mhurhangee/ep-ind-claims huggingface dataset:
A transport refrigeration system having a generator driven by an engine and a compressor of a closed loop vapor compression system supplied with the generated electrical power, the transport refrigeration system comprising a box to be refrigerated by said vapor compression system, and a control apparatus, the control apparatus comprising: a first temperature sensor configured to sense the discharge temperature (td) of the compressor and generate a first temperature signal representative thereof; a second temperature sensor configured to sense the temperature of air being returned from said box and to generate a return air temperature signal representative thereof; a first pressure sensor configured to sense the suction pressure (Ps) of the compressor and to generate a suction pressure signal representative thereof; a second pressure sensor configured to sense the discharge pressure (Pd) of the compressor and to generate a discharge pressure signal representative thereof; a microprocessor configured to receive said first temperature signal, said return air temperature signal, said suction pressure signal and said discharge pressure signal and to generate an inverter control signal in response thereto; and an inverter configured to receive said inverter control signal from said microprocessor and to receive electrical power from the generator and to provide a level of electrical power to the compressor in response to said inverter control signal. a first temperature sensor configured to sense the discharge temperature (td) of the compressor and generate a first temperature signal representative thereof; a second temperature sensor configured to sense the temperature of air being returned from said box and to generate a return air temperature signal representative thereof; a first pressure sensor configured to sense the suction pressure (Ps) of the compressor and to generate a suction pressure signal representative thereof; a second pressure sensor configured to sense the discharge pressure (Pd) of the compressor and to generate a discharge pressure signal representative thereof; a microprocessor configured to receive said first temperature signal, said return air temperature signal, said suction pressure signal and said discharge pressure signal and to generate an inverter control signal in response thereto; and an inverter configured to receive said inverter control signal from said microprocessor and to receive electrical power from the generator and to provide a level of electrical power to the compressor in response to said inverter control signal.
A method for converting a frequency of a signal based on photonic processing, comprising: producing a modulated optical signal that is at an optical carrier frequency and carries an input radio frequency signal; coupling light of the modulated optical signal into an optical resonator that supports optical resonator modes and exhibits a frequency difference between two adjacent optical resonator modes that is different from an RF frequency of the input RF signal; coupling light out of the optical resonator as an optical output signal that carries a first set of optical sidebands corresponding to the RF signal and a second set of optical sidebands corresponding to the optical resonator modes; filtering the optical output signal coupled out of the optical resonator with an optical filter to remove the optical carrier; receiving and converting the filtered optical output signal at an optical detector; and demodulating the filtered converted optical output signal to generate an output electrical signal that is a replica of the input RF signal at an output electrical signal frequency that is shifted from the RF frequency of the input RF signal. producing a modulated optical signal that is at an optical carrier frequency and carries an input radio frequency signal; coupling light of the modulated optical signal into an optical resonator that supports optical resonator modes and exhibits a frequency difference between two adjacent optical resonator modes that is different from an RF frequency of the input RF signal; coupling light out of the optical resonator as an optical output signal that carries a first set of optical sidebands corresponding to the RF signal and a second set of optical sidebands corresponding to the optical resonator modes; filtering the optical output signal coupled out of the optical resonator with an optical filter to remove the optical carrier; receiving and converting the filtered optical output signal at an optical detector; and demodulating the filtered converted optical output signal to generate an output electrical signal that is a replica of the input RF signal at an output electrical signal frequency that is shifted from the RF frequency of the input RF signal.
Video stream comprising multiple layers (l0, 11) and a signaling indicating multi-layered pictures of the video stream which do not use, in the highest layer, temporal motion vector prediction, TMVP, and, in addition to the signaling, an even further signaling indicating for each multi-layered picture of the video stream, which is not indicated as not using, in the highest layer, TMVP, as to how far, measured in multi-layered pictures of the video stream in coding order, the next multi-layered picture of the video stream is away, which is coded not using, in the highest layer, TMVP.
Characterisation cell for smoke analysis, by optical spectrometry comprising: - a reaction chamber; - an inlet orifice for the inlet of smoke (F u) inside the reaction chamber; - an outlet orifice for the evacuation of smoke (F u) from the reaction chamber; - an analysis window for entry of a laser beam (F laser) intended to form the plasma inside the reaction chamber; and - a fan; characterised in that: the fan is configured for ensuring scanning of inert gas in the vicinity of the analysis window; and the cell also comprises: - an injector configured for coaxial shielded injection of smoke inside the reaction chamber, the shielding being ensured by a jet of the same inert gas coaxial and surrounding the smoke. - a reaction chamber; - an inlet orifice for the inlet of smoke (F u) inside the reaction chamber; - an outlet orifice for the evacuation of smoke (F u) from the reaction chamber; - an analysis window for entry of a laser beam (F laser) intended to form the plasma inside the reaction chamber; and - a fan; the fan is configured for ensuring scanning of inert gas in the vicinity of the analysis window; and the cell also comprises: - an injector configured for coaxial shielded injection of smoke inside the reaction chamber, the shielding being ensured by a jet of the same inert gas coaxial and surrounding the smoke. - an injector configured for coaxial shielded injection of smoke inside the reaction chamber, the shielding being ensured by a jet of the same inert gas coaxial and surrounding the smoke.
A method for reading additional information on at least one front side and/or back side of at least one sheet (11, 11', 11", 11"') of an interactive print medium, wherein at least one function is triggered in a reading unit via at least one signal, which is transmitted to the reading unit by at least one RFID transponder (12, 12') arranged on at least one sheet (11, 11', 11", 11'") of the print medium and having at least one RFID antenna and at least one RFID chip, wherein the antenna circuit of the RFID antenna is detuned by contact of the user of the RFID transponder (12, 12') at intended positions of the RFID transponder (12, 12') and a change in the injected energy occurs, which is recognised by the RFID chip, and thereupon a respective signal is conducted to the reading unit, characterised in that different functions in the reading unit are triggered by touching different positions on the at least one RFID transponder (12, 12') and/or different functions in the reading unit are triggered by different touch sequences on the at least one RFID transponder (12, 12').
A device to clean a shaving razor of the type having at least one blade encased in a head, said device including: a hollow body having a first end adapted to be affixed to a water faucet and a second end terminating in a hollow chamber, said body and said chamber being adapted to allow water to flow through said body from said first end to exit from said chamber; and a slot in said chamber through which said at least one blade can be passed, characterized by a brush or similar affixed within said chamber, said brush being adapted to rotate as said water flows through said body to exit from said chamber, and to be contacted by said at least one blade. a hollow body having a first end adapted to be affixed to a water faucet and a second end terminating in a hollow chamber, said body and said chamber being adapted to allow water to flow through said body from said first end to exit from said chamber; and a slot in said chamber through which said at least one blade can be passed, characterized by a brush or similar affixed within said chamber, said brush being adapted to rotate as said water flows through said body to exit from said chamber, and to be contacted by said at least one blade.
Method for detecting magnetic fields, in particular for detecting the position of objects, using a preferably elongate, soft-magnetic element that is connected to an electronics system, the electronics system being used to measure the impedance of the soft-magnetic material of the soft-magnetic element, a magnetic field being used by the magnetic field being adjusted at the location of the soft-magnetic material as a result of the position of an object that is arranged relative to the soft-magnetic material, as a result of which the magnetic permeability (μ) of the soft-magnetic material and the impedance thereof is adjusted on the basis of the magnetic field and thus of the position of the object, characterised in that, on the curve in which the magnetic permeability (μ) of the material of the soft-magnetic element is plotted against the magnetic field strength, the working range of the soft-magnetic element is located in a region in which the permeability (μ) continuously decreases as the magnitude of the magnetic field strength increases such that, in the working range, the non-linearity of the curve for the magnetic permeability (μ) of the material of the soft-magnetic element is compensated for according to the magnetic field strength and the non-linearity of the curve for the magnetic field strength is compensated for according to the distance of the object from the soft-magnetic material of the soft-magnetic element in such a way that a substantially linear relationship is formed between the distance and the impedance.
An airbag device comprising: a folded airbag attachable to an upper part of an inner side wall of a vehicle along a vehicle's front-rear direction; a trim to cover the airbag at the vehicle's interior side; and an inflator that supplies gas to the airbag to inflate and deploy the airbag to the lower side of the vehicle from the trim, wherein the airbag includes a bellows portion that is formed by bellows-folding an upper edge side, characterised by a roll-folded portion that is formed by roll-folding a lower edge side toward a vehicle's exterior side and is continuous with the bellows portion, wherein the roll-folded portion is roll-folded such that it is longer than the bellows portion in the vehicle's width direction and is folded back upward so as to wrap from below and accommodate the bellows portion. a folded airbag attachable to an upper part of an inner side wall of a vehicle along a vehicle's front-rear direction; a trim to cover the airbag at the vehicle's interior side; and an inflator that supplies gas to the airbag to inflate and deploy the airbag to the lower side of the vehicle from the trim, wherein the airbag includes a bellows portion that is formed by bellows-folding an upper edge side, characterised by a roll-folded portion that is formed by roll-folding a lower edge side toward a vehicle's exterior side and is continuous with the bellows portion, wherein the roll-folded portion is roll-folded such that it is longer than the bellows portion in the vehicle's width direction and is folded back upward so as to wrap from below and accommodate the bellows portion.
An RFID tag IC, comprising: an NFC interface configured to initiate a power-up, when coupled with an HF field, and receive a read command from an RFID device; a non-volatile memory, wherein the non-volatile memory is configured to store a counter value; and characterized in that the RFID tag IC further comprises a processing unit configured to set an increment flag that stores an indication of a successful increment of the counter value; attempt to increment the counter value when coupled with the HF field during startup or power-up, set the increment flag when the increment is successful, and thereby block a further increment of the counter value until reset of the increment flag, and reset the increment flag after fulfilling the read command. an NFC interface configured to initiate a power-up, when coupled with an HF field, and receive a read command from an RFID device; initiate a power-up, when coupled with an HF field, and receive a read command from an RFID device; a non-volatile memory, wherein the non-volatile memory is configured to store a counter value; and characterized in that the RFID tag IC further comprises a processing unit configured to set an increment flag that stores an indication of a successful increment of the counter value; attempt to increment the counter value when coupled with the HF field during startup or power-up, set the increment flag when the increment is successful, and thereby block a further increment of the counter value until reset of the increment flag, and reset the increment flag after fulfilling the read command. set an increment flag that stores an indication of a successful increment of the counter value; attempt to increment the counter value when coupled with the HF field during startup or power-up, set the increment flag when the increment is successful, and thereby block a further increment of the counter value until reset of the increment flag, and reset the increment flag after fulfilling the read command.
An information transmission method, comprising: determining, by a terminal device, that resources for carrying N pieces of uplink control information, UCI partly overlap or completely overlap in time domain, wherein the N pieces of UCI comprise beam channel quality information, and at least one of a piece of channel state information and an acknowledgement, ACK/a negative acknowledgement, NACK, N is an integer greater than or equal to 2, wherein the beam channel quality information is a channel quality indicator of a beam selected by the terminal device; and sending, by the terminal device, M pieces of UCI to an access network device based on priorities of the N pieces of UCI, wherein priorities of the M pieces of UCI are higher than priorities of other N-M pieces of UCI in the N pieces of UCI, and M is a positive integer less than or equal to N; wherein a priority of the beam channel quality information is higher than a priority of the channel state information, and a priority of the beam channel quality information is lower than a priority of the ACK/NACK. determining, by a terminal device, that resources for carrying N pieces of uplink control information, UCI partly overlap or completely overlap in time domain, wherein the N pieces of UCI comprise beam channel quality information, and at least one of a piece of channel state information and an acknowledgement, ACK/a negative acknowledgement, NACK, N is an integer greater than or equal to 2, wherein the beam channel quality information is a channel quality indicator of a beam selected by the terminal device; and sending, by the terminal device, M pieces of UCI to an access network device based on priorities of the N pieces of UCI, wherein priorities of the M pieces of UCI are higher than priorities of other N-M pieces of UCI in the N pieces of UCI, and M is a positive integer less than or equal to N; wherein a priority of the beam channel quality information is higher than a priority of the channel state information, and a priority of the beam channel quality information is lower than a priority of the ACK/NACK.
A lime-based composition comprising at least one mineral agent comprising at least slaked lime in a solid phase and at least one organic polymer, characterized in that said at least one organic polymer is incorporated into said solid phase of the slaked lime, and in that said lime-based composition is a solid composition.
Set having a bumper beam of a vehicle, the bumper beam having a front face extended by a top face and a lower face, the bumper beam having a fixing hole, housed in the front face and designed to allow the attachment of a towing socket, in addition to a system of a modular reinforcement device to strengthen a bumper beam of a vehicle, a device of a plate, fitted in support of the front face of the bumper beam, a device of at least two attachment edges (12a, 12b) opposite, the plate and inclined to the plate, fixed respectively on the upper and lower faces of the bumper beam, the plate having at least one light, housed in the plate and having a curviline extension greater than its width, characterized in This is what the assembly allows the attachment of a towing socket in the bumper beam through the light.
Support construction for a display wall (4, 5, 6) for fitting support elements for the presentation of goods, with a longitudinal profile (2, 30, 31) for the display wall (4, 5, 6) and with an adjusting sleeve (3, 32, 33, 34, 35) for the longitudinal profile (2, 30, 31), wherein the longitudinal profile (2, 30, 31) comprises fitting means for wall elements and attachment means for the arrangement of adjusting sleeves (3, 32, 33, 34, 35), into which a support element can be pushed and arrested, and the longitudinal profile (2, 30, 31) on a display side, on which a display wall (4, 5, 6) can be arranged, comprising a longitudinally extending opening that continuously extends at least across the best part of the length of the longitudinal profile (2, 30, 31), and in that groove-like guide channels (15, 16) are formed on opposite side walls (13, 14) of the longitudinal profile (2, 30, 31) in longitudinal direction, into which the adjusting sleeves (3,32,33,34,35) can be pushed, wherein the adjusting sleeves (3, 32, 33, 34, 35) are supported in the guide channels (15, 16) in the pushed-in condition, wherein the adjusting sleeve (3, 32, 33, 34, 35) comprises an insertion section that has an insertion opening for a support element, and in that holding areas (21, 22) arranged transverse in relation to the insertion section are envisaged, which can be pushed into the guide channels (15, 16) of the longitudinal profile (2, 30, 31) and provide the holding forces for an adjusting sleeve (3, 32, 33, 34, 35) pushed into the longitudinal profile (2, 30, 31), characterised in that several adjusting sleeves (3, 32, 33, 34, 35) can be attached to the longitudinal profile (2, 30, 31), wherein any positions along at least one section of a longitudinal profile expansion can be realised for the adjusting sleeves (3, 32, 33, 34, 35), and an adjusting sleeve (3, 32, 33, 34, 35) can be fitted in precise positional alignment with the longitudinal profile (2, 30, 31) at one of a multitude of possible fitting points.
A method for producing an oscillator substrate in which an oscillating section of an oscillating membrane facing an oscillation space is configured to oscillate in a direction normal to a membrane surface of the oscillating membrane, the method comprising the subsequential steps: forming a sacrifice layer within a region over a substrate intended to become the oscillation space, the sacrifice layer being formed of a same material as the substrate; forming the oscillating membrane on the sacrifice layer; forming sacrifice layer removing holes in the substrate in a manner to lead to the sacrifice layer from a surface of the substrate opposite to the sacrifice layer; forming an etching protective film over an internal wall surface of the sacrifice layer removing holes; and removing the sacrifice layer by etching through the sacrifice layer removing holes to form the oscillation space. forming a sacrifice layer within a region over a substrate intended to become the oscillation space, the sacrifice layer being formed of a same material as the substrate; forming the oscillating membrane on the sacrifice layer; forming sacrifice layer removing holes in the substrate in a manner to lead to the sacrifice layer from a surface of the substrate opposite to the sacrifice layer; forming an etching protective film over an internal wall surface of the sacrifice layer removing holes; and removing the sacrifice layer by etching through the sacrifice layer removing holes to form the oscillation space.
A composition comprising 10 to 50 wt % wood pulp fiber and 45 to 85 wt % thermoplastic polymer wherein the dilution level for detection in a bag at 40°C is equal to or less than 450 as determined by ASTM E679, wherein the wood pulp fiber is bleached chemical wood pulp fiber.