mhurhangee/ep-ind-claims huggingface dataset:
Method for transmitting sensor data from multiple sensors to a satellite, comprising the following steps: - communicating available registration time slots by the satellite to all sensors within radio range that are eligible for sensor data transmission, - selecting in each case one of the communicated registration time slots by each of the above-mentioned sensors, - transmitting a registration message by means of the respective sensor to the satellite in the selected registration time slot, wherein the registration message contains a system-wide unique identifier of the sensor, - storing the identifier of the sensor and the current position of the satellite at which the satellite is located when the registration message is received, by means of the satellite, - confirming a completed registration to the corresponding sensor by the satellite, - sending in each case a request message to each registered sensor by means of the satellite for requesting sensor data, wherein the request message contains a reception period during which the satellite is ready to receive the sensor data of the corresponding sensor, wherein the specification of the reception period chosen by the satellite is based on the registration time slot chosen by the respective sensor, wherein alternatively the satellite sends a common request message to a plurality of sensors, in which it specifies a separate reception period for each of the plurality of sensors for receiving the sensor data, and - sending the sensor data to the satellite by the respective sensor within the reception period specified for it in the request message. - communicating available registration time slots by the satellite to all sensors within radio range that are eligible for sensor data transmission, - selecting in each case one of the communicated registration time slots by each of the above-mentioned sensors, - transmitting a registration message by means of the respective sensor to the satellite in the selected registration time slot, wherein the registration message contains a system-wide unique identifier of the sensor, - storing the identifier of the sensor and the current position of the satellite at which the satellite is located when the registration message is received, by means of the satellite, - confirming a completed registration to the corresponding sensor by the satellite, - sending in each case a request message to each registered sensor by means of the satellite for requesting sensor data, wherein the request message contains a reception period during which the satellite is ready to receive the sensor data of the corresponding sensor, wherein the specification of the reception period chosen by the satellite is based on the registration time slot chosen by the respective sensor, wherein alternatively the satellite sends a common request message to a plurality of sensors, in which it specifies a separate reception period for each of the plurality of sensors for receiving the sensor data, and - sending the sensor data to the satellite by the respective sensor within the reception period specified for it in the request message.
A method comprising: a) providing a composition comprising one or more sources of indium ions; b) electroplating indium metal on a substrate; and c) replenishing indium ions in the composition during electroplating with one or more of indium acetate, indium formate and indium oxalate; wherein said composition further comprises one or more epihalohydrin copolymers. a) providing a composition comprising one or more sources of indium ions; b) electroplating indium metal on a substrate; and c) replenishing indium ions in the composition during electroplating with one or more of indium acetate, indium formate and indium oxalate;
A first device comprising: at least one processor; and at least one memory including computer program codes; the at least one memory and the computer program codes are configured to, with the at least one processor, cause the first device at least to: determine first timing of a channel state information reference signal from a target cell, the first device configured by a second device to measure the channel state information reference signal; determine second timing used by the first device to measure the channel state information reference signal; determine a timing difference between the first timing and the second timing; and transmit, to the second device and based on the timing difference, information concerning measurement of the channel state information reference signal, wherein the at least one memory and the computer program codes are configured to, with the at least one processor, cause the first device to transmit the information by: in accordance with a determination that the timing difference exceeds a threshold, transmitting to the second device an indication that the timing difference exceeds the threshold. at least one processor; and at least one memory including computer program codes; the at least one memory and the computer program codes are configured to, with the at least one processor, cause the first device at least to: determine first timing of a channel state information reference signal from a target cell, the first device configured by a second device to measure the channel state information reference signal; determine second timing used by the first device to measure the channel state information reference signal; determine a timing difference between the first timing and the second timing; and transmit, to the second device and based on the timing difference, information concerning measurement of the channel state information reference signal, wherein the at least one memory and the computer program codes are configured to, with the at least one processor, cause the first device to transmit the information by: determine first timing of a channel state information reference signal from a target cell, the first device configured by a second device to measure the channel state information reference signal; determine second timing used by the first device to measure the channel state information reference signal; determine a timing difference between the first timing and the second timing; and transmit, to the second device and based on the timing difference, information concerning measurement of the channel state information reference signal, wherein the at least one memory and the computer program codes are configured to, with the at least one processor, cause the first device to transmit the information by: in accordance with a determination that the timing difference exceeds a threshold, transmitting to the second device an indication that the timing difference exceeds the threshold.
An acoustic signal decoding apparatus comprising: a decoding section adapted to decode a first balance parameter from stereo encoded data; a calculating section adapted to calculate a second balance parameter using a first channel signal and a second channel signal of a stereo acoustic signal obtained in a past; and a balance adjusting section adapted to perform balance adjustment processing of a monaural acoustic signal using the second balance parameter as a balance adjustment parameter when the first balance parameter cannot be used, wherein the calculating section is adapted to calculate the second balance parameter, using an amplitude ratio of the first channel signal with respect to a signal adding the first channel signal and the second channel signal and an amplitude ratio of the second channel signal with respect to the added signal. a decoding section adapted to decode a first balance parameter from stereo encoded data; a calculating section adapted to calculate a second balance parameter using a first channel signal and a second channel signal of a stereo acoustic signal obtained in a past; and a balance adjusting section adapted to perform balance adjustment processing of a monaural acoustic signal using the second balance parameter as a balance adjustment parameter when the first balance parameter cannot be used, wherein the calculating section is adapted to calculate the second balance parameter, using an amplitude ratio of the first channel signal with respect to a signal adding the first channel signal and the second channel signal and an amplitude ratio of the second channel signal with respect to the added signal.
A key obtaining method, wherein the method comprises: sending (423, 451), by an authentication server function, AUSF, an authentication service request message to a unified data management, UDM, function; receiving (424, 452), by the AUSF, an authentication service response message sent by the UDM function, wherein the authentication service response message comprises first permission information, and the first permission information is used to indicate to generate a key K AKMA for user equipment, UE; generating (425, 453), by the AUSF in response to the authentication service response message, the K AKMA and a key identifier, KID, corresponding to the K AKMA, based on the first permission information; and sending, by the AUSF, the generated K AKMA and the generated KID to an authentication and key management for applications anchor function, AAnF. sending (423, 451), by an authentication server function, AUSF, an authentication service request message to a unified data management, UDM, function; receiving (424, 452), by the AUSF, an authentication service response message sent by the UDM function, wherein the authentication service response message comprises first permission information, and the first permission information is used to indicate to generate a key K AKMA for user equipment, UE; generating (425, 453), by the AUSF in response to the authentication service response message, the K AKMA and a key identifier, KID, corresponding to the K AKMA, based on the first permission information; and sending, by the AUSF, the generated K AKMA and the generated KID to an authentication and key management for applications anchor function, AAnF.
Tool, in particular hand-held tool, having a working piston, which is intended to move along a working axis, a drive, which is intended to drive the working piston along the working axis, wherein the drive has an electrical capacitor, a squirrel-cage rotor, which is arranged on the working piston, and an excitation coil, which during rapid discharge of the capacitor is flowed through by current and generates a magnetic field that accelerates the working piston, wherein the tool has a frame, which is made of a soft-magnetic and electrically conducting material, surrounds the excitation coil and extends in a circumferential direction with respect to the working axis, wherein the frame has one or more at least partial interruptions, which extend over a significant part of a radial extent of the frame with respect to the working axis, wherein the frame is formed of multiple layers of the soft-magnetic and electrically conducting material, which are separated from one another by the one or more interruptions, characterized in that the layers of the soft-magnetic and electrically conducting material are stacked one on top of the other in a stacking direction, which is inclined in relation to the working axis.
A method of conforming an overwrap to a pessary device, the method comprising: providing a pessary device comprising a longitudinal axis, a transverse axis, and an outer surface; providing an overwrap; placing the pessary device in contact with an overwrap, wherein the overwrap covers at least a portion of the pessary device outer surface area; and manipulating the overwrap to conform to the pessary device using a profile seal, characterized in that the overwrap is elastic. providing a pessary device comprising a longitudinal axis, a transverse axis, and an outer surface; providing an overwrap; placing the pessary device in contact with an overwrap, wherein the overwrap covers at least a portion of the pessary device outer surface area; and manipulating the overwrap to conform to the pessary device using a profile seal, characterized in that the overwrap is elastic.
Arrangement for the testing of a current and/or voltage transformer by a person, the arrangement comprising a transformer testing device and a current and/or voltage transformer, the transformer testing device being connected to the current and/or voltage transformer and the transformer testing device comprising an emergency stop switch, characterized in that the arrangement further comprises a protective device for detecting an electrical body current, with the person wearing the protective device for detecting an electrical body current and the protective device comprising an item of clothing and an evaluation unit, whereas the person wears the item of clothing and the item of clothing is equipped with at least one sensor for detecting the body current, and the evaluation unit evaluates a signal detected with the at least one sensor and, if an impermissible body current is detected, outputs an emergency signal, in that the emergency stop switch activates a disconnection unit of the transformer testing device when actuated, which unit shuts down and/or short-circuits at least one output of the transformer testing device, and an emergency signal input is also provided on the transformer testing device, which input activates the disconnection unit when an external emergency signal is received at the emergency signal input, and in that the evaluation unit transmits the emergency signal to the emergency signal input of the transformer testing device if an impermissible body current is detected.
A method for creating longitudinally distributed speed data (16,17,18) comprising the steps of: collecting probe data from a plurality of probes traversing a road segment in the form of vehicular traffic flow, each probe developing a respective probe trace comprising a sequence of discrete time-stamped probe positions; identifying a time span for the road segment with free flow traffic conditions; selecting probe data for the road segment collected during the identified time span; statistically deriving longitudinally distributed average speeds (16,17,18) at positions along the road segment from the selected probe data, the longitudinal distributed average speeds being representative of variations in a free flow speed of vehicular traffic along a length of the road segment; associating the longitudinally distributed average speeds (16,17,18) with the road segment; and storing the longitudinally distributed average speeds (16,17,18) in a digital medium, wherein the stored longitudinally distributed average speeds (16,17,18) comprises lane dependent longitudinally distributed speeds (16,17,18) for each lane in a multi-lane road segment. collecting probe data from a plurality of probes traversing a road segment in the form of vehicular traffic flow, each probe developing a respective probe trace comprising a sequence of discrete time-stamped probe positions; identifying a time span for the road segment with free flow traffic conditions; selecting probe data for the road segment collected during the identified time span; statistically deriving longitudinally distributed average speeds (16,17,18) at positions along the road segment from the selected probe data, the longitudinal distributed average speeds being representative of variations in a free flow speed of vehicular traffic along a length of the road segment; associating the longitudinally distributed average speeds (16,17,18) with the road segment; and storing the longitudinally distributed average speeds (16,17,18) in a digital medium, wherein the stored longitudinally distributed average speeds (16,17,18) comprises lane dependent longitudinally distributed speeds (16,17,18) for each lane in a multi-lane road segment.
A cutting device for a lawnmower comprising: - a cutting tool having horizontal rotation axis, - a guard adapted to delimit an inner volume wherein there is accommodated the cutting tool, and - a system for collecting the cut grass, wherein said collection system comprises: - a casing provided with at least one inlet opening (104, 125) and with one outlet opening for the cut grass, and - at least one conveyor member placed inside the casing and adapted to convey the cut grass from the inlet opening (104, 125) towards the outlet opening, wherein the guard of the cutting tool comprises at least one wall that is movable between a first operating position wherein the inner volume of the guard communicates with the inlet opening (104, 125) of the casing of the collection system, and a second operating position wherein the inner volume of the guard is separated from the inlet opening (104, 125) of the casing of the collection system, characterised in that the conveyor member of the collection system is a screw element having rotation axis parallel to the rotation axis of the cutting tool. - a cutting tool having horizontal rotation axis, - a guard adapted to delimit an inner volume wherein there is accommodated the cutting tool, and - a system for collecting the cut grass, - a casing provided with at least one inlet opening (104, 125) and with one outlet opening for the cut grass, and - at least one conveyor member placed inside the casing and adapted to convey the cut grass from the inlet opening (104, 125) towards the outlet opening, wherein the guard of the cutting tool comprises at least one wall that is movable between a first operating position wherein the inner volume of the guard communicates with the inlet opening (104, 125) of the casing of the collection system, and a second operating position wherein the inner volume of the guard is separated from the inlet opening (104, 125) of the casing of the collection system,
A thermal transfer sheet, wherein a back face layer is provided on one surface of a substrate and a transfer layer is provided on the other surface of the substrate, the transfer layer has a single-layer structure or a layered structure comprising a protective layer, the back face layer contains spherical particles and a siloxane crosslinked resin, and when the surface of the back face layer is observed using a scanning electron microscope at a magnification of 5000 times, a proportion of a total of the projected areas of the spherical particles is 1.8% or more and 20% or less based on the area of the entire observed surface, wherein the spherical particles are spherical silicone resin, and the siloxane crosslinked resin is obtained by crosslinking an alkoxysilyl group-containing resin. a back face layer is provided on one surface of a substrate and a transfer layer is provided on the other surface of the substrate, the transfer layer has a single-layer structure or a layered structure comprising a protective layer, the back face layer contains spherical particles and a siloxane crosslinked resin, and when the surface of the back face layer is observed using a scanning electron microscope at a magnification of 5000 times, a proportion of a total of the projected areas of the spherical particles is 1.8% or more and 20% or less based on the area of the entire observed surface, wherein the spherical particles are spherical silicone resin, and the siloxane crosslinked resin is obtained by crosslinking an alkoxysilyl group-containing resin.
A method for modifying the surface energy of at least one surface of a solid comprising a step consisting of grafting, on said surface, a polymeric organic film consisting of graft polymers, each polymer having a first unit bound directly to said surface derived from a cleavable aryl salt and at least one other unit of the polymer chain derived from a vinyl-terminated siloxane, said method consisting of contacting said surface with a solution comprising at least one cleavable aryl salt and at least one vinyl-terminated siloxane and of: - either submitting said solution to nonelectrochemical conditions permitting the formation of radical entities from said cleavable aryl salt, said grafting being a chemical grafting; - or polarizing said surface at an electric potential that is more cathodic than the reduction potential of the cleavable aryl salt, said grafting being an electrografting and said surface being conducting or semiconducting. - either submitting said solution to nonelectrochemical conditions permitting the formation of radical entities from said cleavable aryl salt, said grafting being a chemical grafting; - or polarizing said surface at an electric potential that is more cathodic than the reduction potential of the cleavable aryl salt, said grafting being an electrografting and said surface being conducting or semiconducting.
An arrangement of a testing device and a connection device, with a testing device; and a connection device for the connecting of electrical conductors, wherein the testing device can be plugged into the connection device and, in so doing, interrupts an electrical connection between two contact tabs (15a, 16a, 17a, 18a) that electrically contact with each other, characterized in that the testing device is plugged into the connection device either from an upper side of the connection device or from a lower side of the connection device, wherein the connection device has two contact tabs (15a, 16a, 17a, 18a) that electrically contact with each other both on its upper side and on its lower side and that an electrically isolating plug element is provided, which, with the testing device being plugged into the connection device from the upper side of it, electrically interrupts the contact tabs (15a, 16a, 17a, 18a) that are electrically contacting with each other and that are arranged on the lower side of the connection device, and that, with the testing device being plugged into the connection device from the lower side of it, the plug element electrically interrupts the contact tabs (15a, 16a, 17a, 18a) that are electrically contacting with each other and that are arranged on the upper side of the connection device.