mhurhangee/ep-ind-claims huggingface dataset:
A clock and detection system that samples an interference signal, comprising: a detector that detects the interference signal generated during frequency sweeping through a scan band of a swept optical signal; a data acquisition system that samples an output of the detector in response to a clock signal (k-clock) after receipt of a start signal (DAQ trig); a tunable clock system that generates the clock signal with a k-clock spectral filter, and the start signal in response to frequencies of the swept optical signal with a sweep start spectral filter; a temperature control system for controlling the temperature of the tunable clock system; and a controller that controls the tunable clock system, wherein the k-clock spectral filter and the sweep start spectral filter are made of different materials and the controller controls the temperature control system to change a sweep start frequency at which the start signal and the frequencies at which the k-clock signals are generated. a detector that detects the interference signal generated during frequency sweeping through a scan band of a swept optical signal; a data acquisition system that samples an output of the detector in response to a clock signal (k-clock) after receipt of a start signal (DAQ trig); a tunable clock system that generates the clock signal with a k-clock spectral filter, and the start signal in response to frequencies of the swept optical signal with a sweep start spectral filter; a temperature control system for controlling the temperature of the tunable clock system; and a controller that controls the tunable clock system, wherein the k-clock spectral filter and the sweep start spectral filter are made of different materials and the controller controls the temperature control system to change a sweep start frequency at which the start signal and the frequencies at which the k-clock signals are generated.
A method for producing rare earth permanent magnet comprising the steps of applying a slurry of a powder in a solvent to sintered magnet bodies of R 1 -Fe-B composition, wherein R 1 is one or more elements selected from Y, Sc and rare earth elements, the powder containing one or more compounds selected from an oxide, fluoride, oxyfluoride, hydroxide and hydride of R 2, wherein R 2 is one or more elements selected from Y, Sc and rare earth elements, drying the slurry to coat the sintered magnet bodies with the powder, and heat treating the coated bodies (1b, 1c) for causing R 2 to be absorbed in the sintered magnet bodies, the method characterized in that it further comprises the steps of: providing a conveyor drum having a plurality of holding pockets circumferentially arranged in its periphery, rotating the conveyor drum while a portion of the drum is immersed in the slurry, placing a sintered magnet body in one holding pocket at a predetermined position of the drum prior to entry into the slurry, so that the sintered magnet body is held in the holding pocket, the sintered magnet body being conveyed along the rotational track of the conveyor drum, immersed in the slurry, then withdrawn from the slurry, and conveyed further whereby the slurry is dried and the sintered magnet body is coated with the powder, recovering the sintered magnet body from the pocket at a predetermined position after the drying treatment and prior to re-entry into the slurry, and subjecting the sintered magnet body to the subsequent heat treatment. providing a conveyor drum having a plurality of holding pockets circumferentially arranged in its periphery, rotating the conveyor drum while a portion of the drum is immersed in the slurry, placing a sintered magnet body in one holding pocket at a predetermined position of the drum prior to entry into the slurry, so that the sintered magnet body is held in the holding pocket, the sintered magnet body being conveyed along the rotational track of the conveyor drum, immersed in the slurry, then withdrawn from the slurry, and conveyed further whereby the slurry is dried and the sintered magnet body is coated with the powder, recovering the sintered magnet body from the pocket at a predetermined position after the drying treatment and prior to re-entry into the slurry, and subjecting the sintered magnet body to the subsequent heat treatment.
A hydrogen environment severity assessment method for assessing, among operating conditions for a rolling device including two rolling members coming into rolling contact with each other and having at least one of the two rolling members being a steel rolling member, hydrogen environment severity, the hydrogen environment severity being an index representing magnitude of influence exerted by hydrogen, characterised by: a measurement step of measuring the amount of room temperature non-diffusible hydrogen contained in a rolling fatigue region, the rolling fatigue region being a region where rolling fatigue has been produced by rolling contact, within the steel rolling member of the rolling device operated under the operating conditions; and an assessment step of assessing the hydrogen environment severity, based on a measurement result in the measurement step, wherein in the assessment step, the method calculates an increase rate of the amount of room temperature non-diffusible hydrogen contained in a rolling fatigue region of the steel rolling member during operation of the rolling device, based on the amount of the room temperature non-diffusible hydrogen measured in the measurement step and assesses the hydrogen environment severity, based on the calculation result. a measurement step of measuring the amount of room temperature non-diffusible hydrogen contained in a rolling fatigue region, the rolling fatigue region being a region where rolling fatigue has been produced by rolling contact, within the steel rolling member of the rolling device operated under the operating conditions; and an assessment step of assessing the hydrogen environment severity, based on a measurement result in the measurement step, wherein in the assessment step, the method calculates an increase rate of the amount of room temperature non-diffusible hydrogen contained in a rolling fatigue region of the steel rolling member during operation of the rolling device, based on the amount of the room temperature non-diffusible hydrogen measured in the measurement step and assesses the hydrogen environment severity, based on the calculation result.
Method for construction of double weaves with an upper fabric and an under fabric on a standard Jacquard loom or on a dobby loom, showing on both sides their separate individuality, for which a) in the first step every surface will get one individuality for the upper fabric and one individuality for the under fabric and will be prepared on a computer with a design program, preferably on a Jacquard design program. b) in a second step both individualities will be treated on the same size or according to the demand of upper- and underwarp. c) in the third step both individualities will be filled with the suitable bindings after the technical treatment floats will be deleted and after that, the individuality of the underfabric will be copied to the individuality of the upper fabric. d) in a fourth step there will be added the warp float, warp upperside and warp underside as well as the tied and the untied points according to the demands of the individualities of face fabic and backside fabric. e) in a fifth step, the computer created data will be sent for the production of the double face fabric to the loom, f) where the kind and/or the density of the yarns from the individuality of the upperside will be different to the kind and/or the density to the individuality of the underside. a) in the first step every surface will get one individuality for the upper fabric and one individuality for the under fabric and will be prepared on a computer with a design program, preferably on a Jacquard design program. b) in a second step both individualities will be treated on the same size or according to the demand of upper- and underwarp. c) in the third step both individualities will be filled with the suitable bindings after the technical treatment floats will be deleted and after that, the individuality of the underfabric will be copied to the individuality of the upper fabric. d) in a fourth step there will be added the warp float, warp upperside and warp underside as well as the tied and the untied points according to the demands of the individualities of face fabic and backside fabric. e) in a fifth step, the computer created data will be sent for the production of the double face fabric to the loom, f) where the kind and/or the density of the yarns from the individuality of the upperside will be different to the kind and/or the density to the individuality of the underside.
Method of managing a first interconnection between a first printed circuit card and a second printed circuit card in a computerized infrastructure, said first interconnection including a plurality of interconnection links, said first printed circuit card and said second printed circuit card being further interconnected by a second interconnection, each of the first and of the second printed circuit card (1, 2) including - a first connection interface (11, 21) configured to manage the first interconnection; - a second connection interface (13, 23) configured to manage the second interconnection; - a processor (12, 22) configured to execute predefined tasks; said method comprising the following steps - detection of the occurrence of a breakdown in a link of the first interconnection by the first connection interface of the first printed circuit card or by the first connection interface of the second printed circuit card; - sharing, through the second interconnection, between the first printed circuit card and the second printed circuit card of the information of occurrence of the breakdown in a link of the first interconnection; - selection, by the second connection interface of the first printed circuit card and by the second connection interface of the second printed circuit card, of a fallback solution from among a predefined list of fallback solutions in response to said breakdown; - application, by the processor of the first printed circuit card, of the selected fallback solution to the first interconnection; - application, by the processor of the second printed circuit card, of the selected fallback solution to the first interconnection; - deletion of the applied fallback solution from the predefined list of fallback solutions. - reinitialization of the first interconnection. - a first connection interface (11, 21) configured to manage the first interconnection; - a second connection interface (13, 23) configured to manage the second interconnection; - a processor (12, 22) configured to execute predefined tasks; - detection of the occurrence of a breakdown in a link of the first interconnection by the first connection interface of the first printed circuit card or by the first connection interface of the second printed circuit card; - sharing, through the second interconnection, between the first printed circuit card and the second printed circuit card of the information of occurrence of the breakdown in a link of the first interconnection; - selection, by the second connection interface of the first printed circuit card and by the second connection interface of the second printed circuit card, of a fallback solution from among a predefined list of fallback solutions in response to said breakdown; - application, by the processor of the first printed circuit card, of the selected fallback solution to the first interconnection; - application, by the processor of the second printed circuit card, of the selected fallback solution to the first interconnection; - deletion of the applied fallback solution from the predefined list of fallback solutions. - reinitialization of the first interconnection.
An industrial fabric including a plurality of yarns (31, 32) made of polymers and extending in warp and weft directions and woven into a twill weave structure, characterized in that said yarns include a plurality of multifilament yarns, each of said multifilament yarns having a plurality of monofilament fibers, said twill weave structure including 7.87 to 78.7 monofilament fibers per mm (200 to 2000 per inch) measured in either one of the warp and weft directions, a degree of fineness of each of said monofilament fibers ranging from 5.56 tex to 55. 6 tex (50 deniers to 500 deniers).
A gas turbine engine comprising a gearbox, the gearbox comprising a sun gear, an annulus gear, a plurality of planet gears and a carrier, each planet gear being rotatably mounted in the carrier by at least one bearing, the sun gear meshing with the planet gears and the planet gears meshing with the annulus gear, the sun gear, the planet gears and the annulus gear comprising gear teeth, the annulus gear having a length in the axial direction and an axially forward end and an axially rearward end characterised in that the annulus gear is resiliently mounted to a static supporting structure at both its axially forward and axially rearward ends, and wherein the static supporting structure comprises a portion radially outside the annulus gear and separated from the annulus gear by a cavity (154,254) configured to receive a damping volume of hydraulic fluid.
A shuffling system, comprising: a first shuffling device which shuffles a card set made up of multiple cards based on a first random numerical value output from a first random number generator; and a second shuffling device which shuffles the card set shuffled by the first shuffling device based on a second random numerical value output by a second random number generator, wherein the first random numerical value is output from a first random number generator based on a command from a first processor connected to the first shuffling device, and wherein the second random numerical value is output from the second random number generator based on a command from a second processor connected to the second shuffling device, wherein the first processor and the second processor are independent from another. a first shuffling device which shuffles a card set made up of multiple cards based on a first random numerical value output from a first random number generator; and a second shuffling device which shuffles the card set shuffled by the first shuffling device based on a second random numerical value output by a second random number generator, wherein the first random numerical value is output from a first random number generator based on a command from a first processor connected to the first shuffling device, and wherein the second random numerical value is output from the second random number generator based on a command from a second processor connected to the second shuffling device, wherein the first processor and the second processor are independent from another.
A method for forming a helix rope for a trawl, the helix rope including a strength member core surrounded by a braided sheath, formed of multiple strands, the method comprising the steps of: a) providing a rope having said strength member core and said braided sheath; characterized by b) situating upon a portion of the braided sheath a bead of semi-liquid material that hardens into a helixing strand and forming the helixing strand with a footed shape (908, 909, 909"), namely its cross-sectional shape being asymmetrical having a portion being expanded so as to provide a greater surface area for adherence to the external surface of the braided sheath. a) providing a rope having said strength member core and said braided sheath; characterized by b) situating upon a portion of the braided sheath a bead of semi-liquid material that hardens into a helixing strand and forming the helixing strand with a footed shape (908, 909, 909"), namely its cross-sectional shape being asymmetrical having a portion being expanded so as to provide a greater surface area for adherence to the external surface of the braided sheath.
A flame retardant resin composition, comprising: 100 parts by weight of a blend resin composition including a styrene copolymer and a polyester elastomer; 1 to 30 parts by weight of an epoxy resin; and 1 to 30 parts by weight of a phosphor-based flame retardant agent, wherein the blend resin composition including the styrene copolymer and the polyester elastomer includes at least one styrene copolymer and at least one polyester elastomer in a mixing ratio of 20 to 60 parts by weight: 40 to 80 parts by weight, wherein the polyester elastomer is a thermoplastic polymer block obtained by random block copolymerization of (i) a crystalline hard segment and (ii) a soft segment, wherein (i) the crystalline hard segment comprises a polyester compound comprising an ester group formed by condensation reaction of an aromatic dicarboxylic acid and a derivative thereof with an aliphatic diol, or an ester group formed by condensation reaction of an aromatic dicarboxylic acid derivative with an aliphatic diol, as a main component, wherein (ii) the soft segment comprises a polyalkylene oxide compound having an ether group formed by addition reaction, as a main component, and wherein the epoxy resin comprises a four-functional resin compound represented by the following Formula 2: in the above Formula 2, X is a linear chain or branched chain alkyl group having 1 to 30 carbon atoms, or a linear chain or branched chain alkyl group having 1 to 30 carbon atoms and including an oxygen atom or a nitrogen atom. 100 parts by weight of a blend resin composition including a styrene copolymer and a polyester elastomer; 1 to 30 parts by weight of an epoxy resin; and 1 to 30 parts by weight of a phosphor-based flame retardant agent,
A method of controlling a moving robot, the method comprising: moving based on a map including a plurality of regions; acquiring images from the plurality of regions through an image acquisition unit during the moving; sequentially generating nodes (n1, n2, n3, n4) along a movement path during the moving, wherein each node corresponds to a respective position in a traveling section of the moving robot; extracting, at each node, feature information, wherein the feature information is a descriptor which is based on feature points; characterised by extracting, at each node, region feature information including a set of probability values of a recognition result of a region and a recognition result of an object based on an image acquired at the node; and storing the extracted region feature information in node information in connection with position information when a corresponding image is acquired, wherein the node information includes identification information, node coordinate information, the feature information and the region feature information of the corresponding node. moving based on a map including a plurality of regions; acquiring images from the plurality of regions through an image acquisition unit during the moving; sequentially generating nodes (n1, n2, n3, n4) along a movement path during the moving, wherein each node corresponds to a respective position in a traveling section of the moving robot; extracting, at each node, feature information, wherein the feature information is a descriptor which is based on feature points; characterised by extracting, at each node, region feature information including a set of probability values of a recognition result of a region and a recognition result of an object based on an image acquired at the node; and storing the extracted region feature information in node information in connection with position information when a corresponding image is acquired, wherein the node information includes identification information, node coordinate information, the feature information and the region feature information of the corresponding node.
An isolated monoclonal human antibody, or antigen binding portion thereof, that specifically binds to Clostridium difficile ( C. difficile) toxin B, wherein the antibody or the antigen binding portion thereof comprises a heavy chain variable region comprising the amino acid sequence shown in SEQ ID NO: 54 and a light chain variable region comprising the amino acid sequence shown in SEQ ID NO: 58.
A data logging apparatus for use in a wellbore of a fluid production well for detecting environmental conditions in the wellbore, the data logging apparatus comprising: a forward portion for guiding the data logging apparatus through the wellbore of the fluid production well; an elongated body having a first end and a second end and including electronic circuitry for receiving data from at least one sensor provided on the data logging apparatus, an elongated shaft having a longitudinal axis and a first end connected to the forward portion, and a second end connected to the first end of the elongated body; a propulsion assembly connected to at least one of the first end and the second end of the elongated body for self-propelling the data logging apparatus through the fluid production well, wherein the propulsion assembly includes an electric motor for rotating a shaft coupled to a propeller, wherein the data logging apparatus is characterized by further comprising a counter-spin assembly rotatably secured to the elongated shaft, wherein the counter-spin assembly includes a plurality of arms extending substantially normal to the longitudinal axis of the elongated shaft. a forward portion for guiding the data logging apparatus through the wellbore of the fluid production well; an elongated body having a first end and a second end and including electronic circuitry for receiving data from at least one sensor provided on the data logging apparatus, an elongated shaft having a longitudinal axis and a first end connected to the forward portion, and a second end connected to the first end of the elongated body; a propulsion assembly connected to at least one of the first end and the second end of the elongated body for self-propelling the data logging apparatus through the fluid production well, wherein the propulsion assembly includes an electric motor for rotating a shaft coupled to a propeller, wherein the data logging apparatus is characterized by further comprising a counter-spin assembly rotatably secured to the elongated shaft, wherein the counter-spin assembly includes a plurality of arms extending substantially normal to the longitudinal axis of the elongated shaft.
Peritoneal dialysis machine, comprising the following components: at least one receptacle, preferably a bag to receive fresh or used dialysate, at least one tubing set for conducting dialysate, and at least one patient catheter for the inflow and/or outflow of dialysate into or from the patient's abdominal cavity, wherein at least one of the components comprises at least one sensor which is configured for measuring at least one parameter value of the fluid located inside the component, and which is also configured to transmit the measured parameter value to at least one receiver, wherein the peritoneal dialysis machine comprises at least one receiver which is configured to receive the one or more parameter values determined by the one or more sensors, and the peritoneal dialysis machine comprises at least one evaluation unit, wherein the evaluation unit is configured to control or regulate the operation of the peritoneal dialysis machine depending on the one or more parameter values, wherein the evaluation unit is configured to control or regulate the operation of the dialysis machine depending on parameter values originating from one or more further sensors not in communication with the one or more components, characterized in that the sensor is configured to transmit the at least one parameter value of the fluid located in the component wirelessly and continuously to at least one receiver, wherein the receiver is not part of the dialysis machine, but an external terminal device, in particular a mobile terminal device such as a smartphone or tablet.