mhurhangee/ep-ind-claims huggingface dataset:
CARS apparatus for studying a sample, the apparatus comprising: a light source for emitting pulsed light; converting means for converting a pulse of light from the source into a plurality of derived light pulses distributed in time; separating means for separating each derived light pulse into a first interrogation pulse consisting of a subset of the derived light pulse's frequencies and a second interrogation pulse consisting of a different subset of those frequencies; chirping means for chirping the first and second interrogation pulses of each derived light pulse; directing means for applying each derived light pulse's chirped first and second interrogation pulses to the sample in time overlap; and detecting means for detecting stimulated light that is stimulated from the sample by the interaction of each derived light pulse's chirped first and second interrogation pulses. a light source for emitting pulsed light; converting means for converting a pulse of light from the source into a plurality of derived light pulses distributed in time; separating means for separating each derived light pulse into a first interrogation pulse consisting of a subset of the derived light pulse's frequencies and a second interrogation pulse consisting of a different subset of those frequencies; chirping means for chirping the first and second interrogation pulses of each derived light pulse; directing means for applying each derived light pulse's chirped first and second interrogation pulses to the sample in time overlap; and detecting means for detecting stimulated light that is stimulated from the sample by the interaction of each derived light pulse's chirped first and second interrogation pulses.
A belt for a sleeve roll of a paper, board, pulp or tissue machine, the belt forming a closed loop and having an inner surface and an outer surface, where the belt comprises: - an elastic body having an outer surface, and - a reinforcing structure, wherein - the reinforcing structure comprises ∘ first yarns arranged to a first direction of the belt, and ∘ second yarns arranged to a second direction of the belt, wherein - the second yarns are arranged, at least partially, on the elastic body, and - such that each second yarn is arranged to a depth of equal to or less than 2 mm, measured from the outer surface of the elastic body to a bottom (32a-i) of the second yarn in a depth direction of the belt wherein - a number of the second yarns is from 140 yarns/m to 620 yarns/m, and/or - a number of the first yarns is from 140 yarns/m to 620 yarns/m - an elastic body having an outer surface, and - a reinforcing structure, - the reinforcing structure comprises ∘ first yarns arranged to a first direction of the belt, and ∘ second yarns arranged to a second direction of the belt, ∘ first yarns arranged to a first direction of the belt, and ∘ second yarns arranged to a second direction of the belt, - the second yarns are arranged, at least partially, on the elastic body, and - such that each second yarn is arranged to a depth of equal to or less than 2 mm, measured from the outer surface of the elastic body to a bottom (32a-i) of the second yarn in a depth direction of the belt wherein - a number of the second yarns is from 140 yarns/m to 620 yarns/m, and/or - a number of the first yarns is from 140 yarns/m to 620 yarns/m
A humid air stream generator, comprising a hollow cylindrical chamber (2, 5) with a mist generator placed inside at the bottom of the hollow cylindrical chamber (2, 5) for generating a continuous stream of humid air, an inlet tubing attached to the hollow cylindrical chamber (2, 5) for feeding a stream of incoming air, an outlet tubing attached to the hollow cylindrical chamber (2, 5), a suction fan placed between the outlet tubing and the mist generator for forming the continuous stream of humid air with the stream of incoming air into a cyclonic air flow which spirals upward towards the outlet tubing, so as to eliminate accumulation of water droplets or condensation at an outlet region of the hollow cylindrical chamber (2, 5); the suction fan comprises a first centrifugal fan to allow the continuous stream of humid air and the stream of incoming air to pass through the first centrifugal fan, so as to mix them together in forming the cyclonic air flow; characterised in that the first centrifugal fan comprises a drum housing with fins arranged at its middle point, wherein, the drum housing further comprises an air outlet for discharging mixed air in a direction in parallel with or tilted at a small angle to a tangent of the drum housing at the air outlet so as to form the cyclonic air flow along a circumference of an inner wall of the hollow cylindrical chamber (2, 5).
A method of determining in an IP multimedia subsystem, IMS, network which radio access type, RAT, should be used to route a terminating session directed towards a user equipment, UE, the method comprising: characterised by receiving at a home subscriber server, HSS, a terminating access domain selection, T-ADS, query from an application server, AS, of the IMS network, the T-ADS query relating to the terminating session and identifying the UE; determining whether a packet data network gateway, PDN-GW, is registered for the UE; in the case where a PDN-GW is registered: sending RAT request from the HSS towards the PDN-GW, the RAT request identifying the UE and requesting a RAT used by the UE to connect to the IMS network; determining the RAT at the PDN-GW; and sending the result towards the HSS; sending a T-ADS response from the HSS to the AS indicating the RAT; in the case where a PDN-GW is not registered: sending a T-ADS response from the HSS to the AS indicating that the RAT is a circuit switched RAT. characterised by receiving at a home subscriber server, HSS, a terminating access domain selection, T-ADS, query from an application server, AS, of the IMS network, the T-ADS query relating to the terminating session and identifying the UE; determining whether a packet data network gateway, PDN-GW, is registered for the UE; sending RAT request from the HSS towards the PDN-GW, the RAT request identifying the UE and requesting a RAT used by the UE to connect to the IMS network; determining the RAT at the PDN-GW; and sending the result towards the HSS; sending a T-ADS response from the HSS to the AS indicating the RAT;
Hand-held implement having a motor unit, having a tool unit and having an extension arm, which connects the motor unit and the tool unit, wherein the tool unit contains a cutting disc and a safety hood, wherein the extension arm has a supporting part, wherein the supporting part has a base plate with an inner side and an outer side, wherein the outer side is directed towards the motor unit, wherein the base plate is delimited along its circumference by a surrounding circumferential wall, wherein the circumferential wall, over at least 50% of its length, rises up exclusively from the inner side of the base plate, wherein a drive shaft, which is driven in rotation about a first axis, runs transversely in relation to the base plate, and wherein an output shaft, which is mounted such that it can be rotated about a second axis, runs parallel to the drive shaft, wherein the supporting part has a coordinate system with a x axis and a y axis, wherein, when the supporting part is viewed in the direction of the first axis, a connecting line between the first axis and the second axis forms the x axis of the coordinate system, and wherein the y axis is arranged perpendicularly in relation to connecting line and in relation to the first axis and runs centrally between the first axis and the second axis, wherein a respective segment (A, B, C, D, E, F, G, H) of the supporting part is arranged in each of the four sectors of the coordinate system on the inner side and in each of the four sectors of the coordinate system on the outer side, wherein the supporting part has at least one space diagonal (25, 26), which runs through a segment (E, F) from the outer side and a segment (C, D) on the inner side, the latter segment being located opposite the former segment in relation to the origin of the coordinate system, wherein the origin of the coordinate system is arranged in the base plate between the inner side and the outer side and centrally between the first axis and the second axis, wherein at least one first stiffening structure (67, 70) rises up from the inner side of the base plate in the direction of the space diagonals (25, 26), characterized in that at least one second stiffening structure (60, 61, 62, 65) rises up from the outer side of the base plate in the direction of the same space diagonals (25, 26), and therefore the first stiffening structure (67, 70) and the second stiffening structure (60, 61, 62, 65) form a stiffening element (80, 81) which runs diagonally in space.
A method, comprising subjecting a pea protein composition to high pressure homogenization to obtain a homogenized pea protein composition, wherein the homogenized pea protein composition has a nitrogen solubility index determined by the Kjeldahl nitrogen determination method from the PRC National Standard GB5009.5-2010 that is greater than or equal to 88.0%, and wherein subjecting the pea protein composition to high pressure homogenization comprises subjecting an aqueous fluid containing the pea protein composition to high pressure homogenization, wherein the high pressure homogenization is from 15 MPa to 200 MPa and wherein the fluid has a pH value from 7.2 to 10.0.
A method of transmitting a physical layer protocol data unit, PPDU, over an operating channel in a wireless local area network, WLAN, comprising: identifying a plurality of 20 MHz sub-bands making up the operating channel; identifying which of the plurality of sub-bands are unavailable; generating a bit representation of availability of 20 MHz sub-bands in the operating channel for allocating resource units, RUs, to a single station, the bit representation consisting of a plurality of binary values, each binary value corresponding to an unavailable 20 MHz sub-band or an available 20 MHz sub-band; generating a physical layer protocol data unit, the physical layer protocol data unit comprising a header, the header comprising a U-SIG field; and transmitting the physical layer protocol data unit to a target station; characterized in that: the operating channel comprises one or more 80 MHz sub-blocks; available and unavailable sub-bands are designated for each 80 MHz sub-block of the operating channel separately; each bit representation for each respective separated 80 MHz sub-block consists of four one-bit binary values, each one-bit binary value corresponding to an unavailable 20 MHz sub-band or an available 20 MHz sub-band within the 80 MHz sub-block; the U-SIG field comprises the bit representations for each separated 80 MHz sub-block of the operating channel; the PPDU is a multi-RU PPDU, wherein the allocation of RUs to a single station comprises allocating multiple 242-tone or greater RUs (304, 308) in the available 20 MHz sub-bands to the single station. identifying a plurality of 20 MHz sub-bands making up the operating channel; identifying which of the plurality of sub-bands are unavailable; generating a bit representation of availability of 20 MHz sub-bands in the operating channel for allocating resource units, RUs, to a single station, the bit representation consisting of a plurality of binary values, each binary value corresponding to an unavailable 20 MHz sub-band or an available 20 MHz sub-band; generating a physical layer protocol data unit, the physical layer protocol data unit comprising a header, the header comprising a U-SIG field; and transmitting the physical layer protocol data unit to a target station; the operating channel comprises one or more 80 MHz sub-blocks; available and unavailable sub-bands are designated for each 80 MHz sub-block of the operating channel separately; each bit representation for each respective separated 80 MHz sub-block consists of four one-bit binary values, each one-bit binary value corresponding to an unavailable 20 MHz sub-band or an available 20 MHz sub-band within the 80 MHz sub-block; the U-SIG field comprises the bit representations for each separated 80 MHz sub-block of the operating channel; the PPDU is a multi-RU PPDU, wherein the allocation of RUs to a single station comprises allocating multiple 242-tone or greater RUs (304, 308) in the available 20 MHz sub-bands to the single station.
Torque transmission device, in particular for a motor vehicle, comprising torque input means (2, 24) designed to be rotationally coupled to a crankshaft of an internal combustion engine, torque output means designed to be rotationally coupled to an input shaft of a gearbox and to a rotor of an electric machine, the torque input means (2, 24) being capable of pivoting relative to the torque output means about an axis, said device comprising control means, selectively capable: - in a first operating mode, of rotationally coupling the torque input means (2, 24) and the torque output means via a first torque transfer path having clutch means (11, 12, 18), or - in a second operating mode, of rotationally coupling the torque input means (2, 24) and the torque output means via a second torque transfer path having no clutch means, - in a third operating mode, of rotationally decoupling the torque input means (2, 24) and the torque output means, the control means comprising a clutch release bearing comprising an actuating member which is movable between: - a first axial position corresponding to the first operating mode, and - a second axial position corresponding to the second operating mode, and - a third axial position corresponding to the third operating mode, characterized in that the third axial position is located axially between the first and second axial positions. - in a first operating mode, of rotationally coupling the torque input means (2, 24) and the torque output means via a first torque transfer path having clutch means (11, 12, 18), or - in a second operating mode, of rotationally coupling the torque input means (2, 24) and the torque output means via a second torque transfer path having no clutch means, - in a third operating mode, of rotationally decoupling the torque input means (2, 24) and the torque output means, - a first axial position corresponding to the first operating mode, and - a second axial position corresponding to the second operating mode, and - a third axial position corresponding to the third operating mode,
Method for determining a carrier frequency deviation ( m ·Δ f) in the form of an integer multiple ( m) of the sub-carrier spacing (Δ f) in a phase-modulated OFDM transmission system with mutually uncorrelated OFDM reference symbols ( S n,k) transmitted in each case in adjacent sub-channels ( k, k-1) of a symbol interval ( n), with the following method steps: • for a plurality of symbol intervals ( n) calculation in each case of a correlation spectrum serving as a metric (Λ n ( d)) and depending in each case on an integer displacement factor ( d) from two OFDM reception symbols ( R n,k ·R n,k -1 *) received in adjacent sub-channels ( k,k -1) of a symbol interval ( n) and subjected to complex conjugate multiplication with one another and from two OFDM reference symbols ( S n,k ·S n,k -1 *) transmitted in the adjacent sub-channels ( k,k -1) of the symbol interval ( n) and subjected to complex conjugate multiplication with one another, characterised by the following method steps: • determination of a mean value ( E {Λ n ( d)}) from the calculated correlation spectra (Λ n ( d)) and • identification of the displacement factor ( d̂) associated with the maximum mean value ( E {Λ n ( d̂)}) in each case in the form of an integer multiple ( m) of the sub-carrier spacing (Δ f) in the carrier frequency deviation ( m· Δ f). • for a plurality of symbol intervals ( n) calculation in each case of a correlation spectrum serving as a metric (Λ n ( d)) and depending in each case on an integer displacement factor ( d) from two OFDM reception symbols ( R n,k ·R n,k -1 *) received in adjacent sub-channels ( k,k -1) of a symbol interval ( n) and subjected to complex conjugate multiplication with one another and from two OFDM reference symbols ( S n,k ·S n,k -1 *) transmitted in the adjacent sub-channels ( k,k -1) of the symbol interval ( n) and subjected to complex conjugate multiplication with one another, • determination of a mean value ( E {Λ n ( d)}) from the calculated correlation spectra (Λ n ( d)) and • identification of the displacement factor ( d̂) associated with the maximum mean value ( E {Λ n ( d̂)}) in each case in the form of an integer multiple ( m) of the sub-carrier spacing (Δ f) in the carrier frequency deviation ( m· Δ f).
Method for producing a semiconductor wafer of monocrystalline silicon, comprising in this order the growing of a single crystal of silicon by the CZ method; the dividing of at least one semiconductor wafer of monocrystalline silicon from the single crystal, where the semiconductor wafer consists completely of N region, in which there are no agglomerates of silicon interstitials or vacancies having a diameter of more than 20 nm, and has an oxygen concentration of not less than 5.3 × 10 17 atoms/cm 3 and not more than 5.9 × 10 17 atoms/cm 3 and a nitrogen concentration of not more than 1.0 × 10 12 atoms/cm 3; a first RTA treatment of the semiconductor wafer at a temperature in a first temperature range of not less than 750°C and not more than 1100°C over a period of not less than 10 s and not more than 30 s in a first atmosphere of argon and ammonia in a ratio of not less than 1:2 and not more than 1:0.75; a second RTA treatment of the semiconductor wafer at a temperature in a second temperature range of not less than 1190°C and not more than 1280°C over a period of not less than 20 s and not more than 35 s in a second atmosphere of argon; and a third RTA treatment of the semiconductor wafer at a temperature in a third temperature range of not less than 1160°C and not more than 1180°C over a period of not less than 15 s and not more than 25 s in a third atmosphere of argon and ammonia in a ratio of not less than 8:10 and not more than 3:2. the growing of a single crystal of silicon by the CZ method; the dividing of at least one semiconductor wafer of monocrystalline silicon from the single crystal, where the semiconductor wafer consists completely of N region, in which there are no agglomerates of silicon interstitials or vacancies having a diameter of more than 20 nm, and has an oxygen concentration of not less than 5.3 × 10 17 atoms/cm 3 and not more than 5.9 × 10 17 atoms/cm 3 and a nitrogen concentration of not more than 1.0 × 10 12 atoms/cm 3; a first RTA treatment of the semiconductor wafer at a temperature in a first temperature range of not less than 750°C and not more than 1100°C over a period of not less than 10 s and not more than 30 s in a first atmosphere of argon and ammonia in a ratio of not less than 1:2 and not more than 1:0.75; a second RTA treatment of the semiconductor wafer at a temperature in a second temperature range of not less than 1190°C and not more than 1280°C over a period of not less than 20 s and not more than 35 s in a second atmosphere of argon; and a third RTA treatment of the semiconductor wafer at a temperature in a third temperature range of not less than 1160°C and not more than 1180°C over a period of not less than 15 s and not more than 25 s in a third atmosphere of argon and ammonia in a ratio of not less than 8:10 and not more than 3:2.
A respiratory assistance mask allowing to bring, in the lungs of a patient, respiratory gas from an external source, said mask comprising: - a hollow body, the internal volume of which defines an internal chamber provided with a respiratory gas inlet adapted to be connected to said source; - an opening forming the respiratory gas outlet and which is adapted to be connected to a respiratory tract of said patient; and - a flexible bearing member bordering the contour of said opening and which is adapted to be interposed between the face of said patient and said hollow body, said flexible bearing member being an inflatable bead or a closed pore foam bead, the mask further comprising: - a flexible membrane inserted on said bead and being able to be interposed between said bead and the face of said patient, said flexible membrane having a bigger flexibility that the one of the bead; and, characterized in that the mask comprises a multi-perforated internal skirt inserted, thru one of the two contours thereof, on said bead and surrounded, at least partially, by said flexible membrane, the free contour of said skirt extending in the direction of said internal chamber, so that respiratory gas is adapted to cross the perforations of said skirt, from said inlet, so as to stretch said membrane and apply it tightly against patient's face. - a hollow body, the internal volume of which defines an internal chamber provided with a respiratory gas inlet adapted to be connected to said source; - an opening forming the respiratory gas outlet and which is adapted to be connected to a respiratory tract of said patient; and - a flexible bearing member bordering the contour of said opening and which is adapted to be interposed between the face of said patient and said hollow body, said flexible bearing member being an inflatable bead or a closed pore foam bead, - a flexible membrane inserted on said bead and being able to be interposed between said bead and the face of said patient, said flexible membrane having a bigger flexibility that the one of the bead; and, characterized in that the mask comprises a multi-perforated internal skirt inserted, thru one of the two contours thereof, on said bead and surrounded, at least partially, by said flexible membrane, the free contour of said skirt extending in the direction of said internal chamber, so that respiratory gas is adapted to cross the perforations of said skirt, from said inlet, so as to stretch said membrane and apply it tightly against patient's face. characterized in that the mask comprises a multi-perforated internal skirt inserted, thru one of the two contours thereof, on said bead and surrounded, at least partially, by said flexible membrane, the free contour of said skirt extending in the direction of said internal chamber, so that respiratory gas is adapted to cross the perforations of said skirt, from said inlet, so as to stretch said membrane and apply it tightly against patient's face.