mhurhangee/ep-ind-claims huggingface dataset:
A sensor opening test system configured to perform opening testing of a sensor that is newly installed, the sensor opening test system comprising: a sensor-side metadata acquiring unit configured to acquire sensor-side test metadata that is for use in opening testing and includes at least a sensor identifier uniquely identifying a sensor (la - 1c, 30) configured to output sensing data or a network adaptor connected to the sensor (la - 1c, 30) and configured to transmit sensing data to a network; an application-side metadata acquiring unit configured to acquire application-side test metadata that is metadata of an opening test application for use in opening testing of the sensor (la - 1c, 30) and includes at least the sensor identifier; a matching unit configured to determine matching of the acquired sensor-side test metadata and the acquired application-side test metadata, based on a sameness of the sensor identifiers; and an instructing unit configured to transmit, to a distribution device configured to manage distribution of the sensing data, a dataflow control command instructing test data flow to the opening test application from the sensor (la - 1c, 30) or network adaptor specified by the sensor-side test metadata and the application-side test metadata that are matched. a sensor-side metadata acquiring unit configured to acquire sensor-side test metadata that is for use in opening testing and includes at least a sensor identifier uniquely identifying a sensor (la - 1c, 30) configured to output sensing data or a network adaptor connected to the sensor (la - 1c, 30) and configured to transmit sensing data to a network; an application-side metadata acquiring unit configured to acquire application-side test metadata that is metadata of an opening test application for use in opening testing of the sensor (la - 1c, 30) and includes at least the sensor identifier; a matching unit configured to determine matching of the acquired sensor-side test metadata and the acquired application-side test metadata, based on a sameness of the sensor identifiers; and an instructing unit configured to transmit, to a distribution device configured to manage distribution of the sensing data, a dataflow control command instructing test data flow to the opening test application from the sensor (la - 1c, 30) or network adaptor specified by the sensor-side test metadata and the application-side test metadata that are matched.
A method performed by a user plane function, UPF, in a communication system during handover, the method comprising: receiving, from a session management function, SMF, a first message including first tunnel information for data forwarding between the UPF and a serving gateway, SGW, and information of a PDU session including information of a quality of service, QoS, flow, the QoS flow being mapped into the first tunnel information for data forwarding between the UPF and the SGW; allocating second tunnel information for data forwarding between a next generation radio access network, NG-RAN, and the UPF, the second tunnel information being associated with each protocol data unit, PDU, session; transmitting, to the SMF, a second message including the second tunnel information for data forwarding between the NG-RAN and the UPF, the second tunnel information being allocated by the UPF; receiving, from the NG-RAN, data based on the second tunnel information; and transmitting, to the SGW, the data based on the first tunnel information for data forwarding between the UPF and the SGW, the first tunnel information being associated with a evolved packet system, EPS, bearer. receiving, from a session management function, SMF, a first message including first tunnel information for data forwarding between the UPF and a serving gateway, SGW, and information of a PDU session including information of a quality of service, QoS, flow, the QoS flow being mapped into the first tunnel information for data forwarding between the UPF and the SGW; allocating second tunnel information for data forwarding between a next generation radio access network, NG-RAN, and the UPF, the second tunnel information being associated with each protocol data unit, PDU, session; transmitting, to the SMF, a second message including the second tunnel information for data forwarding between the NG-RAN and the UPF, the second tunnel information being allocated by the UPF; receiving, from the NG-RAN, data based on the second tunnel information; and transmitting, to the SGW, the data based on the first tunnel information for data forwarding between the UPF and the SGW, the first tunnel information being associated with a evolved packet system, EPS, bearer.
A variant of factor IX (F.IX) or activated factor IX (F.IXa), which is characterized in that it has clotting activity in absence of its cofactor, wherein the cofactor is factor VIII (F.VIII) or activated factor VIII (F.VIIIa), comprising at least one amino acid substitution in position 265 in combination with amino acid substitution 1383V and amino acid substitution V181I.
A method of determining a correction function (v) for a wind energy installation, by means of which a windward side wind speed (WSa) can be determined on the basis of a leeward side wind speed (WSb) measured by a leeward side anemometer (2a, 2b) of the wind energy installation, wherein windward side and leeward side relate to a rotor of the wind energy installation, wherein the method comprises the following steps of operation: measuring a windward side wind speed (WSa), a leeward side wind speed (WSb) and a leeward side wind direction (μ), wherein a plurality of measurement values are respectively recorded in a defined period of time; and determining the correction function (v) on the basis of the recorded measurement values by means of a model, wherein the recorded measurement values are set in relation to one another in the model, and the correction function (v) assigns a windward side wind speed (WSa) to a leeward side wind speed (WSb) as a function of a leeward side wind direction (μ); and outputting the determined correction function (v). measuring a windward side wind speed (WSa), a leeward side wind speed (WSb) and a leeward side wind direction (μ), wherein a plurality of measurement values are respectively recorded in a defined period of time; and determining the correction function (v) on the basis of the recorded measurement values by means of a model, wherein the recorded measurement values are set in relation to one another in the model, and the correction function (v) assigns a windward side wind speed (WSa) to a leeward side wind speed (WSb) as a function of a leeward side wind direction (μ); and outputting the determined correction function (v).
A vehicle configured such that, when moving at a speed above a predetermined threshold speed, at least one turbulent and/or low pressure region is formed adjacent to the vehicle, the vehicle characterized by: at least one propelling nozzle located adjacent to the at least one region wherein the at least one propelling nozzle comprises: at least one convergent propelling nozzle; and at least one divergent propelling nozzle; and a system for providing gas to the at least one nozzle for expulsion into the at least one region wherein the system is configured to supply relatively high temperature gas to the convergent nozzle; and wherein the system is configured to supply relatively low temperature gas to the divergent nozzle.
A dual evaporator refrigerator appliance comprising: a compressor; a condenser configured to receive a refrigerant stream from the compressor, comprising a first portion and a second portion defined within the condenser, and wherein the refrigerant stream received from the compressor comprises a zeotropic refrigerant mixture; a first evaporator; a second evaporator; and a separating component provided within the condenser and connected between the first and second portions of the condenser to receive a refrigerant stream from the first portion of the condenser, and configured to separate the refrigerant stream received thereby into a first refrigerant stream which flows to the first evaporator and a second refrigerant stream, which flows through the second portion of the condenser to the second evaporator, whereby the first evaporator and the second evaporator substantially simultaneously receive the first refrigerant stream and the second refrigerant stream, respectively. a compressor; a condenser configured to receive a refrigerant stream from the compressor, comprising a first portion and a second portion defined within the condenser, and wherein the refrigerant stream received from the compressor comprises a zeotropic refrigerant mixture; a first evaporator; a second evaporator; and a separating component provided within the condenser and connected between the first and second portions of the condenser to receive a refrigerant stream from the first portion of the condenser, and configured to separate the refrigerant stream received thereby into a first refrigerant stream which flows to the first evaporator and a second refrigerant stream, which flows through the second portion of the condenser to the second evaporator, whereby the first evaporator and the second evaporator substantially simultaneously receive the first refrigerant stream and the second refrigerant stream, respectively.
A system comprising: a photoplethysmogram, PPG, sensor disposed on an in-ear earpiece, the PPG sensor configured to measure signals from an ear of a subject wearing the in-ear earpiece, wherein the in-ear earpiece comprises: an earbud housing an acoustic driver module, a body substantially elliptical or circular in shape and coupled to the earbud, a positioning and retaining structure and a nozzle extending from the body towards a substantially frusto-conical sealing structure, the nozzle extending toward an ear canal of the subject and including an acoustic passage to conduct sound waves to the ear canal of the subject, wherein a light emitting diode, LED, and a photodetector, PD, included in the PPG sensor are housed on or inside the nozzle; and at least one processor; instructions, stored in a memory, that cause the at least one processor to: determine a sleep stage of the subject based, at least in part, on the signals; and provide an output based on the determined sleep stage. a photoplethysmogram, PPG, sensor disposed on an in-ear earpiece, the PPG sensor configured to measure signals from an ear of a subject wearing the in-ear earpiece, wherein the in-ear earpiece comprises: an earbud housing an acoustic driver module, a body substantially elliptical or circular in shape and coupled to the earbud, a positioning and retaining structure and a nozzle extending from the body towards a substantially frusto-conical sealing structure, the nozzle extending toward an ear canal of the subject and including an acoustic passage to conduct sound waves to the ear canal of the subject, wherein a light emitting diode, LED, and a photodetector, PD, included in the PPG sensor are housed on or inside the nozzle; and at least one processor; instructions, stored in a memory, that cause the at least one processor to: determine a sleep stage of the subject based, at least in part, on the signals; and provide an output based on the determined sleep stage. determine a sleep stage of the subject based, at least in part, on the signals; and provide an output based on the determined sleep stage.
A rechargeable type battery pack engageable with a housing of a hand-held electric tool, comprising: a battery case containing three cylindrical battery cells (21, 22, 23), the three battery cells (21, 22, 23) including a first battery cell arranged on a front side of the battery case and a second battery cell and a third battery cell arranged laterally side by side on a rear side thereof; a first fixation claw portion disposed at a right-side surface of a lower end portion of the battery case; a second fixation claw portion disposed at a left-side surface of the lower portion of the battery case; characterised by a first anti-slip portion coupled to the first fixation claw portion and configured to prevent the fingertips from moving toward a front side of the battery case; and a second anti-slip portion coupled to the second fixation claw portion and configured to prevent the fingertips from moving toward a front side of the battery case. a battery case containing three cylindrical battery cells (21, 22, 23), the three battery cells (21, 22, 23) including a first battery cell arranged on a front side of the battery case and a second battery cell and a third battery cell arranged laterally side by side on a rear side thereof; a first fixation claw portion disposed at a right-side surface of a lower end portion of the battery case; a second fixation claw portion disposed at a left-side surface of the lower portion of the battery case; characterised by a first anti-slip portion coupled to the first fixation claw portion and configured to prevent the fingertips from moving toward a front side of the battery case; and a second anti-slip portion coupled to the second fixation claw portion and configured to prevent the fingertips from moving toward a front side of the battery case.
A recording apparatus comprising: an adhesive belt configured to support and transport a recording medium; a recording head configured to record by discharging ink onto the recording medium that is supported by the adhesive belt; and a cleaning mechanism configured to clean the adhesive belt, the cleaning mechanism including a cleaning liquid tank configured to have a cleaning liquid, a contact section configured to come into contact with the adhesive belt to apply the cleaning liquid and clean off ink which is attached to the adhesive belt, and characterised in that the cleaning mechanism comprises an anti-foaming agent supply section configured to supply an anti-foaming agent for ink to the adhesive belt directly or via another member, the anti-foaming agent being allowed to remain on the adhesive belt and the anti-foaming agent being separate from the cleaning liquid. an adhesive belt configured to support and transport a recording medium; a recording head configured to record by discharging ink onto the recording medium that is supported by the adhesive belt; and a cleaning mechanism configured to clean the adhesive belt, the cleaning mechanism including a cleaning liquid tank configured to have a cleaning liquid, a contact section configured to come into contact with the adhesive belt to apply the cleaning liquid and clean off ink which is attached to the adhesive belt, and characterised in that the cleaning mechanism comprises an anti-foaming agent supply section configured to supply an anti-foaming agent for ink to the adhesive belt directly or via another member, the anti-foaming agent being allowed to remain on the adhesive belt and the anti-foaming agent being separate from the cleaning liquid. a cleaning liquid tank configured to have a cleaning liquid, a contact section configured to come into contact with the adhesive belt to apply the cleaning liquid and clean off ink which is attached to the adhesive belt, and characterised in that the cleaning mechanism comprises an anti-foaming agent supply section configured to supply an anti-foaming agent for ink to the adhesive belt directly or via another member, the anti-foaming agent being allowed to remain on the adhesive belt and the anti-foaming agent being separate from the cleaning liquid.
A method for monitoring the filling of a medication dispenser, comprising: - inserting a second strip of medication packages into a second container of the medication dispenser, - transferring the first medication package of the second strip to a reader of the medication dispenser, and - reading a taking time of the first medication package from a label of the first medication package; - comparing, by a control unit, the taking time of the first medication package of the second strip with a taking time of the last medication package of a first strip inserted into a first container of the medication dispenser, in order to determine if the delivery of medication packages can be continued after the first strip with the second strip, and characterised in that the steps of the method are carried out during the filling phase. - inserting a second strip of medication packages into a second container of the medication dispenser, - transferring the first medication package of the second strip to a reader of the medication dispenser, and - reading a taking time of the first medication package from a label of the first medication package; - comparing, by a control unit, the taking time of the first medication package of the second strip with a taking time of the last medication package of a first strip inserted into a first container of the medication dispenser, in order to determine if the delivery of medication packages can be continued after the first strip with the second strip, and characterised in that the steps of the method are carried out during the filling phase.
An electronic apparatus comprising: a communication interface; a dynamic vision sensor, DVS, comprising a plurality of sensing elements configured to output an event signal when detecting a change in incident light; a memory including a database in which one or more images are stored; and at least one processor configured to: based on event signals output by the DVS, store information about points in time when the change in the light occurred in an event map as a time information, wherein the event map includes a plurality of map elements corresponding to the plurality of sensing elements, based on the time information which is stored in the event map, generate a plurality of images, by displaying a specified value in a pixel, the pixel corresponding to time information stored in a map element, when each of the plurality of images includes a shape of one single user, store the plurality of images, in the database, identify the shape of the user included in each of the plurality of images stored in the database, and generate shape information for recognizing the user based on the identified shape of the user. a communication interface; a dynamic vision sensor, DVS, comprising a plurality of sensing elements configured to output an event signal when detecting a change in incident light; a memory including a database in which one or more images are stored; and at least one processor configured to: based on event signals output by the DVS, store information about points in time when the change in the light occurred in an event map as a time information, wherein the event map includes a plurality of map elements corresponding to the plurality of sensing elements, based on the time information which is stored in the event map, generate a plurality of images, by displaying a specified value in a pixel, the pixel corresponding to time information stored in a map element, when each of the plurality of images includes a shape of one single user, store the plurality of images, in the database, identify the shape of the user included in each of the plurality of images stored in the database, and generate shape information for recognizing the user based on the identified shape of the user. based on event signals output by the DVS, store information about points in time when the change in the light occurred in an event map as a time information, wherein the event map includes a plurality of map elements corresponding to the plurality of sensing elements, based on the time information which is stored in the event map, generate a plurality of images, by displaying a specified value in a pixel, the pixel corresponding to time information stored in a map element, when each of the plurality of images includes a shape of one single user, store the plurality of images, in the database, identify the shape of the user included in each of the plurality of images stored in the database, and generate shape information for recognizing the user based on the identified shape of the user.
Optical module (1; 1') of a lighting and/or signalling device of a motor vehicle, comprising a support, an optical lens and a heat exchanger, the optical lens and the heat exchanger being fastened to said support and said support connecting the optical lens to said heat exchanger, the optical module furthermore comprising first and second light sources that are intended to perform two separate lighting and/or signalling functions, the first source being intended to perform a high-beam type lighting function in cooperation with the second source and the second source being intended to perform alone a low-beam type lighting function, and the first and second light sources being positioned on and fastened to the heat exchanger, characterized in that the support bears the lens directly and bears the heat exchanger directly.
Thermoplastic welding device for assembling at least one first part made of thermoplastic composite material, a matrix of which is essentially formed by a thermoplastic resin, and at least one second part made of thermoplastic composite material of a type similar to the composite material of the first part, comprising: - a magnetic induction head; - a die for positioning the parts that have to be assembled, a nonmagnetic insulating insert of which defines bonding zones in which thermoplastic welds should be made; - a bladder defining, between said bladder and the die, an airtight volume and means for producing a partial vacuum in said airtight volume; - means for displacement of the magnetic induction head close to the bonding zones and without contact with the bladder. - a magnetic induction head; - a die for positioning the parts that have to be assembled, a nonmagnetic insulating insert of which defines bonding zones in which thermoplastic welds should be made; - a bladder defining, between said bladder and the die, an airtight volume and means for producing a partial vacuum in said airtight volume; - means for displacement of the magnetic induction head close to the bonding zones and without contact with the bladder.