mhurhangee/ep-ind-claims huggingface dataset:
A system for compressing gas, the system comprising: a source of gas; a gas output location; first and second pressure vessels (204,202); first and second gas input lines (302,300) for directing gas from the source of gas respectively to the first and second pressure vessels; first and second gas output lines (306,304) for directing gas respectively from the first and second pressure vessels to the gas output location; a hydraulic system (214,215,210) for moving hydraulic fluid back and forth between the first and second pressure vessels to compress gas in the first and second pressure vessels in an alternating manner, wherein gas is pressurized in the first pressure vessel by directing a first charge of gas from the source of gas into the first pressure vessel through the first gas input line and moving hydraulic fluid from the second pressure vessel to the first pressure vessel to compress the first charge of gas within the first pressure vessel, and wherein gas is pressurized in the second pressure vessel by directing a second charge of gas from the source of gas into the second pressure vessel through the second gas input line and moving hydraulic fluid from the first pressure vessel to the second pressure vessel to compress the second charge of gas within the second pressure vessel; and a heat absorbing media being positioned within the first and second pressure vessels to control an amount the gas increases in temperature during compression; characterized in that the heat absorbing media has a surface area to unit volume ratio that is variable. a source of gas; a gas output location; first and second pressure vessels (204,202); first and second gas input lines (302,300) for directing gas from the source of gas respectively to the first and second pressure vessels; first and second gas output lines (306,304) for directing gas respectively from the first and second pressure vessels to the gas output location; a hydraulic system (214,215,210) for moving hydraulic fluid back and forth between the first and second pressure vessels to compress gas in the first and second pressure vessels in an alternating manner, wherein gas is pressurized in the first pressure vessel by directing a first charge of gas from the source of gas into the first pressure vessel through the first gas input line and moving hydraulic fluid from the second pressure vessel to the first pressure vessel to compress the first charge of gas within the first pressure vessel, and wherein gas is pressurized in the second pressure vessel by directing a second charge of gas from the source of gas into the second pressure vessel through the second gas input line and moving hydraulic fluid from the first pressure vessel to the second pressure vessel to compress the second charge of gas within the second pressure vessel; and a heat absorbing media being positioned within the first and second pressure vessels to control an amount the gas increases in temperature during compression; characterized in that the heat absorbing media has a surface area to unit volume ratio that is variable.
Heating apparatus for heating a steering wheel of a motor vehicle, having an electrical circuit input for connection to an electrical voltage source of the motor vehicle, having an electrical circuit output for connection of a heating element for heating the steering wheel, having a DC voltage converter which is connected between the circuit input and the circuit output and is designed to provide at the circuit output, from an on-board electrical system voltage of the voltage source, an output voltage with a voltage value which is different from the voltage value of the on-board electrical system voltage, and having an electronic control unit for setting a temperature of the steering wheel at a prespecifiable setpoint value (T SET), characterized in that the DC voltage converter has a control connection which is coupled to the control unit, and in that the control unit is designed to set the temperature of the steering wheel by controlling the voltage value of the output voltage which is provided by the DC voltage converter, and in that the heating apparatus comprises switching means, which can be driven by the control unit, for pulse-width modulation of the output voltage, and the control unit is also designed to set the temperature by controlling a duty ratio of the pulse-width modulation.
Use of compound represented by the following general formula, a stereoisomer thereof, and/or a pharmacologically acceptable salt thereof for preventing or ameliorating pigmentation: [wherein: R 1 represents an unsubstituted aromatic group or an aromatic group having any substituent; R 2 represents a hydrogen atom, a linear chain or branched chain alkyl group having a number of carbon atom or atoms of 1 to 4, or an acyl group having a linear or branched alkyl chain having a number of carbon atom or atoms of 1 to 4; and R 3 represents a hydrogen atom or a linear chain or branched chain alkyl group having a number of carbon atom or atoms of 1 to 4.] R 1 represents an unsubstituted aromatic group or an aromatic group having any substituent; R 2 represents a hydrogen atom, a linear chain or branched chain alkyl group having a number of carbon atom or atoms of 1 to 4, or an acyl group having a linear or branched alkyl chain having a number of carbon atom or atoms of 1 to 4; and R 3 represents a hydrogen atom or a linear chain or branched chain alkyl group having a number of carbon atom or atoms of 1 to 4.]
An apparatus for echo control in a parameter domain, comprising: an echo detection module configured to extract parameter domain characteristic parameters of a far-end output signal and a near-end input signal, respectively, through a parameter domain decoding, and detect whether a near-end input signal frame is an echo frame according to the parameter domain characteristic parameters, wherein the parameter domain characteristic parameters comprise a Line Spectrum Frequency, LSF, a fixed codebook gain and an adaptive codebook gain; and a transition module configured to re-quantize the fixed codebook gain, the adaptive codebook gain and an LSF prediction error in the near-end input signal frame when the echo detection module detects the near-end input signal frame as a non-echo frame, and replace the original fixed codebook gain, the original adaptive codebook gain and the original LSF in the near-end input signal frame with the re-quantized fixed codebook gain, the re-quantized adaptive codebook gain and the re-quantized LSF prediction error, respectively. an echo detection module configured to extract parameter domain characteristic parameters of a far-end output signal and a near-end input signal, respectively, through a parameter domain decoding, and detect whether a near-end input signal frame is an echo frame according to the parameter domain characteristic parameters, wherein the parameter domain characteristic parameters comprise a Line Spectrum Frequency, LSF, a fixed codebook gain and an adaptive codebook gain; and a transition module configured to re-quantize the fixed codebook gain, the adaptive codebook gain and an LSF prediction error in the near-end input signal frame when the echo detection module detects the near-end input signal frame as a non-echo frame, and replace the original fixed codebook gain, the original adaptive codebook gain and the original LSF in the near-end input signal frame with the re-quantized fixed codebook gain, the re-quantized adaptive codebook gain and the re-quantized LSF prediction error, respectively.
A sensing device for sensing a physical quantity of a fluid, comprising: - a Mineral Insulated cable with an outer metallic jacket, conductors surrounded by the outer metallic jacket and Magnesium Oxide insulation; - a sensing element configured for sensing the physical quantity and coupled to a sensing end of the Mineral Insulated cable; - a sealing flange element coupled to the outer metallic jacket of the mineral insulated cable; wherein the sensing device further comprises a tube-like element surrounding at least a part of the Mineral Insulated cable between the sealing flange element and the sensing end of the Mineral Insulated cable, the sensing element being located exterior the tube-like element, and a major part of the inner surface of the tube-like element is at a predefined distance from the outer surface of the Mineral Insulated cable forming an air gap between the mineral insulated cable and the tube-like element, such that the tube-like element and air gap functions as a thermal isolator between the fluid and the outer metallic jacket, wherein a small part of the inner surface of an end section of the tube-like closest to the sensing end of the Mineral Insulated cable is pressed by a radially crimp process to the outer surface of the Mineral Insulated cable by means of three or more dimples. - a Mineral Insulated cable with an outer metallic jacket, conductors surrounded by the outer metallic jacket and Magnesium Oxide insulation; - a sensing element configured for sensing the physical quantity and coupled to a sensing end of the Mineral Insulated cable; - a sealing flange element coupled to the outer metallic jacket of the mineral insulated cable;
A lubricating oil composition comprising a major portion of a lubricating base oil and an antioxidant additive comprising: a secondary diarylamine present at 0.1-0.5 mass % in the oil composition, an organo Molybdenum compound chosen as one or more in combination of molybdenum dialkyldithiocarbamate, molybdenum carboxylate, ammonium molybdate and molybdate ester present in the oil composition in an amount sufficient to provide 50 to 350 ppm molybdenum, and an organoammonium tungstate compound present in the oil composition in an amount sufficient to provide 100 to 3000 ppm tungsten. a secondary diarylamine present at 0.1-0.5 mass % in the oil composition, an organo Molybdenum compound chosen as one or more in combination of molybdenum dialkyldithiocarbamate, molybdenum carboxylate, ammonium molybdate and molybdate ester present in the oil composition in an amount sufficient to provide 50 to 350 ppm molybdenum, and an organoammonium tungstate compound present in the oil composition in an amount sufficient to provide 100 to 3000 ppm tungsten.
A method for securing execution of a web application in a non-native execution environment, the method comprising: executing a function of the web application in the non-native execution environment, wherein the web application comprises only a portion of a plurality of execution dependencies required for execution of the web application and wherein the web application comprises one or more partial execution stub PES, functions configured to bridge one or more missing execution dependencies in the plurality of execution dependencies; invoking a PES (102a... 102c) function in the one or more PES functions during execution of the function of the web application, wherein the PES function corresponds to a missing execution dependency in the one or more missing execution dependencies; sending a message comprising current execution information of the web application to a trusted module external to the non-native execution environment via a communication connection between the PES function and the trusted module, the current execution information including an identifier of the PES function and an identifier of the function of the web application, wherein the trusted module is configured to perform a search for the missing execution dependency based at least in part on the identifier of the PES function and the identifier of the function of the web application; and receiving a verification result based on the search from the trusted module via the communication connection between the PES function and the trusted module. executing a function of the web application in the non-native execution environment, wherein the web application comprises only a portion of a plurality of execution dependencies required for execution of the web application and wherein the web application comprises one or more partial execution stub PES, functions configured to bridge one or more missing execution dependencies in the plurality of execution dependencies; invoking a PES (102a... 102c) function in the one or more PES functions during execution of the function of the web application, wherein the PES function corresponds to a missing execution dependency in the one or more missing execution dependencies; sending a message comprising current execution information of the web application to a trusted module external to the non-native execution environment via a communication connection between the PES function and the trusted module, the current execution information including an identifier of the PES function and an identifier of the function of the web application, wherein the trusted module is configured to perform a search for the missing execution dependency based at least in part on the identifier of the PES function and the identifier of the function of the web application; and receiving a verification result based on the search from the trusted module via the communication connection between the PES function and the trusted module.
Method for forming a photovoltaic cell comprising a stack of at least two semi-conducting layers doped according to opposite types of conductivity, including the following steps: a) forming first patterns made of a first conducting material by printing on at least one of the faces of the stack; b) forming second patterns made of an insulating material, by printing on said at least one of the faces of the stack, such that the insulating material is in contact with at least one part of the lateral surfaces of the first patterns and such that the thickness of the second patterns is less than that of the first patterns; and c) forming at least one second conducting material by electrolytic deposition on at least the first patterns. a) forming first patterns made of a first conducting material by printing on at least one of the faces of the stack; b) forming second patterns made of an insulating material, by printing on said at least one of the faces of the stack, such that the insulating material is in contact with at least one part of the lateral surfaces of the first patterns and such that the thickness of the second patterns is less than that of the first patterns; and c) forming at least one second conducting material by electrolytic deposition on at least the first patterns.
Water power plant, which is a water turbine placed in a pipeline whereby the pipeline is a vertical pipe immersed in a sea or an ocean which on the inflow has the shape of a lemniscate and has at least one set of straightening vanes and at least three guide vanes, fixed or adjustable, located at the inflow of a turbine impeller, behind which there is a vane diffusor that changes the direction of water flow from the axial-radial to radial, along the vertical pipe peripheral on its outer side buoyancy chambers in number of at least three and ballast chambers in number of at least three are located on the outer side, preferably at the lower part of the pipe.
A system for surface treating an internal surface of apart, the system comprising: a tank within which the part is locatable; a fluid within the tank and capable of submersing the part when the part is located within the tank; a nozzle submersed in the fluid and configured to generate a stream of cavitated fluid directed in a first direction; and a deflection tool submersed in the fluid and comprising a deflection surface that redirects the stream of cavitated fluid from the first direction to a second direction, wherein the first direction is away from the internal surface of the part and the second direction is toward the internal surface of the part, wherein: the deflection tool is configured to be fixed to the part within a recessed portion of the part and the recessed portion of the part defines the internal surface; the nozzle does not have line-of-sight with the internal surface of the part when the part is located within the tank; and the deflection surface has line-of-sight with the internal surface of the part when the part is located within the tank. a tank within which the part is locatable; a fluid within the tank and capable of submersing the part when the part is located within the tank; a nozzle submersed in the fluid and configured to generate a stream of cavitated fluid directed in a first direction; and a deflection tool submersed in the fluid and comprising a deflection surface that redirects the stream of cavitated fluid from the first direction to a second direction, wherein the first direction is away from the internal surface of the part and the second direction is toward the internal surface of the part, wherein: the deflection tool is configured to be fixed to the part within a recessed portion of the part and the recessed portion of the part defines the internal surface; the nozzle does not have line-of-sight with the internal surface of the part when the part is located within the tank; and the deflection surface has line-of-sight with the internal surface of the part when the part is located within the tank. the deflection tool is configured to be fixed to the part within a recessed portion of the part and the recessed portion of the part defines the internal surface; the nozzle does not have line-of-sight with the internal surface of the part when the part is located within the tank; and the deflection surface has line-of-sight with the internal surface of the part when the part is located within the tank.
A method of storing information related to a capsule on a code support (60a, 60b) that is adapted to be associated with or part of a capsule intended for delivering a beverage in a beverage producing device, the method comprising forming on the code support a first sequence of symbols and a second sequence of symbols, said code being represented on the support so that each symbol is sequentially readable by a reading arrangement of an external reading device while the capsule is driven in rotation along an axis of rotation, wherein the first sequence comprises at least one first preamble sequence of symbols and at least one first data sequence of symbols and the second sequence comprises at least one second preamble sequence of symbols and at least one second data sequence of symbols, the method further comprising: storing data in said first sequence with said at least one first data sequence of symbols; storing data in said second sequence with said at least one second data sequence of symbols; forming said at least one first preamble sequence and said at least one second preamble sequence for determining a position of said data sequences, whereby the at least one first preamble sequence is distinct from the at least one second preamble sequence. storing data in said first sequence with said at least one first data sequence of symbols; storing data in said second sequence with said at least one second data sequence of symbols; forming said at least one first preamble sequence and said at least one second preamble sequence for determining a position of said data sequences, whereby the at least one first preamble sequence is distinct from the at least one second preamble sequence.
A mass spectrometry method for qualitative and quantitative analysis of peptidome in serum based on amino acid sequencing with a tandem mass spectrometry tool with signaling intensities measurement of peptides, characterized in that the method comprises the following steps: a) enrichment of peptides in the analyzed serum sample by incubation of a sample with a citrate-phosphate buffer with pH 3.1-3.6 in water with a purity ≥ 99.9%, wherein the buffer and serum volume ratio is 29:1 and the buffer and serum are mixed at a temperature of range 4 to 8°C to dissociate peptides from highly concentrated serum proteins; b) removing of proteins equal or bigger than 15 kDa from peptide enriched and simultaneously purification of peptides using hydrophilic-lipophilic balanced columns to obtain peptides smaller than 15 kDa; c) washing the hydrophilic-lipophilic balanced columns with high-grade water purity ≥ 99.9% with 0.2% formic acid (v/v) in order to remove the unbound and low-binding peptides from the columns; d) eluting of serum peptides bound to the hydrophilic-lipophilic balanced columns by using water / 80% methanol / 0.2% formic acid (v/v); e) filtrating of the sample through 3 kDa molecular weight filters to collect peptides smaller than 3 kDa; f) providing lyophilization of the obtained peptides by drying the eluted peptides through lyophilization for tandem mass spectrometry analysis, and then sequencing the isolated peptides based on amino acid sequences with a tandem mass spectrometry followed by intensities signaling measurement in studied serum sample in comparison with the matched control serum samples. a) enrichment of peptides in the analyzed serum sample by incubation of a sample with a citrate-phosphate buffer with pH 3.1-3.6 in water with a purity ≥ 99.9%, wherein the buffer and serum volume ratio is 29:1 and the buffer and serum are mixed at a temperature of range 4 to 8°C to dissociate peptides from highly concentrated serum proteins; b) removing of proteins equal or bigger than 15 kDa from peptide enriched and simultaneously purification of peptides using hydrophilic-lipophilic balanced columns to obtain peptides smaller than 15 kDa; c) washing the hydrophilic-lipophilic balanced columns with high-grade water purity ≥ 99.9% with 0.2% formic acid (v/v) in order to remove the unbound and low-binding peptides from the columns; d) eluting of serum peptides bound to the hydrophilic-lipophilic balanced columns by using water / 80% methanol / 0.2% formic acid (v/v); e) filtrating of the sample through 3 kDa molecular weight filters to collect peptides smaller than 3 kDa; f) providing lyophilization of the obtained peptides by drying the eluted peptides through lyophilization for tandem mass spectrometry analysis, and then sequencing the isolated peptides based on amino acid sequences with a tandem mass spectrometry followed by intensities signaling measurement in studied serum sample in comparison with the matched control serum samples.
A system for repairing an abradable material coated on a casing (25, 40) of a gas turbine engine, the system comprising: an articulating guide configured to fit into an access port of the gas turbine engine, the articulating guide comprising a proximal end and a distal end; and a repair tool configured at the distal end of the articulating guide, the repair tool comprising a body having a proximal end and a shaped distal end, the shaped distal end extending away from the body and shaped to trench out an area of the abradable material comprising a defect, wherein the body of the repair tool comprises a wire; and a filler material for filling the trenched out area; characterised in that the system further comprises a heating element configured to heat the wire for heating the abradable material as the shaped distal end trenches out the area of the abradable material comprising the defect. an articulating guide configured to fit into an access port of the gas turbine engine, the articulating guide comprising a proximal end and a distal end; and a repair tool configured at the distal end of the articulating guide, the repair tool comprising a body having a proximal end and a shaped distal end, the shaped distal end extending away from the body and shaped to trench out an area of the abradable material comprising a defect, wherein the body of the repair tool comprises a wire; and a filler material for filling the trenched out area; characterised in that the system further comprises a heating element configured to heat the wire for heating the abradable material as the shaped distal end trenches out the area of the abradable material comprising the defect.