mhurhangee/patent-ind-claim-en huggingface dataset:
Thermal management system for a vehicle, comprising a refrigerant circuit and a loop for heat-transfer liquid, the loop for heat-transfer liquid comprising at least one heat exchanger configured to dissipate heat energy into an air flow , the refrigerant circuit comprising, in this order and in a direction in which the refrigerant circulates in the refrigerant circuit , at least one compression device , a first heat exchanger which thermally couples the loop for heat-transfer liquid to the refrigerant circuit , a refrigerant accumulation device , a first pass of an internal heat exchanger , an expansion member , a second heat exchanger designed to have passing through it a flow of air external to an interior of the vehicle and a second pass of the internal heat exchanger and characterized in that the refrigerant circuit comprises a main leg and at least a first leg parallel to the main leg , this main leg comprising at least the compression device , the first heat exchanger , the refrigerant accumulation device , the first pass of the internal heat exchanger , the expansion member , the second heat exchanger and the second pass of the internal heat exchanger , whereas the first leg comprises at least a first expansion device and a third heat exchanger designed to have passing through it an interior air flow sent into the interior of the vehicle, the first leg being connected to the main leg at a first connection point positioned between an outlet of the second heat exchanger and an inlet of the second pass of the internal heat exchanger which forms part of the main leg , the first leg also being connected to a third connection point situated on the main leg between an outlet of the second pass of the internal heat exchanger of the main leg and an inlet of the compression device .
Method (M) for manufacturing a space divider from fibre composite mats , comprising: heating (M1) two fibre composite mats to a shaping temperature, compressing (M2) the two heated fibre composite mats into one another in a single operating pass of a shaping tool to form a planar shaped part in accordance with a shape of the space divider , a cavity being formed between the two fibre composite mats by laying a mould core between the two fibre composite mats and withdrawing it again after the compression, and fixing (M3) a mounting element in the cavity for mounting the space divider , the fibre composite mats each being formed as a single-piece flexible textile fabric having a plastics material component having a melting point below the shaping temperature. heating (M1) two fibre composite mats to a shaping temperature, compressing (M2) the two heated fibre composite mats into one another in a single operating pass of a shaping tool to form a planar shaped part in accordance with a shape of the space divider , a cavity being formed between the two fibre composite mats by laying a mould core between the two fibre composite mats and withdrawing it again after the compression, and fixing (M3) a mounting element in the cavity for mounting the space divider , the fibre composite mats each being formed as a single-piece flexible textile fabric having a plastics material component having a melting point below the shaping temperature.
A method comprising: registering, by an enterprise controller on an enterprise domain , in a shared mapping system on a service provider domain , one or more entries specifying one or more services for one or more classes of traffic to yield registered entries, the registered entries including an association between labels for classifying classes of traffic and the one or more services for those classes of traffic; reading, by a service provider controller , from the shared mapping system, the registered entries; posting, by the service provider controller , the one or more entries to one or more routing tables at a software-defined wide area network of the service provider domain ; and receiving a request, by a mobile node on the enterprise domain , of a specific service for a particular class of packets according to a classification of the particular class of packets based on a particular label defined in the registered entries for the specific service; wherein packets are tagged with a label identifying the class of traffic for those packets and the method includes applying services to the packets according to the association provided in the registered entries between the labels and the services. registering, by an enterprise controller on an enterprise domain , in a shared mapping system on a service provider domain , one or more entries specifying one or more services for one or more classes of traffic to yield registered entries, the registered entries including an association between labels for classifying classes of traffic and the one or more services for those classes of traffic; reading, by a service provider controller , from the shared mapping system, the registered entries; posting, by the service provider controller , the one or more entries to one or more routing tables at a software-defined wide area network of the service provider domain ; and receiving a request, by a mobile node on the enterprise domain , of a specific service for a particular class of packets according to a classification of the particular class of packets based on a particular label defined in the registered entries for the specific service; wherein packets are tagged with a label identifying the class of traffic for those packets and the method includes applying services to the packets according to the association provided in the registered entries between the labels and the services.
A method comprising: generating, on a device capturing audio content, reference audio signals that are, while the audio content is present, inaudible to humans; driving a loudspeaker, coupled to the device, to emit the reference audio signals; simultaneously capturing as captured signals, through a microphone and associated Analog-to-Digital converter coupled to the device, the audio content and the reference audio signals; wherein capturing includes applying a common time-varying gain to the audio content and the reference audio signals; extracting a representation of the reference audio signals from the captured signals; determining variations over time in levels of the representation of the extracted reference audio signals; inferring , from the variations in levels, the time-varying gain that has been applied to the audio content during the capturing; and providing information on the inferred time-varying gain to another device. generating, on a device capturing audio content, reference audio signals that are, while the audio content is present, inaudible to humans; driving a loudspeaker, coupled to the device, to emit the reference audio signals; simultaneously capturing as captured signals, through a microphone and associated Analog-to-Digital converter coupled to the device, the audio content and the reference audio signals; wherein capturing includes applying a common time-varying gain to the audio content and the reference audio signals; extracting a representation of the reference audio signals from the captured signals; determining variations over time in levels of the representation of the extracted reference audio signals; inferring , from the variations in levels, the time-varying gain that has been applied to the audio content during the capturing; and providing information on the inferred time-varying gain to another device.
A method for wireless communication performed at a transmitter user equipment, UE, comprising: determining a first zone identifier, ID, corresponding to a first zone in which the transmitter UE is located, wherein the first zone is within a set of zones and each zone of the first set of zones has a unique identifier, wherein the first zone ID is the unique identifier of the first zone within the set of zones; determining a distance threshold based on a distance requirement of an application associated with the transmitter UE, wherein the distance threshold is a hybrid automatic repeat request, HARQ, feedback distance threshold; determining a second zone ID based on the first zone ID, the distance threshold, and a size of the first zone, wherein the second zone ID is the same for a subset of adjacent zones of the set of zones, wherein the subset of adjacent zones that share the same second zone ID comprises a plurality of zones, and wherein the first zone ID represents an individual zone within the subset of adjacent zones that share the same second zone ID; and wherein a number of bits of the first zone ID is n bits, a number of bits of the second zone ID is m bits, and m is less than or equal to n; and transmitting the second zone ID and the distance threshold to one or more receiver UEs. determining a first zone identifier, ID, corresponding to a first zone in which the transmitter UE is located, wherein the first zone is within a set of zones and each zone of the first set of zones has a unique identifier, wherein the first zone ID is the unique identifier of the first zone within the set of zones; determining a distance threshold based on a distance requirement of an application associated with the transmitter UE, wherein the distance threshold is a hybrid automatic repeat request, HARQ, feedback distance threshold; determining a second zone ID based on the first zone ID, the distance threshold, and a size of the first zone, wherein the second zone ID is the same for a subset of adjacent zones of the set of zones, wherein the subset of adjacent zones that share the same second zone ID comprises a plurality of zones, and wherein the first zone ID represents an individual zone within the subset of adjacent zones that share the same second zone ID; and wherein a number of bits of the first zone ID is n bits, a number of bits of the second zone ID is m bits, and m is less than or equal to n; and transmitting the second zone ID and the distance threshold to one or more receiver UEs.
An internally ventilated brake disc for a disc brake, with two friction discs (2', 2") arranged adjacent to each other, which are connected together by radially running, regularly arranged lands , wherein the lands run from an outer peripheral edge up to an inner peripheral edge of the friction discs (2', 2") and these are connected by the lands in such a way that the gaps between them form cooling channels of the same size through which cooling air can flow, which are subdivided by further, shorter lands such that at least one shorter land is located in a radial region closer to the inner peripheral edge of the friction discs (2', 2") centrally between the lands , wherein the cooling channels , directed in the radial direction from the shorter land outwards, divide up into at least three flow channels (1c', 1c", 1c'''), in that two first further shorter lands are arranged in each cooling channel , offset radially outwards in the peripheral direction relative to each shorter land , characterised in that , starting from each of the shorter lands , directed radially inwards, the friction disc which is directed towards a brake disc chamber is extended and level with a collar of the brake disc chamber is provided with a bore in the axial direction which serves to accommodate a rivet which fastens the friction disc to the brake disc chamber .
A fiber laser amplifier system suitable for use as part of a spectral beam combining, SBC, fiber laser amplifier system, comprising a wavelength division multiplexing seed beam source , the wavelength division multiplexing seed beam source comprising: a plurality of master oscillators each generating a seed beam at a different wavelength on a separate input fiber; a spectral multiplexer that receives all of the seed beams on the separate fibers and spectrally combines the seed beams onto a common fiber ; an electro-optical phase modulator responsive to the combined seed beams on the common fiber , said electro-optical phase modulator modulating the combined seed beams by changing the phase of the combined seed beams to be proportional to an applied voltage from an RF driver ; and a spectral demultiplexer responsive to the modulated and combined seed beams on the common fiber and spectrally separating the seed beams onto separate output fibers , wherein the wavelength division multiplexing seed beam source is part of the fiber laser amplifier system, the fiber laser amplifier system further comprising a plurality of respective fiber amplifiers , each respective fiber amplifier being configured to amplify one of the spectrally separated seed beams on a respective output fiber . a plurality of master oscillators each generating a seed beam at a different wavelength on a separate input fiber; a spectral multiplexer that receives all of the seed beams on the separate fibers and spectrally combines the seed beams onto a common fiber ; an electro-optical phase modulator responsive to the combined seed beams on the common fiber , said electro-optical phase modulator modulating the combined seed beams by changing the phase of the combined seed beams to be proportional to an applied voltage from an RF driver ; and a spectral demultiplexer responsive to the modulated and combined seed beams on the common fiber and spectrally separating the seed beams onto separate output fibers , wherein the wavelength division multiplexing seed beam source is part of the fiber laser amplifier system, the fiber laser amplifier system further comprising a plurality of respective fiber amplifiers , each respective fiber amplifier being configured to amplify one of the spectrally separated seed beams on a respective output fiber .
An unducted thrust producing system , said thrust producing system comprising: a rotating element having an axis of rotation ; and a stationary element ; said rotating element having a plurality of blades , each blade having: a blade root proximal to said axis , a blade tip remote from said axis , and a blade span measured between said blade root and said blade tip, wherein said blades are characterized by : at 30% span the blade camber is at least 90% of the maximum blade camber between 50% span and 100% span, and the blade camber at 0% span is at least 110% of the maximum blade camber between 50% span and 100% span. a rotating element having an axis of rotation ; and a stationary element ; said rotating element having a plurality of blades , each blade having: a blade root proximal to said axis , a blade tip remote from said axis , and a blade span measured between said blade root and said blade tip, a blade root proximal to said axis , a blade tip remote from said axis , and a blade span measured between said blade root and said blade tip, wherein said blades are characterized by : at 30% span the blade camber is at least 90% of the maximum blade camber between 50% span and 100% span, and the blade camber at 0% span is at least 110% of the maximum blade camber between 50% span and 100% span.
A method of detecting a state of a lipid membrane in a cell of a nanopore based sequencing chip, comprising: coupling a lipid membrane with an integrating capacitor, wherein the lipid membrane is between a working electrode and a counter electrode; applying an alternating current (AC) voltage to the counter electrode; periodically sampling a voltage across the integrating capacitor by an analog-to-digital converter (ADC); inserting an intermediate change in the AC voltage between two magnitudes of the AC voltage; determining a change in the sampled voltage across the integrating capacitor in response to the intermediate change in the AC voltage; and detecting a state of the lipid membrane based on the determined change in the sampled voltage across the integrating capacitor in response to the intermediate change in the AC voltage. coupling a lipid membrane with an integrating capacitor, wherein the lipid membrane is between a working electrode and a counter electrode; applying an alternating current (AC) voltage to the counter electrode; periodically sampling a voltage across the integrating capacitor by an analog-to-digital converter (ADC); inserting an intermediate change in the AC voltage between two magnitudes of the AC voltage; determining a change in the sampled voltage across the integrating capacitor in response to the intermediate change in the AC voltage; and detecting a state of the lipid membrane based on the determined change in the sampled voltage across the integrating capacitor in response to the intermediate change in the AC voltage.
An inhibitor of the circulating tumor cell cluster (CTC-C) marker gene Junction Plakoglobin (JUP) for use in a method of treating breast or epithelial cancer, the method comprising administering the inhibitor of the circulating tumor cell cluster (CTC-C) marker gene Junction Plakoglobin (JUP) to a subject in need thereof; wherein: the subject has an increased level of CTC-Cs relative to a control level; and/or the subject is in need of treatment for metastasis; wherein the inhibitor is an inhibitory nucleic acid, an antibody, or an aptamer. the subject has an increased level of CTC-Cs relative to a control level; and/or the subject is in need of treatment for metastasis; wherein the inhibitor is an inhibitory nucleic acid, an antibody, or an aptamer.
A scintillator plate comprising a substrate , a scintillator including a plurality of columnar crystals arranged above the substrate , a first protective film , and a second protective film , the first protective film chemically bonds to the plurality of columnar crystals in interfaces with the plurality of columnar crystals , said scintillator plate being characterized in that the second protective film has a lower water vapor transmission rate than the first protective film , a film thickness of the second protective film is larger than that of the first protective film , and the substrate and the second protective film seal the scintillator and the first protective film . the first protective film chemically bonds to the plurality of columnar crystals in interfaces with the plurality of columnar crystals , said scintillator plate being characterized in that the second protective film has a lower water vapor transmission rate than the first protective film , a film thickness of the second protective film is larger than that of the first protective film , and the substrate and the second protective film seal the scintillator and the first protective film .
A switch , comprising: a fixed contact ; a movable contact provided on one end portion of a movable plate and being capable of contacting the fixed contact ; a card made of an insulating material and being in contact with the movable plate , the card including a first contact portion that contacts a surface of the movable plate and a second contact portion that contacts another surface of the movable plate ; a button that contacts with the card , and can be pushed down; and a spring connected to the button and generating a restoring force in a direction of separating a contact between the fixed contact and the movable contact , wherein the card moves to move the movable plate to cause the movable contact to contact the fixed contact so as to be in a turn-on state when the button is pushed down. a fixed contact ; a movable contact provided on one end portion of a movable plate and being capable of contacting the fixed contact ; a card made of an insulating material and being in contact with the movable plate , the card including a first contact portion that contacts a surface of the movable plate and a second contact portion that contacts another surface of the movable plate ; a button that contacts with the card , and can be pushed down; and a spring connected to the button and generating a restoring force in a direction of separating a contact between the fixed contact and the movable contact , wherein the card moves to move the movable plate to cause the movable contact to contact the fixed contact so as to be in a turn-on state when the button is pushed down.
A chromatic confocal measuring device, comprising a light source which emits light of a plurality of wavelengths, in particular a continuous spectrum, imaging optics , the imaging optics having a chromatic aberration such that light of different wavelengths is focused at different distances from the imaging optics a first beam splitter , wherein light from the light source is imaged onto a measurement object via the first beam splitter and the imaging optics , and wherein light reflected from the measurement object is imaged onto a first confocal detection aperture arrangement through the imaging optics and the first beam splitter , a first detection device which detects and evaluates light falling through the first detection aperture arrangement , wherein the measuring device comprises an illumination aperture arrangement which comprises at least a first aperture which interacts with a detection aperture of the first detection aperture arrangement as a confocal aperture, wherein the measuring device comprises a second detection device and a second beam splitter , in particular a non-polarizing beam splitter, wherein the second beam splitter splits the light reflected by the measuring object into a first and a second partial beam , wherein the first detection device is configured to detect light of the first partial beam by means of a line detector and to evaluate total intensities over all wavelengths and to generate a total intensity profile and/or a total intensity image, and wherein the second detection device is configured to spectrally split light of the second partial beam at the same time and to detect and evaluate intensities of the light of a plurality of individual wavelengths or a plurality of wavelength ranges, characterized in that the first aperture of the illumination aperture arrangement is a slit aperture. a first detection device which detects and evaluates light falling through the first detection aperture arrangement , wherein the measuring device comprises an illumination aperture arrangement which comprises at least a first aperture which interacts with a detection aperture of the first detection aperture arrangement as a confocal aperture, wherein the measuring device comprises a second detection device and a second beam splitter , in particular a non-polarizing beam splitter, wherein the second beam splitter splits the light reflected by the measuring object into a first and a second partial beam , wherein the first detection device is configured to detect light of the first partial beam by means of a line detector and to evaluate total intensities over all wavelengths and to generate a total intensity profile and/or a total intensity image, and wherein the second detection device is configured to spectrally split light of the second partial beam at the same time and to detect and evaluate intensities of the light of a plurality of individual wavelengths or a plurality of wavelength ranges, characterized in that the first aperture of the illumination aperture arrangement is a slit aperture.