mhurhangee/patent-ind-claim-en huggingface dataset:
A method of operating an elevator system during a fire evacuation, the method comprising: receiving a fire detection from a fire alarm system indicating a fire ; detecting a fire intensity using a fire quantity measurement system ; and determining a discharge landing for the elevator system in response to at least the fire intensity . receiving a fire detection from a fire alarm system indicating a fire ; detecting a fire intensity using a fire quantity measurement system ; and determining a discharge landing for the elevator system in response to at least the fire intensity .
A method for measuring a plurality of wideband loop sensitivity S L ( f ) for each and all acoustic transducers in a transducer array in an acoustic probe, the method comprising: generating, by a pulse generator electrically coupled to a 50 S2 load, a pulse to create a wideband signal as a reference signal; obtaining a wideband reference signal V r ( t ); obtaining a function V̂ r ( f ) that is a Fourier Transform of the wideband reference signal V r ( t ); performing the following steps sequentially or randomly over each and all acoustic transducers in the acoustic transducer array: coupling the pulse generator and a signal processing unit to an acoustic transducer; generating, by the pulse generator electrically coupled to the acoustic probe, a wideband acoustic wave from the acoustic transducer; obtaining a wideband echo signal V e ( t ) after the wideband acoustic wave being reflected from an acoustic mirror; obtaining a function V̂ e ( f ) that is a Fourier Transform of the wideband echo signal V e ( t ); defining a normalized loop frequency response X̂ ( f ) for the acoustic transducer: X ^ f = def V ^ e f V ^ r f , and defining a wideband loop sensitivity S L ( f ) which is a function of frequency for the acoustic transducer: S L f = def 10 log X ^ f 2 . generating, by a pulse generator electrically coupled to a 50 S2 load, a pulse to create a wideband signal as a reference signal; obtaining a wideband reference signal V r ( t ); obtaining a function V̂ r ( f ) that is a Fourier Transform of the wideband reference signal V r ( t ); performing the following steps sequentially or randomly over each and all acoustic transducers in the acoustic transducer array: coupling the pulse generator and a signal processing unit to an acoustic transducer; generating, by the pulse generator electrically coupled to the acoustic probe, a wideband acoustic wave from the acoustic transducer; obtaining a wideband echo signal V e ( t ) after the wideband acoustic wave being reflected from an acoustic mirror; obtaining a function V̂ e ( f ) that is a Fourier Transform of the wideband echo signal V e ( t ); defining a normalized loop frequency response X̂ ( f ) for the acoustic transducer: X ^ f = def V ^ e f V ^ r f , and defining a wideband loop sensitivity S L ( f ) which is a function of frequency for the acoustic transducer: S L f = def 10 log X ^ f 2 . coupling the pulse generator and a signal processing unit to an acoustic transducer; generating, by the pulse generator electrically coupled to the acoustic probe, a wideband acoustic wave from the acoustic transducer; obtaining a wideband echo signal V e ( t ) after the wideband acoustic wave being reflected from an acoustic mirror; obtaining a function V̂ e ( f ) that is a Fourier Transform of the wideband echo signal V e ( t ); defining a normalized loop frequency response X̂ ( f ) for the acoustic transducer: X ^ f = def V ^ e f V ^ r f , and defining a wideband loop sensitivity S L ( f ) which is a function of frequency for the acoustic transducer: S L f = def 10 log X ^ f 2 .
A wireless device , comprising: processing circuitry configured to: - receive a code division multiplexing, CDM, configuration for a CDM-8 design for at least twenty four Channel State Information-Reference Signal, CSI-RS, antenna ports, the CDM configuration corresponding to an aggregated first set and second set of reference signal resource elements in a subframe, wherein the CDM configuration is an aggregation of two CDM-4 orthogonal cover codes; and - perform channel measurements based on the CDM configuration; wherein the first set and second set of reference signal resource elements satisfy a temporal criterion such that any two resource elements in the first set and second set of reference signal resource elements have up to a maximum time separation of six Orthogonal Frequency Division Multiplexing, OFDM, symbols; and wherein the first set and second set of reference signal resource elements satisfy a frequency criterion such that any two resource elements in the first set and second set of reference signal resource elements have up to a maximum frequency separation of six subcarriers. processing circuitry configured to: - receive a code division multiplexing, CDM, configuration for a CDM-8 design for at least twenty four Channel State Information-Reference Signal, CSI-RS, antenna ports, the CDM configuration corresponding to an aggregated first set and second set of reference signal resource elements in a subframe, wherein the CDM configuration is an aggregation of two CDM-4 orthogonal cover codes; and - perform channel measurements based on the CDM configuration; - receive a code division multiplexing, CDM, configuration for a CDM-8 design for at least twenty four Channel State Information-Reference Signal, CSI-RS, antenna ports, the CDM configuration corresponding to an aggregated first set and second set of reference signal resource elements in a subframe, wherein the CDM configuration is an aggregation of two CDM-4 orthogonal cover codes; and - perform channel measurements based on the CDM configuration; wherein the first set and second set of reference signal resource elements satisfy a temporal criterion such that any two resource elements in the first set and second set of reference signal resource elements have up to a maximum time separation of six Orthogonal Frequency Division Multiplexing, OFDM, symbols; and wherein the first set and second set of reference signal resource elements satisfy a frequency criterion such that any two resource elements in the first set and second set of reference signal resource elements have up to a maximum frequency separation of six subcarriers.
A method performed by a transmitting device, the method comprising: transforming a first channel matrix H into a transformed second channel matrix P -T Source H , wherein the first channel matrix H is a channel from a transmitter array of antennas of the transmitting device to at least one receiver antenna of a receiving device, and wherein P -T Source is a transformation matrix comprising a function of a transmitter source impedance and an impedance matrix of the transmitter array; determining a channel capacity maximizing precoding matrix W that maximizes capacity for the transformed second channel matrix P -T Source H subject to a power constraint of the precoding matrix W ; converting the channel capacity maximizing precoding matrix W for the transformed second channel matrix into an optimal precoding matrix V for the first channel matrix; receiving a signal for transmission; applying the optimal precoding matrix V to the signal to generate a precoded signal for transmission over a physical channel; and transmitting the precoded signal. transforming a first channel matrix H into a transformed second channel matrix P -T Source H , wherein the first channel matrix H is a channel from a transmitter array of antennas of the transmitting device to at least one receiver antenna of a receiving device, and wherein P -T Source is a transformation matrix comprising a function of a transmitter source impedance and an impedance matrix of the transmitter array; determining a channel capacity maximizing precoding matrix W that maximizes capacity for the transformed second channel matrix P -T Source H subject to a power constraint of the precoding matrix W ; converting the channel capacity maximizing precoding matrix W for the transformed second channel matrix into an optimal precoding matrix V for the first channel matrix; receiving a signal for transmission; applying the optimal precoding matrix V to the signal to generate a precoded signal for transmission over a physical channel; and transmitting the precoded signal.
A bending tool with a bending geometry measuring device, which bending tool is part of a bending tool arrangement for use in a bending machine, wherein the bending tool has a tool body with a longitudinal extension, wherein a working edge is formed parallel to the longitudinal extension, and wherein the working edge and a working direction normal to the working edge span a bending plane, characterized in that in an end region of the tool body - a light pattern emitting device with a beam splitter , which is arranged in an outlet arranged in the region of the working edge , for emitting a light pattern on both sides of the working edge onto a surface of a sheet metal part to be formed - and at least one image capturing device , for capturing a projection of the light pattern on the surface , is provided. - a light pattern emitting device with a beam splitter , which is arranged in an outlet arranged in the region of the working edge , for emitting a light pattern on both sides of the working edge onto a surface of a sheet metal part to be formed - and at least one image capturing device , for capturing a projection of the light pattern on the surface , is provided.
An engine bearing shell having a concave bearing surface , opposed axial end face and circumferential joint faces , and an axial width between the axial end faces, and an oil distribution groove circumferential extending along the bearing surface towards the axial end faces and having a groove width, wherein the groove width is 4 to 6% of the axial width of the bearing shell, characterised in, - that the bearing shell has a substrate comprising a strong steel backing and a bearing lining layer on the concave inner surface of the backing - that an "overlay" layer is provided on the substrate - that the bearing shell comprises part of a crankshaft-connecting rod bearing assembly. - that the bearing shell has a substrate comprising a strong steel backing and a bearing lining layer on the concave inner surface of the backing - that an "overlay" layer is provided on the substrate - that the bearing shell comprises part of a crankshaft-connecting rod bearing assembly.
An expandable structural module for a toroidal space station structure, the expandable structural module comprising: a first bulkhead and a second bulkhead forming first and second opposite ends of the expandable structural module , the first bulkhead being arranged to be attached to a corresponding bulkhead of a further adjacent expandable structural module; a plurality of adjustable structural members connecting the first bulkhead and the second bulkhead ; wherein the expandable structural module is transformable between: a collapsed configuration in which the first bulkhead and second bulkhead are held a first distance apart by the structural members ; and an expanded configuration in which the first bulkhead and second bulkhead are held a second distance apart by the structural members , the second distance being larger than the first distance, characterised in that the first bulkhead comprises a spacing mechanism for attaching the first bulkhead to the corresponding bulkhead of the adjacent and adjoining expandable structural module and wherein the spacing mechanism is arranged to transform between a shortened configuration in which the first bulkhead and the corresponding bulkhead are held parallel to each other, and a spaced configuration in which the first bulkhead and the corresponding bulkhead are held at a non-zero angle with respect to each other. a first bulkhead and a second bulkhead forming first and second opposite ends of the expandable structural module , the first bulkhead being arranged to be attached to a corresponding bulkhead of a further adjacent expandable structural module; a plurality of adjustable structural members connecting the first bulkhead and the second bulkhead ; a collapsed configuration in which the first bulkhead and second bulkhead are held a first distance apart by the structural members ; and an expanded configuration in which the first bulkhead and second bulkhead are held a second distance apart by the structural members , the second distance being larger than the first distance, characterised in that the first bulkhead comprises a spacing mechanism for attaching the first bulkhead to the corresponding bulkhead of the adjacent and adjoining expandable structural module and wherein the spacing mechanism is arranged to transform between a shortened configuration in which the first bulkhead and the corresponding bulkhead are held parallel to each other, and a spaced configuration in which the first bulkhead and the corresponding bulkhead are held at a non-zero angle with respect to each other.
A computer implemented method for broadcasting an identifier, the method comprising: obtaining a first value as a current dynamic identifier corresponding to a computer user; broadcasting the current dynamic identifier as an identity of the computer user; continually monitoring for a triggering event, wherein the triggering event comprises a change in the geo-location of the computer user; and repeatedly: dynamically obtaining a subsequent value for the current dynamic identifier corresponding to the computer user according to a current context; and broadcasting the current dynamic identifier as the identity of the computer user, wherein the first value and each subsequent value are distinct values, wherein each repetition of the steps of obtaining a subsequent value for the current dynamic identifier and broadcasting the current dynamic identifier is conditioned upon the detection of a triggering event by the continuous monitoring , wherein the change in the geo-location of the computer user comprises a change in the geo-location above a predetermined threshold amount. obtaining a first value as a current dynamic identifier corresponding to a computer user; broadcasting the current dynamic identifier as an identity of the computer user; continually monitoring for a triggering event, wherein the triggering event comprises a change in the geo-location of the computer user; and repeatedly: dynamically obtaining a subsequent value for the current dynamic identifier corresponding to the computer user according to a current context; and broadcasting the current dynamic identifier as the identity of the computer user, wherein the first value and each subsequent value are distinct values, dynamically obtaining a subsequent value for the current dynamic identifier corresponding to the computer user according to a current context; and broadcasting the current dynamic identifier as the identity of the computer user, wherein the first value and each subsequent value are distinct values, wherein each repetition of the steps of obtaining a subsequent value for the current dynamic identifier and broadcasting the current dynamic identifier is conditioned upon the detection of a triggering event by the continuous monitoring , wherein the change in the geo-location of the computer user comprises a change in the geo-location above a predetermined threshold amount.
A cell state management method, comprising: receiving , by a terminal device, first configuration information sent by a network device, the first configuration information being carried in Radio Resource Control, RRC, signaling and being used to indicate whether a state of a first cell is a first state or a second state, wherein the first state represents an active state with a dormancy behavior, and the second state represents an active state with a non-dormancy behavior, the first configuration information further comprising: uplink Bandwidth Part, BWP, configuration information and downlink BWP configuration information, wherein: the uplink BWP configuration information comprises at least one uplink BWP configuration, wherein the uplink BWP configuration information carries first indication information, the first indication information is used to indicate a BWP identification corresponding to an uplink initial activated BWP; the downlink BWP configuration information comprises at least one downlink BWP configuration, wherein the downlink BWP configuration information carries second indication information and fourth indication information, the second indication information is used to indicate the BWP identification corresponding to a downlink initial activated BWP and the fourth indication information is used to indicate a BWP identification corresponding to a downlink dormant BWP; and the initial activated BWP represents a BWP that is first activated. the uplink BWP configuration information comprises at least one uplink BWP configuration, wherein the uplink BWP configuration information carries first indication information, the first indication information is used to indicate a BWP identification corresponding to an uplink initial activated BWP; the downlink BWP configuration information comprises at least one downlink BWP configuration, wherein the downlink BWP configuration information carries second indication information and fourth indication information, the second indication information is used to indicate the BWP identification corresponding to a downlink initial activated BWP and the fourth indication information is used to indicate a BWP identification corresponding to a downlink dormant BWP; and the initial activated BWP represents a BWP that is first activated.
A contactless voltage sensing device configured to measure a voltage value of a conductor with respect to a reference surface , comprising: a first impedance element having a first impedance value, wherein the first impedance element is configured to be operatively coupled to the conductor ; an antenna operatively coupled to the first impedance element ; a parasitic impedance element having a parasitic impedance value, the parasitic impedance element being formed between the antenna and the reference surface ; a second impedance element having a second impedance value, wherein the second impedance element is formed in part by the antenna and the parasitic impedance element , and wherein the second impedance value is at least 50 times higher than the first impedance value; measurement and communication circuitry coupled to the first impedance element and configured to measure the voltage value of the conductor , and an electrically conductive element configured to provide shielding on one or more sides of the first impedance element , as well as on one or more sides or components of the contactless voltage sensing device , wherein the antenna comprises a first portion and a second portion , and wherein the reference surface and the second portion of the antenna are disposed on a same side of the electrically conductive element . a first impedance element having a first impedance value, wherein the first impedance element is configured to be operatively coupled to the conductor ; an antenna operatively coupled to the first impedance element ; a parasitic impedance element having a parasitic impedance value, the parasitic impedance element being formed between the antenna and the reference surface ; a second impedance element having a second impedance value, wherein the second impedance element is formed in part by the antenna and the parasitic impedance element , and wherein the second impedance value is at least 50 times higher than the first impedance value; measurement and communication circuitry coupled to the first impedance element and configured to measure the voltage value of the conductor , and an electrically conductive element configured to provide shielding on one or more sides of the first impedance element , as well as on one or more sides or components of the contactless voltage sensing device , wherein the antenna comprises a first portion and a second portion , and wherein the reference surface and the second portion of the antenna are disposed on a same side of the electrically conductive element .
Process for producing a concentrate of olive vegetation water and/or olive pomace comprising the steps of: (i) microfiltering a sample of the olive vegetation water and/or olive pomace so as to obtain a concentrate and a permeate of microfiltration wherein the membrane is 1) made in aluminum oxide and zirconia, and 2) characterized by a tubular shape; and (ii) concentrating by reverse osmosis the microfiltration permeate of step (i). (i) microfiltering a sample of the olive vegetation water and/or olive pomace so as to obtain a concentrate and a permeate of microfiltration wherein the membrane is 1) made in aluminum oxide and zirconia, and 2) characterized by a tubular shape; and (ii) concentrating by reverse osmosis the microfiltration permeate of step (i).
A manufacturing method of a glass panel unit, comprising:housing a preassembled component to be a glass panel unit, the preassembled component including a first glass panel , a second glass panel , a frame member , an inside space , and an exhaust port in a chamber having an air passage for evacuation and evacuating the chamber via the air passage to achieve a reduced pressure state; and heating the frame member of the preassembled component housed in the chamber by heating a pressing part with a heater outside the chamber to deform the frame member so as to close the exhaust port ,the first glass panel including at least a glass plate,the second glass panel including at least a glass plate and being disposed with a first surface of the second glass panel facing a first surface of the first glass panel with a prescribed space formed between the first surface of the second glass panel and the first surface of the first glass panel ,the frame member being disposed between the first glass panel and the second glass panel to hermetically bond the first glass panel to the second glass panel ,the inside space being enclosed by the first glass panel , the second glass panel , and the frame member ,the exhaust port being formed in the frame member and communicating with the inside space and an outside space,the chamber including a deformable bag and having a part serving as the pressing part which is thermally conductive and which is movable to press a second surface of the first glass panel and a second surface of the second glass panel in a direction in which the second surface of the first glass panel and the second surface of the second glass panel approach each other,the pressing part corresponding to a part of the chamber which is actually pressed onto the second surface of the first glass panel or the second surface of the second glass panel , wherein the pressing part includes a part of the bag as the chamber ,the air passage communicating with the outside space.