling surface for coupling the vibrations of the cylindrical torsion sonotrode, and the sensor housing element being provided, on the annular welding region facing the welding surface on the bumper, with coupling elements for coupling the vibrations induced by the cylindrical torsion sonotrode, and the coupling elements therefore melting during the welding action and thus welding the sensor housing element to the bumper, wherein projections extending substantially perpendicularly to the welding region are used as the coupling elements and are arranged such that the melt remains substantially on the welding surface, and the projections being two coaxial rings that enclose the annular welding region.
A computer-implemented method for determining a flow profile in an artery based on ultrasound imaging data, the method comprising: - receiving ultrasound imaging data of an artery in triplex mode, wherein the triplex mode comprises: - B-mode ultrasound data, - pulsed wave Doppler ultrasound data, and - color or power Doppler ultrasound data; - determining, from the ultrasound imaging data, - an artery dimension; - a velocity in the artery cross-section, and - a measure of asymmetry of the flow profile; and - determining a flow profile from - the artery dimension, - the velocity in the artery cross-section, and - the measure of asymmetry of the flow profile. - receiving ultrasound imaging data of an artery in triplex mode, wherein the triplex mode comprises: - B-mode ultrasound data, - pulsed wave Doppler ultrasound data, and - color or power Doppler ultrasound data; - B-mode ultrasound data, - pulsed wave Doppler ultrasound data, and - color or power Doppler ultrasound data; - determining, from the ultrasound imaging data, - an artery dimension; - a velocity in the artery cross-section, and - a measure of asymmetry of the flow profile; and - an artery dimension; - a velocity in the artery cross-section, and - a measure of asymmetry of the flow profile; and - determining a flow profile from - the artery dimension, - the velocity in the artery cross-section, and - the measure of asymmetry of the flow profile. - the artery dimension, - the velocity in the artery cross-section, and - the measure of asymmetry of the flow profile.
Method for operating a cogeneration plant, wherein a first fraction of a first fuel is electrochemically converted in at least one fuel cell of a fuel cell plant of the cogeneration plant, thus generating electrical power and heat, wherein a second fraction of the first fuel, which leaves the fuel cell without conversion, is combusted, after it leaves the fuel cell, in an afterburner of the fuel cell plant, thus generating heat, wherein a second fuel can be combusted in an auxiliary heating unit of the cogeneration plant, and heat can thus be generated, wherein at an optimum operating point of the fuel cell, an optimum first fraction of the first fuel can be converted, wherein, if more heat is required than can be generated at the optimum operating point of the fuel cell in the fuel cell plant, the first fraction of the first fuel is reduced in relation to the optimum operating point, such that more heat is generated in the afterburner than at the optimum operating point, wherein water as a heat-absorbing medium flows through the fuel cell plant, characterized in that the water flows through the fuel cell plant and the auxiliary heating unit in sequence or in parallel in a circuit, in order to transport the heat of the cogeneration plant to consumer devices (50, 51).
A multiple-input multiple-output, MIMO, antenna system, wherein the MIMO antenna system comprises a first antenna and a second antenna; the first antenna comprises a first radiator and a second radiator, the first radiator is in a ring structure, the second radiator is disposed inside the first radiator, the first radiator and the second radiator are not directly connected, and the first radiator and the second radiator are located on a first plane; the first antenna further comprises at least two inductor components, one end of the inductor component is connected to the first radiator, and the other end of the inductor component is connected to the second radiator; a first feed is further disposed on the first antenna, one end of the first feed is disposed on the first radiator, and the other end of the feed is disposed on the second radiator; the second antenna comprises a third radiator, the third radiator is in a ring structure, at least two slots are disposed on the third radiator, and the slots penetrate inside and outside of the ring structure of the third radiator; the third radiator is also disposed in the first plane; a second feed is further disposed on the third radiator, and the second feed is serially connected to a middle position of the third radiator between any two adjacent slots; and the first antenna is disposed inside the second antenna, and the first antenna and the second antenna are not connected to each other. the first antenna comprises a first radiator and a second radiator, the first radiator is in a ring structure, the second radiator is disposed inside the first radiator, the first radiator and the second radiator are not directly connected, and the first radiator and the second radiator are located on a first plane; the first antenna further comprises at least two inductor components, one end of the inductor component is connected to the first radiator, and the other end of the inductor component is connected to the second radiator; a first feed is further disposed on the first antenna, one end of the first feed is disposed on the first radiator, and the other end of the feed is disposed on the second radiator; the second antenna comprises a third radiator, the third radiator is in a ring structure, at least two slots are disposed on the third radiator, and the slots penetrate inside and outside of the ring structure of the third radiator; the third radiator is also disposed in the first plane; a second feed is further disposed on the third radiator, and the second feed is serially connected to a middle position of the third radiator between any two adjacent slots; and the first antenna is disposed inside the second antenna, and the first antenna and the second antenna are not connected to each other.
A method of handling at least one secondary cell in a wireless communication system having a mobile device, the mobile device being managed by a first 3 rd Generation Partnership Project, 3GPP, network of the wireless communication system, the first 3GPP network supporting carrier aggregation, wherein component carriers comprise a primary component carrier in a primary cell and at least one secondary component carrier in said at least one secondary cell, the method comprising: when the mobile device is connected to at least one secondary cell, releasing the at least one secondary cell, after receiving a handover command from the first 3GPP network, wherein the handover command indicates the mobile device to hand over from the first 3GPP network to a second 3GPP network of the wireless communication system not supporting carrier aggregation. when the mobile device is connected to at least one secondary cell, releasing the at least one secondary cell, after receiving a handover command from the first 3GPP network, wherein the handover command indicates the mobile device to hand over from the first 3GPP network to a second 3GPP network of the wireless communication system not supporting carrier aggregation.
An electro-magnetic transducer assembly for measuring a stapedius reflex, the transducer comprising: a first component including at least one magnet; and a coil assembly including: at least one coil (1602, 1605) for producing a signal representative of the vibration of the at least one magnet; and an output port for providing the signal, the first component further including a first attachment mechanism for attaching the first component to a stapedius tendon associated with an ear of a patient; and the coil assembly including a second attachment mechanism (1607, 1609) for removably attaching the coil assembly to the first component, wherein said first component and/or said second attachment mechanism (1607,1609) comprises springs or other biasing mechanisms that provide a mechanical resonance associated with the first component below 100 Hz. a first component including at least one magnet; and a coil assembly including: at least one coil (1602, 1605) for producing a signal representative of the vibration of the at least one magnet; and an output port for providing the signal, at least one coil (1602, 1605) for producing a signal representative of the vibration of the at least one magnet; and an output port for providing the signal, the first component further including a first attachment mechanism for attaching the first component to a stapedius tendon associated with an ear of a patient; and the coil assembly including a second attachment mechanism (1607, 1609) for removably attaching the coil assembly to the first component, wherein said first component and/or said second attachment mechanism (1607,1609) comprises springs or other biasing mechanisms that provide a mechanical resonance associated with the first component below 100 Hz.