mhurhangee/ep-ind-claims huggingface dataset:
A laser radar system comprising: a semiconductor laser configured to output first light having a first frequency in a first period and second light having a second frequency in a second period; an optical splitter configured to split the first light and the second light outputted from the semiconductor laser into signal light and local oscillator light; an optical modulator configured to modulate the signal light into pulsed light; an optical antenna configured to radiate the pulsed light modulated by the optical modulator into space and to receive, as reception light, scattered light of the pulsed light from a target; an optical heterodyne receiver configured to perform, using the local oscillator light, heterodyne detection on the reception light; and a measurement unit configured to measure a propagation time of the scattered light from the target with its measurement start time that is a time when the measurement unit detects internally-scattered-light which is caused by the pulsed light's scattering by the optical antenna and to thereby measure a distance to the target by using the reception signal detected through the heterodyne detection performed by the optical heterodyne receiver, wherein the optical heterodyne receiver is configured to perform heterodyne detection on the internally-scattered-light of the first light and the reception light of the first light by using the local oscillator light of the second light, and wherein a light path length (Ls) of the internally-scattered-light is longer than a light path length (L L) of the local oscillator light. a semiconductor laser configured to output first light having a first frequency in a first period and second light having a second frequency in a second period; an optical splitter configured to split the first light and the second light outputted from the semiconductor laser into signal light and local oscillator light; an optical modulator configured to modulate the signal light into pulsed light; an optical antenna configured to radiate the pulsed light modulated by the optical modulator into space and to receive, as reception light, scattered light of the pulsed light from a target; an optical heterodyne receiver configured to perform, using the local oscillator light, heterodyne detection on the reception light; and a measurement unit configured to measure a propagation time of the scattered light from the target with its measurement start time that is a time when the measurement unit detects internally-scattered-light which is caused by the pulsed light's scattering by the optical antenna and to thereby measure a distance to the target by using the reception signal detected through the heterodyne detection performed by the optical heterodyne receiver, wherein the optical heterodyne receiver is configured to perform heterodyne detection on the internally-scattered-light of the first light and the reception light of the first light by using the local oscillator light of the second light, and wherein a light path length (Ls) of the internally-scattered-light is longer than a light path length (L L) of the local oscillator light.
Method for the thermal conditioning of a passenger compartment of a motor vehicle with the aid of a refrigerant fluid circulation circuit having at least one first heat exchanger that is able to form a condenser and/or an evaporator, a second heat exchanger that is able to form a condenser, a third heat exchanger that is able to form an evaporator, a compressor, a first expansion valve, a second expansion valve, and means (V1, V2, P1 to P8) that are able to direct the refrigerant fluid, said method consisting in causing the fluid to circulate in at least one of the following modes: - a first operating mode in which the refrigerant fluid circulates in a first loop passing at least successively through the compressor, the second heat exchanger, the first expansion valve and the first heat exchanger, which then forms an evaporator, - a second operating mode in which the refrigerant fluid circulates in a second loop passing at least successively through the compressor, the first heat exchanger, which then forms a condenser, the second expansion valve and the third heat exchanger, characterized in that the first expansion valve is a non-controlled expansion valve, the opening of which, through which the refrigerant fluid passes in the first operating mode, is variable depending on the inlet pressure (p inlet) of the first expansion valve or depending on the pressure difference (Δp) between the inlet and the outlet of refrigerant fluid in the first expansion valve, the cross section of the opening of the first expansion valve being constant below a particular threshold value (ps) of said inlet pressure (p inlet) and/or below a particular threshold value (Δps) of said pressure difference (Δp), said cross section increasing with said inlet pressure (p inlet) and/or with said pressure difference (Δp), above the corresponding threshold value (ps, Δps). - a first operating mode in which the refrigerant fluid circulates in a first loop passing at least successively through the compressor, the second heat exchanger, the first expansion valve and the first heat exchanger, which then forms an evaporator, - a second operating mode in which the refrigerant fluid circulates in a second loop passing at least successively through the compressor, the first heat exchanger, which then forms a condenser, the second expansion valve and the third heat exchanger,
A turbopomp for a spacecraft comprising: - a fixed assembly defining a stator of the turbopump, and - a movable assembly defining a rotor of the turbopump, comprising a driving shaft, - a magnetic torque generator configured to selectively apply a torque on the driving shaft, - a driving member adapted to drive the driving shaft the turbopump having two disjoint operating steady states (R2, R3), characterized in that it further comprises a control unit, configured to drive the magnetic torque generator in order to selectively apply an engine or resisting torque onto the driving shaft according to an applied command, so as to define an intermediate steady state between said two disjoint operating steady states (R2, R3). - a fixed assembly defining a stator of the turbopump, and - a movable assembly defining a rotor of the turbopump, comprising a driving shaft, - a magnetic torque generator configured to selectively apply a torque on the driving shaft, - a driving member adapted to drive the driving shaft
A method of processing data in a stateful protocol processing system, SPPS, (100, 200), that processes a multiplicity of flows of messages, each flow being associated with a uniquely corresponding flow identification, FID, that is conveyed by messages belonging to such flow, the method comprising: a) receiving a plurality of messages belonging to a particular flow of the multiplicity of flows; b) deriving events associated with the particular flow from the plurality of messages; c) marking an event of the derived events with an indication of its type, wherein all messages having state-relevant information for the particular flow have the same event type; d) specifically assigning a first protocol processing core, PPC (216, 218, 220, 222), of a plurality of PPCs to process the marked event in accordance with a stateful protocol, SP, of the particular flow, the step of specifically assigning further comprising: determining whether a PPC is presently processing another event belonging to the particular flow, and upon determining that no PPC is presently processing another event belonging to the particular flow, assigning the first PPC based on the first PPC being compatible with the event type of the marked event to process the marked event. a) receiving a plurality of messages belonging to a particular flow of the multiplicity of flows; b) deriving events associated with the particular flow from the plurality of messages; c) marking an event of the derived events with an indication of its type, wherein all messages having state-relevant information for the particular flow have the same event type; d) specifically assigning a first protocol processing core, PPC (216, 218, 220, 222), of a plurality of PPCs to process the marked event in accordance with a stateful protocol, SP, of the particular flow, the step of specifically assigning further comprising: determining whether a PPC is presently processing another event belonging to the particular flow, and upon determining that no PPC is presently processing another event belonging to the particular flow, assigning the first PPC based on the first PPC being compatible with the event type of the marked event to process the marked event. determining whether a PPC is presently processing another event belonging to the particular flow, and upon determining that no PPC is presently processing another event belonging to the particular flow, assigning the first PPC based on the first PPC being compatible with the event type of the marked event to process the marked event.
An apparatus for generating an output specifying locations for electrode arrays (50A, 50P, 50L, 50R) providing sets of electrode elements (52; E1-9; A1-9, P1-9, L1-9, R1-9) for applying alternating electric fields to a target volume in a subject's body, characterized by the apparatus comprising a processor programmed to: sequentially measure, during a first window of time and using a first set of at least four electrode elements (52; E1-9; A1-9, P1-9, L1-9, R1-9) positioned on or in the subject's body on a first side of the target volume and a second set of at least four electrode elements (52; E1-9; A1-9, P1-9, L1-9, R1-9) positioned on or in the subject's body on a second side of the target volume that is opposite to the first side, an impedance or conductance of each of respective paths between each of the electrode elements (52; E1-9; A1-9, P1-9, L1-9, R1-9) in the first set and each of the electrode elements (52; E1-9; A1-9, P1-9, L1-9, R1-9) in the second set; calculate, based on the measured impedances or conductances of each of the respective paths between each of the electrode elements (52; E1-9; A1-9, P1-9, L1-9, R1-9) in the first set and each of the electrode elements (52; E1-9; A1-9, P1-9, L1-9, R1-9) in the second set, a first impedance or conductance at each of at least 27 voxels that correspond to the target volume; and generate a first output specifying locations for one or more of the electrode arrays (50A, 50P, 50L, 50R), based on the first impedances or conductances of the voxels, for applying alternating electric fields to a first target in the target volume. sequentially measure, during a first window of time and using a first set of at least four electrode elements (52; E1-9; A1-9, P1-9, L1-9, R1-9) positioned on or in the subject's body on a first side of the target volume and a second set of at least four electrode elements (52; E1-9; A1-9, P1-9, L1-9, R1-9) positioned on or in the subject's body on a second side of the target volume that is opposite to the first side, an impedance or conductance of each of respective paths between each of the electrode elements (52; E1-9; A1-9, P1-9, L1-9, R1-9) in the first set and each of the electrode elements (52; E1-9; A1-9, P1-9, L1-9, R1-9) in the second set; calculate, based on the measured impedances or conductances of each of the respective paths between each of the electrode elements (52; E1-9; A1-9, P1-9, L1-9, R1-9) in the first set and each of the electrode elements (52; E1-9; A1-9, P1-9, L1-9, R1-9) in the second set, a first impedance or conductance at each of at least 27 voxels that correspond to the target volume; and generate a first output specifying locations for one or more of the electrode arrays (50A, 50P, 50L, 50R), based on the first impedances or conductances of the voxels, for applying alternating electric fields to a first target in the target volume.
A beverage machine comprising a water storage tank and a tank port for connection of the water storage tank, into which port a connection piece of the water storage tank can be inserted, and comprising an electronic communication element for wireless connection between a corresponding communication element of a filter cartridge located in the water storage tank and the device-side communication element, which comprises an antenna, characterised in that the tank port comprises a tank base protruding from a side wall or a floor of the beverage machine and having an outer peripheral surface, into which base the connection piece of the water storage tank can be inserted, the antenna is an antenna coil wound from wire, the inner diameter of which coil is greater than the outer diameter of the tank base and the coil is arranged concentrically with the tank base.
Nozzle assembly for a fuel injector for injecting fuel into a combustion chamber of an internal combustion engine, comprising a nozzle body and a nozzle needle which is received in a central bore of the nozzle body such that it can move with a reciprocating movement in order to open and close a plurality of injection holes, the plurality of injection holes being arranged in a hole circle and emanating from a blind hole which adjoins the sealing seat, characterized in that a single, further injection hole is arranged upstream of the hole circle, which further injection hole has a decreased flow cross section in comparison with the injection holes of the hole circle, the further injection hole (4") being arranged in the region of the sealing seat, and the nozzle needle having a sealing contour, which interacts with the sealing seat and is shaped conically, and an end section which protrudes into the blind hole in the closed position of the nozzle needle, the end section of the nozzle needle being of conical configuration.
A combination consisting essentially of an olfactory effective amount of (1S,3R,4R,5R)-3-[[3-(3,4-dihydroxyphenyl)-1-oxo-2-propen-1-yl]oxy]-1,4,5-trihydroxy-cyclohexanecarboxylic acid and a consumable acid, wherein the olfactory effective amount is from 1 part per billion to 1000 parts per million, and wherein (1S,3R,4R,5R)-3-[[3-(3,4-dihydroxyphenyl)-1-oxo-2-propen-1-yl]oxy]-1,4,5-trihydroxy-cyclohexanecarboxylic acid provides a sour taste-masking effect in the consumable acid.
A carburizing device configured to perform a carburizing treatment on a treatment target, the carburizing device comprising: a furnace body; an insulating container provided inside the furnace body; a furnace bed provided inside the insulating container and on which the treatment target is mounted; a heat source provided inside the insulating container; a carburizing gas supply source for supplying a carburizing gas; and a carburizing gas inlet pipe including a distal end that communicates with the insulating container and a rear end that communicates with the carburizing gas supply source, wherein at least surfaces of main components of the furnace bed, the heat source and the insulating container are made of a ceramic material, wherein as the main components, the furnace bed includes: a ceramic receiving member on which the treatment target is directly mounted; and a ceramic leg member that is provided to pass through the insulating container and includes a first end that is connected to the receiving member and a second end that is connected to the furnace body, and wherein the leg member has an internal space and the internal space of the leg member is filled with a fiber member made of a ceramic material. a furnace body; an insulating container provided inside the furnace body; a furnace bed provided inside the insulating container and on which the treatment target is mounted; a heat source provided inside the insulating container; a carburizing gas supply source for supplying a carburizing gas; and a carburizing gas inlet pipe including a distal end that communicates with the insulating container and a rear end that communicates with the carburizing gas supply source, wherein at least surfaces of main components of the furnace bed, the heat source and the insulating container are made of a ceramic material, wherein as the main components, the furnace bed includes: a ceramic receiving member on which the treatment target is directly mounted; and a ceramic leg member that is provided to pass through the insulating container and includes a first end that is connected to the receiving member and a second end that is connected to the furnace body, and wherein the leg member has an internal space and the internal space of the leg member is filled with a fiber member made of a ceramic material. a ceramic receiving member on which the treatment target is directly mounted; and a ceramic leg member that is provided to pass through the insulating container and includes a first end that is connected to the receiving member and a second end that is connected to the furnace body, and wherein the leg member has an internal space and the internal space of the leg member is filled with a fiber member made of a ceramic material.
A circuit comprising: a differential stage comprising a first transistor having a control terminal electrically connected to a first differential input (In 1) and an output terminal electrically connected to a first differential output (Out 1), the differential stage further comprising a second transistor having a control terminal electrically connected to a second differential input (In 2) and an output terminal electrically connected to a second differential output (Out 2); a first bias transistor having an output terminal electrically connected to the control terminal of the first transistor; a second bias transistor having an output terminal electrically connected to the control terminal of the second transistor; a first feedback network electrically connected between a control terminal of the first bias transistor and the output terminal of the first bias transistor; and a second feedback network electrically connected between a control terminal of the second bias transistor and the output terminal of the second bias transistor, wherein the first and second feedback networks, each, includes a capacitive feedback circuit and is configured to increase a gain characteristic of the differential stage by reducing, based on the respective feedback signal, a transconductance of the respective biasing transistor. a differential stage comprising a first transistor having a control terminal electrically connected to a first differential input (In 1) and an output terminal electrically connected to a first differential output (Out 1), the differential stage further comprising a second transistor having a control terminal electrically connected to a second differential input (In 2) and an output terminal electrically connected to a second differential output (Out 2); a first bias transistor having an output terminal electrically connected to the control terminal of the first transistor; a second bias transistor having an output terminal electrically connected to the control terminal of the second transistor; a first feedback network electrically connected between a control terminal of the first bias transistor and the output terminal of the first bias transistor; and a second feedback network electrically connected between a control terminal of the second bias transistor and the output terminal of the second bias transistor, wherein the first and second feedback networks, each, includes a capacitive feedback circuit and is configured to increase a gain characteristic of the differential stage by reducing, based on the respective feedback signal, a transconductance of the respective biasing transistor.
A method in a Base Station for Hybrid Automatic Repeat Request, HARQ, retransmission on an unlicensed carrier in a Long Term Evolution-Licensed Assisted Access, LTE-LAA, system, comprising: performing a Clear Channel Assessment, CCA, detection on the unlicensed carrier to determine energy on the unlicensed carrier and, at the same time, initiating an HARQ discarding timer for the unlicensed carrier, when the base station and a User Equipment, UE, operate on the unlicensed carrier; comparing the determined energy with a predetermined CCA threshold; if the determined energy on the unlicensed carrier is not smaller than the CCA threshold until the HARQ discarding timer is expired, giving up the HARQ retransmission on the unlicensed carrier after expiry of the HARQ discarding timer; and if the energy is detected to be smaller than the CCA threshold before the HARQ discarding timer is expired, continuing the HARQ retransmission on the unlicensed carrier, characterised in that: expiration time of the HARQ discarding timer is configured to be smaller than that of a Radio Link Control, RLC, reordering timer. performing a Clear Channel Assessment, CCA, detection on the unlicensed carrier to determine energy on the unlicensed carrier and, at the same time, initiating an HARQ discarding timer for the unlicensed carrier, when the base station and a User Equipment, UE, operate on the unlicensed carrier; comparing the determined energy with a predetermined CCA threshold; if the determined energy on the unlicensed carrier is not smaller than the CCA threshold until the HARQ discarding timer is expired, giving up the HARQ retransmission on the unlicensed carrier after expiry of the HARQ discarding timer; and if the energy is detected to be smaller than the CCA threshold before the HARQ discarding timer is expired, continuing the HARQ retransmission on the unlicensed carrier, characterised in that: expiration time of the HARQ discarding timer is configured to be smaller than that of a Radio Link Control, RLC, reordering timer.
A garbage data scrubbing method, applied to a terminal, wherein the terminal comprises a storage device, and the method comprises: obtaining an input output IO busy/idle status of the terminal at a current moment, wherein the IO busy/idle status comprises a busy state and an idle state; if the IO busy/idle status of the terminal at the current moment is the idle state, delivering a discard message to the storage device, wherein the discard message comprises an initial address and a size of to-be-scrubbed physical space in the storage device, and the discard message is used to unbind a mapping relationship between a physical address of the to-be-scrubbed physical space and a corresponding logical address; the method being characterized in that the obtaining the input output IO busy/idle status of the terminal at the current moment comprises: determining the IO busy/idle status based on whether there is an IO instruction of a scheduling queue of a block layer in a first time period, wherein an initial moment of the first time period is the current moment, and lasting duration of the first time period is a first time threshold. obtaining an input output IO busy/idle status of the terminal at a current moment, wherein the IO busy/idle status comprises a busy state and an idle state; if the IO busy/idle status of the terminal at the current moment is the idle state, delivering a discard message to the storage device, wherein the discard message comprises an initial address and a size of to-be-scrubbed physical space in the storage device, and the discard message is used to unbind a mapping relationship between a physical address of the to-be-scrubbed physical space and a corresponding logical address; the method being characterized in that the obtaining the input output IO busy/idle status of the terminal at the current moment comprises: determining the IO busy/idle status based on whether there is an IO instruction of a scheduling queue of a block layer in a first time period, wherein an initial moment of the first time period is the current moment, and lasting duration of the first time period is a first time threshold.