mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a digital assistant device of managing a voice call established between a calling party and a recipient , the voice call having been queued by an answering machine to await a response by a human representative of the recipient of the voice call, being characterized in comprising: detecting (S101), by utilizing audio recognition, from a voice indication provided by the calling party of the voice call, information indicating a point in time when the human representative of the recipient is expected to be able to provide a response to the queued voice call; and setting (S102) the calling party in contact with the recipient at the determined point in time. detecting (S101), by utilizing audio recognition, from a voice indication provided by the calling party of the voice call, information indicating a point in time when the human representative of the recipient is expected to be able to provide a response to the queued voice call; and setting (S102) the calling party in contact with the recipient at the determined point in time.
A method for forming a device for the detection and/or sequencing of targeted long chain molecules comprising: providing a nanochannel having a common porous roof comprising a plurality of tortuous nanopores; providing an entrance port to the nanochannel for the introduction of long chain molecules in suitable aqueous fluids; sealing some of the tortuous nanopores in the porous roof via conformal atomic layer deposition (ALD) and/or chemical vapor deposition (CVD); wherein a diameter of at least one of the tortuous nanopores that remain is reduced such that only one long chain molecule can be translocated through the pore one at a time, and wherein the density of the nanopores remaining is reduced so that a tortuous nanopore can be optically resolved via Raman scattering; depositing a field enhancement structure on the roof of the nanochannel using a directional process, wherein the process is a combination of anisotropic and isotropic deposition processes, and wherein the field enhancement structure is a plasmonic or polaritonic structure and wherein the field enhancement structure is self-aligned to the nanopores remaining in the roof; and providing electrodes for applying a voltage to the nanochannel to control translocation of the single long chain molecule through the tortuous nanopores. providing a nanochannel having a common porous roof comprising a plurality of tortuous nanopores; providing an entrance port to the nanochannel for the introduction of long chain molecules in suitable aqueous fluids; sealing some of the tortuous nanopores in the porous roof via conformal atomic layer deposition (ALD) and/or chemical vapor deposition (CVD); wherein a diameter of at least one of the tortuous nanopores that remain is reduced such that only one long chain molecule can be translocated through the pore one at a time, and wherein the density of the nanopores remaining is reduced so that a tortuous nanopore can be optically resolved via Raman scattering; depositing a field enhancement structure on the roof of the nanochannel using a directional process, wherein the process is a combination of anisotropic and isotropic deposition processes, and wherein the field enhancement structure is a plasmonic or polaritonic structure and wherein the field enhancement structure is self-aligned to the nanopores remaining in the roof; and providing electrodes for applying a voltage to the nanochannel to control translocation of the single long chain molecule through the tortuous nanopores.
A method executed in a system, wherein the system comprises a terminal and an identifier obtaining device, for obtaining an identifier of a terminal, wherein the method comprises: obtaining (Step 102), by the terminal, an identifier of a processor of the terminal when the terminal is connected to the identifier obtaining device, or when the terminal receives an obtaining request sent by the identifier obtaining device, wherein the obtaining request is used to obtain the identifier of the processor; and sending (Step 103), by the terminal, the identifier of the processor to the identifier obtaining device; receiving, by the identifier obtaining device, the identifier of the processor; obtaining (Step 104), by the identifier obtaining device, the identifier of the terminal according to the identifier of the processor and a correspondence between the identifier of the processor and the identifier of the terminal. obtaining (Step 102), by the terminal, an identifier of a processor of the terminal when the terminal is connected to the identifier obtaining device, or when the terminal receives an obtaining request sent by the identifier obtaining device, wherein the obtaining request is used to obtain the identifier of the processor; and sending (Step 103), by the terminal, the identifier of the processor to the identifier obtaining device; receiving, by the identifier obtaining device, the identifier of the processor; obtaining (Step 104), by the identifier obtaining device, the identifier of the terminal according to the identifier of the processor and a correspondence between the identifier of the processor and the identifier of the terminal.
A device for in-flight conditioning equipments of cryogenic circuits conveying cryogenic fluids from one or more tanks to the engine(s) of an aircraft characterised in that it includes: - means for collecting air external to the aircraft, said air collecting means being able to be located on a compressor stage of a turbine engine with which the aircraft is equipped, - means for extracting nitrogen from this air by means of an OBIGGS type nitrogen separator , - means for dispensing this nitrogen about said equipments, said nitrogen dispensing means comprising a piping circuit provided with calibrated orifices , so as to flush said equipments with nitrogen, said orifices being calibrated to keep the equipments supercharge conditioned with respect to their environment, - means for encapsulating said equipments to receive conditioning nitrogen, and - drying-up means in the circuit downstream of the separator. - means for collecting air external to the aircraft, said air collecting means being able to be located on a compressor stage of a turbine engine with which the aircraft is equipped, - means for extracting nitrogen from this air by means of an OBIGGS type nitrogen separator , - means for dispensing this nitrogen about said equipments, said nitrogen dispensing means comprising a piping circuit provided with calibrated orifices , so as to flush said equipments with nitrogen, said orifices being calibrated to keep the equipments supercharge conditioned with respect to their environment, - means for encapsulating said equipments to receive conditioning nitrogen, and - drying-up means in the circuit downstream of the separator.
A method for performing sidelink communication by a first device , comprising: reserving periodic resources including a first sidelink, SL, resource based on a first priority value; generating a medium access control, MAC, protocol data unit, PDU, related to a second priority value; determining a pre-emption of the first SL resource for the MAC PDU to transmit, based on the second priority value; selecting a second SL resource different from the first SL resource based on the pre-emption of the first SL resource; and transmitting, to a second device through the second SL resource, the MAC PDU and sidelink control information, SCI, comprising the second priority value, wherein the determining of the pre-emption of the first SL resource comprises: identifying a candidate resource set for resource selection based on sensing; determining whether the first SL resource is excluded from the candidate resource set based on the second priority value; and determining a pre-emption of the first SL resource based on the first SL resource being excluded from the candidate resource set. reserving periodic resources including a first sidelink, SL, resource based on a first priority value; generating a medium access control, MAC, protocol data unit, PDU, related to a second priority value; determining a pre-emption of the first SL resource for the MAC PDU to transmit, based on the second priority value; selecting a second SL resource different from the first SL resource based on the pre-emption of the first SL resource; and transmitting, to a second device through the second SL resource, the MAC PDU and sidelink control information, SCI, comprising the second priority value, wherein the determining of the pre-emption of the first SL resource comprises: identifying a candidate resource set for resource selection based on sensing; determining whether the first SL resource is excluded from the candidate resource set based on the second priority value; and determining a pre-emption of the first SL resource based on the first SL resource being excluded from the candidate resource set. identifying a candidate resource set for resource selection based on sensing; determining whether the first SL resource is excluded from the candidate resource set based on the second priority value; and determining a pre-emption of the first SL resource based on the first SL resource being excluded from the candidate resource set.
A method for communication, the method comprising: in an optoelectronic transmitter integrated in a semiconductor die with first and second laser sources (201A, 201B, Laser 1, Laser 2, 401A, 401B) coupled to a top surface of the semiconductor die , said optoelectronic transmitter comprising an optical modulator (105A-105D, 200, 300, 400) with a first input waveguide coupled to the first laser source (201A, Laser 1, 401A) and a second input waveguide coupled to the second laser source (201B, Laser 2, 401B): configuring the first laser source (201A, Laser 1, 401A) to provide an optical signal to the first input of the optical modulator (105A-105D, 200, 300, 400); and if the first laser source (201A, Laser 1, 401A) does not provide an optical signal, configuring the second laser source (201B, Laser 2, 401B) to provide an optical signal to the second input of the optical modulator (105A-105D, 200, 300, 400). configuring the first laser source (201A, Laser 1, 401A) to provide an optical signal to the first input of the optical modulator (105A-105D, 200, 300, 400); and if the first laser source (201A, Laser 1, 401A) does not provide an optical signal, configuring the second laser source (201B, Laser 2, 401B) to provide an optical signal to the second input of the optical modulator (105A-105D, 200, 300, 400).
A nanocomposite material comprising layers of graphene and intermediate layers that separate and interconnect the layers of graphene , wherein - said graphene layers have a thickness of 1-10 times the size of a carbon atom, characterised in that - the intermediate layers are layers comprising the salt lithium bis(salicylato)borate [Li][BScB]. - said graphene layers have a thickness of 1-10 times the size of a carbon atom, characterised in that - the intermediate layers are layers comprising the salt lithium bis(salicylato)borate [Li][BScB].
A mechanical brake for arresting movement of an output shaft of a motor, the mechanical brake comprising: a pivotally mounted plate having a space for receiving the output shaft of the motor; and an electrically operated holding device contacting a free end of the plate and arranged to hold the plate in an open position to permit movement of the output shaft and to permit the plate to pivot to a jamming position; wherein the electrically operated holding device comprises a rod coupled to the free end of the plate so that axial movement of the rod moves the free end of the plate ; and wherein the rod comprises an extendable feature , the extendable feature being resiliently biased to a retracted position, and wherein the rod has an extension length of between 0.1 millimetres and 10 millimetres. a pivotally mounted plate having a space for receiving the output shaft of the motor; and an electrically operated holding device contacting a free end of the plate and arranged to hold the plate in an open position to permit movement of the output shaft and to permit the plate to pivot to a jamming position; wherein the electrically operated holding device comprises a rod coupled to the free end of the plate so that axial movement of the rod moves the free end of the plate ; and wherein the rod comprises an extendable feature , the extendable feature being resiliently biased to a retracted position, and wherein the rod has an extension length of between 0.1 millimetres and 10 millimetres.
An optical element, comprising: an optical fiber; and a plurality of fluorophores in optical communication with said optical fiber; wherein said fluorophores have a quantum yield greater than 50%, wherein said fluorophores emit a spectrum of light having a maximum intensity at wavelengths within the range of 400 nm to 2000 nm; wherein said plurality of flourophores are quantum dots. a plurality of fluorophores in optical communication with said optical fiber; wherein said fluorophores have a quantum yield greater than 50%, wherein said fluorophores emit a spectrum of light having a maximum intensity at wavelengths within the range of 400 nm to 2000 nm; wherein said plurality of flourophores are quantum dots.
A flexible, conductive film comprising a transparent substrate and a pattern constituted by a fine metal wire and disposed on one side or both sides of the transparent substrate, wherein: the fine metal wire comprises conductive metal atoms M and silicon atoms Si; the conductive metal atoms M comprise at least one or more metal elements selected from the group consisting of gold, silver, copper and aluminum; characterized in that when the maximum thickness of the fine metal wire is defined as T in STEM-EDX analysis on a cross-section of the fine metal wire perpendicular to a direction of drawing of the fine metal wire, atom% ratio Si/M 0.10-0.90 of the silicon atoms Si to the conductive metal atoms M in a thickness region from 0.10T to 0.90T from a fine metal wire interface on the transparent substrate side is 0.001 or more and 0.070 or less. the fine metal wire comprises conductive metal atoms M and silicon atoms Si; the conductive metal atoms M comprise at least one or more metal elements selected from the group consisting of gold, silver, copper and aluminum; characterized in that when the maximum thickness of the fine metal wire is defined as T in STEM-EDX analysis on a cross-section of the fine metal wire perpendicular to a direction of drawing of the fine metal wire, atom% ratio Si/M 0.10-0.90 of the silicon atoms Si to the conductive metal atoms M in a thickness region from 0.10T to 0.90T from a fine metal wire interface on the transparent substrate side is 0.001 or more and 0.070 or less.
An endoscope comprising: a treatment tool insertion channel that includes an inlet and an outlet portion , the outlet portion of the treatment tool insertion channel is maintained in a shape of a straight pipe regardless of bending of a bending part of the endoscope ; a suction tube that joins the treatment tool insertion channel ; and an endoscope aid configured to be attachably and detachably attached to the treatment tool insertion channel , the endoscope aid comprising: a flexible tubular member having a length equal to or larger than a length ranging from at least an inlet-side end part of the outlet portion of the treatment tool insertion channel , to the inlet of the treatment tool insertion channel , wherein the flexible tubular member includes a distal end part that has an outer periphery in sliding contact with an inner peripheral surface of the outlet portion of the treatment tool insertion channel and is disposed at the outlet portion , and a communication part that is configured to allow an outlet of the treatment tool insertion channel and the suction tube to communicate with each other. a treatment tool insertion channel that includes an inlet and an outlet portion , the outlet portion of the treatment tool insertion channel is maintained in a shape of a straight pipe regardless of bending of a bending part of the endoscope ; a suction tube that joins the treatment tool insertion channel ; and an endoscope aid configured to be attachably and detachably attached to the treatment tool insertion channel , the endoscope aid comprising: a flexible tubular member having a length equal to or larger than a length ranging from at least an inlet-side end part of the outlet portion of the treatment tool insertion channel , to the inlet of the treatment tool insertion channel , wherein the flexible tubular member includes a distal end part that has an outer periphery in sliding contact with an inner peripheral surface of the outlet portion of the treatment tool insertion channel and is disposed at the outlet portion , and a communication part that is configured to allow an outlet of the treatment tool insertion channel and the suction tube to communicate with each other. a flexible tubular member having a length equal to or larger than a length ranging from at least an inlet-side end part of the outlet portion of the treatment tool insertion channel , to the inlet of the treatment tool insertion channel , wherein the flexible tubular member includes a distal end part that has an outer periphery in sliding contact with an inner peripheral surface of the outlet portion of the treatment tool insertion channel and is disposed at the outlet portion , and a communication part that is configured to allow an outlet of the treatment tool insertion channel and the suction tube to communicate with each other.
A method for supplying cutting oil which adopts following processes in a machine tool of cutting work pieces: 1: retaining cutting oil by a minimum reference quantity Q min in a cutting-oil tank , 2: measuring with a flow measuring meter , for each of the work pieces, a suitable supply quantity per unit time q of cutting oil which flows out from the cutting-oil tank and is also supplied to an area where each of the work pieces are cut, 3: setting a supply quantity per unit time q' of cutting oil supplied so as to satisfy q'>q, and supplying the cutting oil to the cutting-oil tank by the above supply quantity per unit time q', 4: stopping supply to the cutting-oil tank at a stage when the tank is filled with cutting oil by the supply quantity per unit time q', and additional supplying cutting oil to the cutting-oil tank by the supply quantity per unit time q' when a retained quantity of cutting oil in the cutting-oil tank reaches a minimum reference quantity Q min due to said stopping, and continuing the processes of said stopping and said supplying. 1: retaining cutting oil by a minimum reference quantity Q min in a cutting-oil tank , 2: measuring with a flow measuring meter , for each of the work pieces, a suitable supply quantity per unit time q of cutting oil which flows out from the cutting-oil tank and is also supplied to an area where each of the work pieces are cut, 3: setting a supply quantity per unit time q' of cutting oil supplied so as to satisfy q'>q, and supplying the cutting oil to the cutting-oil tank by the above supply quantity per unit time q', 4: stopping supply to the cutting-oil tank at a stage when the tank is filled with cutting oil by the supply quantity per unit time q', and additional supplying cutting oil to the cutting-oil tank by the supply quantity per unit time q' when a retained quantity of cutting oil in the cutting-oil tank reaches a minimum reference quantity Q min due to said stopping, and continuing the processes of said stopping and said supplying.
Gas analysis device , comprising a conduction block which has a plurality of channels , wherein at least two channels are connected together via an exchangeable pneumatic module , wherein the pneumatic module is designed for adjusting a fluid flow in a gas analysis device and comprises a support sleeve and a flow module which is contained in the support sleeve , wherein the flow module is connected at a first end thereof to the support sleeve in order to achieve greater measuring accuracy of the gas analysis device , characterised in that the support sleeve is designed in the region of the first end of the flow module for assembly on the gas analysis device and is designed to be closed in the region of a second end of the flow module .
A method of monitoring a polyolefin reactor system, comprising the acts of: exposing a mixture within a polyolefin reactor system to radiation emission from a spectroscopic probe, wherein the polyolefin reactor system comprises a loop slurry reactor and the mixture comprises a discharge stream from the loop slurry reactor of the polyolefin reactor system; acquiring a spectroscopic signal from the mixture on-line in substantially real-time in response to the radiation emission; and analyzing the spectroscopic signal to determine a property of the mixture. exposing a mixture within a polyolefin reactor system to radiation emission from a spectroscopic probe, wherein the polyolefin reactor system comprises a loop slurry reactor and the mixture comprises a discharge stream from the loop slurry reactor of the polyolefin reactor system; acquiring a spectroscopic signal from the mixture on-line in substantially real-time in response to the radiation emission; and analyzing the spectroscopic signal to determine a property of the mixture.
A housing assembly for an epicyclical gear system of a gas turbine engine , the housing assembly comprising: a housing defining a gear shaft pocket having a cylindrical wall ; a planet gear , the planet gear including: a cylindrical gear shaft having one end portion disposed within said gear shaft pocket coaxially with said cylindrical wall; a sun gear engaging gear carried by the cylindrical gear shaft ; and a ring gear engaging gear carried by the cylindrical gear shaft ; a sun gear engaged with the planet gear ; a ring gear engaged with said planet gear ; and a bearing assembly comprising: a bearing disposed over at least a portion of the end portion of said gear shaft; and an annular spring disposed over at least a portion of said bearing, wherein the cylindrical gear shaft , the sun gear , the planet gear and the ring gear form a compound star gear in an epicyclical gear system . a housing defining a gear shaft pocket having a cylindrical wall ; a planet gear , the planet gear including: a cylindrical gear shaft having one end portion disposed within said gear shaft pocket coaxially with said cylindrical wall; a sun gear engaging gear carried by the cylindrical gear shaft ; and a ring gear engaging gear carried by the cylindrical gear shaft ; a cylindrical gear shaft having one end portion disposed within said gear shaft pocket coaxially with said cylindrical wall; a sun gear engaging gear carried by the cylindrical gear shaft ; and a ring gear engaging gear carried by the cylindrical gear shaft ; a sun gear engaged with the planet gear ; a ring gear engaged with said planet gear ; and a bearing assembly comprising: a bearing disposed over at least a portion of the end portion of said gear shaft; and an annular spring disposed over at least a portion of said bearing, a bearing disposed over at least a portion of the end portion of said gear shaft; and an annular spring disposed over at least a portion of said bearing,