mhurhangee/ep-ind-claims huggingface dataset:
A video decoding device comprising: (a) extracting means (21; 201) for extracting PCM block size information from a bitstream, the PCM block size information indicating a threshold (pcmCodingUnitSize) to be used by PCM header parsing means; (b) determination means (22; 201) for determining the threshold (pcmCodingUnitSize) based on the extracted PCM block size information; (c) the PCM header parsing means (23; 204) for parsing a PCM header from the bitstream with respect to an encoded block, only when said encoded block is prediction mode of intra prediction and a block size of said encoded block is equal to or less than the determined threshold (pcmCodingUnitSize), the PCM header being information indicative of whether said encoded block is a block that has been encoded by PCM-encoding or not; (d) entropy decoding means (24; 204) for parsing transformed data of a prediction error data of an image in the bitstream; (e) PCM decoding means (26; 203) for decoding by PCM decoding PCM data of the image in the bitstream; and (f) decoding control means (27; 202) for controlling the entropy decoding means (24; 204) and the PCM decoding means (26; 203) based on the parsed PCM header, (g) wherein the PCM decoding means (26; 203) performs the decoding operation based on the prediction mode being intra prediction and based on the block size of the encoded block being equal to or less than the determined threshold (pcmCodingUnitSize). (a) extracting means (21; 201) for extracting PCM block size information from a bitstream, the PCM block size information indicating a threshold (pcmCodingUnitSize) to be used by PCM header parsing means; (b) determination means (22; 201) for determining the threshold (pcmCodingUnitSize) based on the extracted PCM block size information; (c) the PCM header parsing means (23; 204) for parsing a PCM header from the bitstream with respect to an encoded block, only when said encoded block is prediction mode of intra prediction and a block size of said encoded block is equal to or less than the determined threshold (pcmCodingUnitSize), the PCM header being information indicative of whether said encoded block is a block that has been encoded by PCM-encoding or not; (d) entropy decoding means (24; 204) for parsing transformed data of a prediction error data of an image in the bitstream; (e) PCM decoding means (26; 203) for decoding by PCM decoding PCM data of the image in the bitstream; and (f) decoding control means (27; 202) for controlling the entropy decoding means (24; 204) and the PCM decoding means (26; 203) based on the parsed PCM header, (g) wherein the PCM decoding means (26; 203) performs the decoding operation based on the prediction mode being intra prediction and based on the block size of the encoded block being equal to or less than the determined threshold (pcmCodingUnitSize).
A high strength steel sheet comprising: a chemical composition containing, in mass%, C: 0.05% to 0.30%, Si: 0.6% to 2.0%, Mn: 1.3% to 3.0%, P: 0.10% or less, S: 0.030% or less, Al: 2.0% or less, N: 0.010% or less, one or more of Ti, Nb, and V: 0.01% to 1.0% each, optionally one or more of Mo, Ta, and W: 0.005% to 0.50% each, optionally one or more of Cr, Ni, and Cu: 0.01% to 1.0% each, optionally Sb: 0.005% to 0.050%, and optionally one or both of Ca and REM: 0.0005% to 0.01% each, with a balance being Fe and incidental impurities; and a microstructure containing a ferrite microstructure of 50% or more in area ratio; and a precipitate with a particle size of less than 20 nm, wherein Fe is precipitated in an amount of 0.04 mass% or more and C* defined by the following Expression and C* p defined by the following Expression meet conditions of the following Expressions to: C* = Ti / 48 + Nb / 93 + V / 51 + Mo / 96 + Ta / 181 + W / 184 × 12 C* p = Ti p / 48 + Nb p / 93 + V p / 51 + Mo p / 96 + Ta p / 181 + W p / 184 × 12 C* ≥ 0.035 − 0.015 ≤ C − C* ≤ 0.03 C* p / C* ≥ 0.3 where denotes a content of an element M in the high strength steel sheet in mass%, and p denotes a content, with respect to the whole high strength steel sheet, of the element M contained in the precipitate with the particle size of less than 20 nm in mass%, and p being 0 in the case where the element M is not contained in the high strength steel sheet. a chemical composition containing, in mass%, C: 0.05% to 0.30%, Si: 0.6% to 2.0%, Mn: 1.3% to 3.0%, P: 0.10% or less, S: 0.030% or less, Al: 2.0% or less, N: 0.010% or less, one or more of Ti, Nb, and V: 0.01% to 1.0% each, optionally one or more of Mo, Ta, and W: 0.005% to 0.50% each, optionally one or more of Cr, Ni, and Cu: 0.01% to 1.0% each, optionally Sb: 0.005% to 0.050%, and optionally one or both of Ca and REM: 0.0005% to 0.01% each, with a balance being Fe and incidental impurities; and a microstructure containing a ferrite microstructure of 50% or more in area ratio; and a precipitate with a particle size of less than 20 nm, wherein Fe is precipitated in an amount of 0.04 mass% or more and C* defined by the following Expression and C* p defined by the following Expression meet conditions of the following Expressions to: C* = Ti / 48 + Nb / 93 + V / 51 + Mo / 96 + Ta / 181 + W / 184 × 12 C* p = Ti p / 48 + Nb p / 93 + V p / 51 + Mo p / 96 + Ta p / 181 + W p / 184 × 12 C* ≥ 0.035 − 0.015 ≤ C − C* ≤ 0.03 C* p / C* ≥ 0.3 where denotes a content of an element M in the high strength steel sheet in mass%, and p denotes a content, with respect to the whole high strength steel sheet, of the element M contained in the precipitate with the particle size of less than 20 nm in mass%, and p being 0 in the case where the element M is not contained in the high strength steel sheet.
System comprising a reactor and a negative pressure production device, wherein the reactor comprises at least a wall section bounding an interior space, which wall section is provided with a lining on its inner surface facing the interior space, characterized in that at least one fluid connection connected to the negative pressure production device and admittable with a negative pressure runs through the wall section to open between the inner surface and the lining, wherein the lining comprises at least two parts (9, 10), which are connected to one another by a connection seam, wherein the fluid connection is arranged in the region of the connection seam, a protection strip is arranged between the connection seam and the inner surface, the lining and/or the wall section in a region of the connection seam comprise a shaping forming a hollow space in which the protective strip is arranged and the protective strip is arranged at a distance from at least one boundary wall of the hollow space, which facilitates the spreading of the negative pressure from the fluid connection.
Compounds of the formula in which A 1 represents nitrogen, A 2 represents -N-R 5, A 3 represents oxygen, A 4 represents =C-H, R 1 represents methyl, ethyl, n-propyl, isopropyl, n-butyl, isobutyl or tert-butyl, R 2a represents hydrogen, R 2b represents one of the rings below: R 3 represents fluoromethyl, difluoromethyl, trifluoromethyl, fluoroethyl, difluoroethyl, trifluoroethyl, tetrafluoroethyl or pentafluoroethyl, R 5 represents methyl, ethyl or isopropyl, n represents 2. A 1 represents nitrogen, A 2 represents -N-R 5, A 3 represents oxygen, A 4 represents =C-H, R 1 represents methyl, ethyl, n-propyl, isopropyl, n-butyl, isobutyl or tert-butyl, R 2a represents hydrogen, R 2b represents one of the rings below: R 3 represents fluoromethyl, difluoromethyl, trifluoromethyl, fluoroethyl, difluoroethyl, trifluoroethyl, tetrafluoroethyl or pentafluoroethyl, R 5 represents methyl, ethyl or isopropyl, n represents 2.
A method of at least partially sealing surfaces of a body of a cellular foam having an initial compression strength, the method comprising the steps of: (a) providing a body of a cellular foam comprising polyethylene terephthalate, the body having opposite surfaces; (b) disposing the body between first pressure elements; (c) in a first pressure applying step at a first temperature above 100°C, applying a first compression pressure to the opposite surfaces by the first pressure elements, the first compression pressure being less than 10% of the initial compression strength, wherein in the first pressure applying step (c) the first compression pressure is from 0.05 to 0.3 MPa; (d) disposing the pressed body between second pressure elements; and (e) in a second pressure applying step at a second temperature at least 25°C lower than the first temperature, applying a second compression pressure to the opposite surfaces, the second compression pressure being less than 15% of the initial compression strength, wherein in the second pressure applying step (e) the second compression pressure is from 0.09 to 0.4 MPa. (a) providing a body of a cellular foam comprising polyethylene terephthalate, the body having opposite surfaces; (b) disposing the body between first pressure elements; (c) in a first pressure applying step at a first temperature above 100°C, applying a first compression pressure to the opposite surfaces by the first pressure elements, the first compression pressure being less than 10% of the initial compression strength, wherein in the first pressure applying step (c) the first compression pressure is from 0.05 to 0.3 MPa; (d) disposing the pressed body between second pressure elements; and (e) in a second pressure applying step at a second temperature at least 25°C lower than the first temperature, applying a second compression pressure to the opposite surfaces, the second compression pressure being less than 15% of the initial compression strength, wherein in the second pressure applying step (e) the second compression pressure is from 0.09 to 0.4 MPa.
A method of operating a multi-mode communications device, the method comprising: tuning a transmitter chain to generate transmission signals having a first RF frequency; tuning a first receiver chain to a second RF frequency, coupled to a first antenna via a duplexer module, to process signals received via the first antenna having the second RF frequency; and tuning a second receiver chain to the first RF frequency, coupled to a second antenna, to process signals received via the second antenna having the first RF frequency; and controlling a switching module to switch between the second receiver chain tuned to the first RF frequency and the first receiver chain tuned to the second RF frequency, said multi-mode communication device being operated to use an output of only one receiver chain at any given time, said switching module being controlled to output a signal from the one of the first and second receiver chains being used at a point in time. tuning a transmitter chain to generate transmission signals having a first RF frequency; tuning a first receiver chain to a second RF frequency, coupled to a first antenna via a duplexer module, to process signals received via the first antenna having the second RF frequency; and tuning a second receiver chain to the first RF frequency, coupled to a second antenna, to process signals received via the second antenna having the first RF frequency; and controlling a switching module to switch between the second receiver chain tuned to the first RF frequency and the first receiver chain tuned to the second RF frequency, said multi-mode communication device being operated to use an output of only one receiver chain at any given time, said switching module being controlled to output a signal from the one of the first and second receiver chains being used at a point in time.
A ventilator arranged to provide breathing support to a patient in either of an EMG controlled mode in which ventilation is controlled based on an EMG signal representative of breathing activity from the patient, or a second ventilation mode not dependent on said EMG signal, the ventilator comprising input means for receiving said EMG signal, a control unit for controlling the ventilation in dependence of said EMG signal in said EMG controlled mode, and registration means for registering the actual breathing support provided from the ventilator to the patient, characterized in that said control unit is arranged to: - determine, in said EMG controlled mode, if there is asynchrony between the EMG signal and the breathing activity and, in case of asynchrony, switch from EMG controlled ventilation to said second ventilation mode not dependent on the EMG signal, or - determine, in said second ventilation mode not dependent on the EMG signal, if there is synchrony between the EMG signal and the breathing activity and, in case of synchrony, switch from the second ventilation mode to EMG controlled ventilation. - determine, in said EMG controlled mode, if there is asynchrony between the EMG signal and the breathing activity and, in case of asynchrony, switch from EMG controlled ventilation to said second ventilation mode not dependent on the EMG signal, or - determine, in said second ventilation mode not dependent on the EMG signal, if there is synchrony between the EMG signal and the breathing activity and, in case of synchrony, switch from the second ventilation mode to EMG controlled ventilation.
An ethylene polymer having: a Mw in a range from 400,000 to 900,000 g/mol; a ratio of Mw/Mn in a range from 70 to 200; a Mz in a range from 1,000,000 to 3,500,000 g/mol and a relaxation time of less than or equal to 100 sec, M w, M n, M z and the relaxation time being measured as defined in the description. a Mw in a range from 400,000 to 900,000 g/mol; a ratio of Mw/Mn in a range from 70 to 200; a Mz in a range from 1,000,000 to 3,500,000 g/mol and a relaxation time of less than or equal to 100 sec, M w, M n, M z and the relaxation time being measured as defined in the description.
Frame-panel formwork element for producing concrete components, comprising a peripheral support frame and a form lining that is fastened to the support frame, the support frame and the form lining being combined to form a pre-assembled unit, a support grid being directly frictionally fastened to the support frame, on which grid the rear side of the form lining rests and is supported, the support grid being in the form of a planar, plate-like grid element that has structural elements between which there is a plurality of through-holes, and the thickness of the support grid being at most half of the thickness of the support frame, characterized in that the peripheral support frame comprises profiled elements that have a width, and the support grid has a maximum mesh size, the maximum mesh size being smaller than the width of the profiled elements.
Clamping device for clamping a tool having a shaft, in order to prepare and/or check and/or clean same, which has a housing comprising a tool holder (66, 60, 56, 50), wherein a clamping means (16, 22) for clamping a tool arranged in the tool holder (66, 60, 56, 50) and a fluid channel for feeding a fluid to the tool are provided in the housing, which channel is formed by a tube (38, 70) extending in the housing, the clamping means have a plurality of clamping jaws for clamping the tool, which are held above a structure, the clamping jaws each have a wedge surface on their outer side, via which they can be actuated by an actuating element, characterised in that the tube (38, 70) has an annular contact surface for the tool, and the tube (38, 70) is axially displaceable or is securely connected, via a flange, to a housing floor of the housing by a screw connection, wherein the clamping jaws can be supported approximately axially on a pressure plate with their end face facing away from the actuating element, wherein the pressure plate is axially displaceable and is supported on a resilient support element on its plate side facing away from the clamping jaws.
Process for the production of epichlorohydrin by dehydrochlorination of dichloropropanol, wherein at least one fraction of the dichloropropanol is produced by chlorination of glycerol and wherein chloroacetone is formed as by-product and which comprises at least one treatment of removal of at least a portion of the chloroacetone formed.
A battery comprising: a battery case which contains a power generating element therein and whose top surface is opened; and a cover made of a metallic plate, which closes the top surface, at which an external terminal comprising a shaft and being exposed to the outside is disposed at the outer surface of the cover via an outside gasket, the cover having an engagement portion which is formed on the cover, the engagement portion having a through hole for the shaft, characterized in that: the engagement portion expands outward and is formed into a shape except a circle, and the outside gasket has a recess to be engaged to the engagement portion. a battery case which contains a power generating element therein and whose top surface is opened; and a cover made of a metallic plate, which closes the top surface, at which an external terminal comprising a shaft and being exposed to the outside is disposed at the outer surface of the cover via an outside gasket, the cover having an engagement portion which is formed on the cover, the engagement portion having a through hole for the shaft, characterized in that: the engagement portion expands outward and is formed into a shape except a circle, and the outside gasket has a recess to be engaged to the engagement portion. the engagement portion expands outward and is formed into a shape except a circle, and the outside gasket has a recess to be engaged to the engagement portion.
A ferritin nanoparticle comprising a chemotherapeutic agent, for use in the treatment of cancer in a patient, wherein chemotherapy-related toxicity of T-cells is prevented, and wherein the patient is suffering from a recurrent cancer, wherein said chemotherapeutic agent is doxorubicin.
A system for controlling an engine, the system comprising: a receiving unit adapted to receive a request signal indicative of a demand for the engine to output a required power level; and a processing unit adapted to generate in response to the request signal a position control signal indicative of a first request for adjusting a present position of a variable geometry mechanism of the engine towards a commanded position to achieve the required power level; characterised in that the processing unit is further adapted to: generate on the basis of the position control signal an acceleration rate control signal indicative of a second request for adjusting an acceleration rate of the engine in accordance with the commanded position of the variable geometry mechanism; and output the position control signal and the acceleration rate control signal to the engine. a receiving unit adapted to receive a request signal indicative of a demand for the engine to output a required power level; and a processing unit adapted to generate in response to the request signal a position control signal indicative of a first request for adjusting a present position of a variable geometry mechanism of the engine towards a commanded position to achieve the required power level; generate on the basis of the position control signal an acceleration rate control signal indicative of a second request for adjusting an acceleration rate of the engine in accordance with the commanded position of the variable geometry mechanism; and output the position control signal and the acceleration rate control signal to the engine.
A water valve assembly (2; 102),comprising: user actuation means (6; 106) to allow actuation of the water valve assembly (2; 102); and control means (8; 108) to allow control and/or adjustment of the temperature of the water being dispensed from the water valve assembly (2; 102); wherein biometric recognition means are provided on or associated with the water valve assembly (2; 102); and characterised in that the biometric recognition means are arranged such that dispensing of water above a pre-determined temperature threshold requires positive or successful recognition by the biometric recognition means, and further characterised in that dispensing of water from the water valve assembly (2; 102) wherein the water is below a pre-determined temperature threshold does not require use of the biometric recognition means when the user actuation means (6; 106) is in an "on" condition. user actuation means (6; 106) to allow actuation of the water valve assembly (2; 102); and control means (8; 108) to allow control and/or adjustment of the temperature of the water being dispensed from the water valve assembly (2; 102); wherein biometric recognition means are provided on or associated with the water valve assembly (2; 102); and characterised in that the biometric recognition means are arranged such that dispensing of water above a pre-determined temperature threshold requires positive or successful recognition by the biometric recognition means, and further characterised in that dispensing of water from the water valve assembly (2; 102) wherein the water is below a pre-determined temperature threshold does not require use of the biometric recognition means when the user actuation means (6; 106) is in an "on" condition.
A device comprising: an encoder configured to: select a left channel or a right channel as a non-reference target channel based on a high-band reference channel indicator; generate a high-band portion of the non-reference target channel; generate a synthesized non-reference high-band channel based on a non-reference high-band excitation corresponding to the non-reference target channel; estimate one or more spectral mapping parameters based on the synthesized non-reference high-band channel and the high-band portion of the non-reference target channel; apply the one or more spectral mapping parameters to the synthesized non-reference high-band channel to generate a spectrally shaped synthesized non-reference high-band channel; and generate an encoded bitstream based on the one or more spectral mapping parameters and the spectrally shaped synthesized non-reference high-band channel; and a transmitter configured to transmit the encoded bitstream to a second device. an encoder configured to: select a left channel or a right channel as a non-reference target channel based on a high-band reference channel indicator; generate a high-band portion of the non-reference target channel; generate a synthesized non-reference high-band channel based on a non-reference high-band excitation corresponding to the non-reference target channel; estimate one or more spectral mapping parameters based on the synthesized non-reference high-band channel and the high-band portion of the non-reference target channel; apply the one or more spectral mapping parameters to the synthesized non-reference high-band channel to generate a spectrally shaped synthesized non-reference high-band channel; and generate an encoded bitstream based on the one or more spectral mapping parameters and the spectrally shaped synthesized non-reference high-band channel; and select a left channel or a right channel as a non-reference target channel based on a high-band reference channel indicator; generate a high-band portion of the non-reference target channel; generate a synthesized non-reference high-band channel based on a non-reference high-band excitation corresponding to the non-reference target channel; estimate one or more spectral mapping parameters based on the synthesized non-reference high-band channel and the high-band portion of the non-reference target channel; apply the one or more spectral mapping parameters to the synthesized non-reference high-band channel to generate a spectrally shaped synthesized non-reference high-band channel; and generate an encoded bitstream based on the one or more spectral mapping parameters and the spectrally shaped synthesized non-reference high-band channel; and a transmitter configured to transmit the encoded bitstream to a second device.