mhurhangee/patent-ind-claim-en huggingface dataset:
A piezoelectric sensor , characterized in that the piezoelectric sensor has an elongated-sheet shape and comprises: a piezoelectric layer containing an elastomer and piezoelectric particles; electrode layers which are disposed with the piezoelectric layer sandwiched between the electrode layers; and a protective layer , wherein a product of Young's modulus and a thickness of the protective layer is larger than a product of Young's modulus and a thickness of the electrode layer adjacent to the protective layer, wherein, when a region in which the electrode layers overlap each other via the piezoelectric layer is set as a pressure sensing region (S), the pressure sensing region (S) has a length of 500 mm or longer in a longitudinal direction thereof, wherein the electrode layers contain an elastomer and flaky conductive materials and are capable of elongating by 10% or more in one direction of plane directions, and when a space between one end portion and the other end portion of the pressure sensing region (S) in the longitudinal direction is set as a measurement zone, an electrical resistance in the measurement zone in the electrode layers is 3,000 Ω or lower, and wherein, when the electrode layers disposed with one piezoelectric layer sandwiched therebetween are set as a first electrode layer and a second electrode layer, the following Expression (I) is satisfied. Young's Modulus of Piezoelectric Layer 11 × Thickness of Piezoelectric Layer 11 ≥ Young's Modulus of First Electrode Layer 12 a × Thickness of First Electrode Layer 12 a + Young's Modulus of Second Electrode Layer 12 b × Thickness of Second Electrode Layer 12 b a piezoelectric layer containing an elastomer and piezoelectric particles; electrode layers which are disposed with the piezoelectric layer sandwiched between the electrode layers; and a protective layer , wherein a product of Young's modulus and a thickness of the protective layer is larger than a product of Young's modulus and a thickness of the electrode layer adjacent to the protective layer, wherein, when a region in which the electrode layers overlap each other via the piezoelectric layer is set as a pressure sensing region (S), the pressure sensing region (S) has a length of 500 mm or longer in a longitudinal direction thereof, wherein the electrode layers contain an elastomer and flaky conductive materials and are capable of elongating by 10% or more in one direction of plane directions, and when a space between one end portion and the other end portion of the pressure sensing region (S) in the longitudinal direction is set as a measurement zone, an electrical resistance in the measurement zone in the electrode layers is 3,000 Ω or lower, and wherein, when the electrode layers disposed with one piezoelectric layer sandwiched therebetween are set as a first electrode layer and a second electrode layer, the following Expression (I) is satisfied. Young's Modulus of Piezoelectric Layer 11 × Thickness of Piezoelectric Layer 11 ≥ Young's Modulus of First Electrode Layer 12 a × Thickness of First Electrode Layer 12 a + Young's Modulus of Second Electrode Layer 12 b × Thickness of Second Electrode Layer 12 b
A crimping drum for a pressing tool for processing strips of interconnected wire ferrules , comprising a housing having a movement axis and a die part arranged thereon, which die part has a nest to accommodate a wire ferrule of the strip , characterized in that the die part is mounted resiliently in a die receptacle of the housing .
An ultrasonic diagnosis device comprising: an ultrasonic probe part that transmits/receives an ultrasonic wave; an image processing unit that generates a tomographic image of a tissue in a test subject based on a signal obtained from the ultrasonic probe part; an abdomen circumference measurement unit that generates a plurality of ellipses corresponding to an abdomen of the test subject from the tomographic image, and measures a circumference of the abdomen; and an output unit that displays a measurement result from the abdomen circumference measurement unit, wherein the abdomen circumference measurement unit comprises an abdomen candidate region detection unit to detect a rectangular region including the abdomen from the tomographic image, wherein the rectangular region is detected by using recognition processing using machine learning, an ellipse fitting unit to fit an ellipse to an abdomen contour in the extracted candidate region, and a measurement unit to measure the circumference of the fitted ellipse. an ultrasonic probe part that transmits/receives an ultrasonic wave; an image processing unit that generates a tomographic image of a tissue in a test subject based on a signal obtained from the ultrasonic probe part; an abdomen circumference measurement unit that generates a plurality of ellipses corresponding to an abdomen of the test subject from the tomographic image, and measures a circumference of the abdomen; and an output unit that displays a measurement result from the abdomen circumference measurement unit, wherein the abdomen circumference measurement unit comprises an abdomen candidate region detection unit to detect a rectangular region including the abdomen from the tomographic image, wherein the rectangular region is detected by using recognition processing using machine learning, an ellipse fitting unit to fit an ellipse to an abdomen contour in the extracted candidate region, and a measurement unit to measure the circumference of the fitted ellipse.
A work vehicle , comprising: a frame , a wheel unit connected with the frame , a working unit connected with the frame , and a power source arranged on the frame to supply power, wherein the work vehicle further comprises: a brake assembly connected with the wheel unit , and a locking assembly , comprising a lock arm to lock the brake assembly , characterized by a starting mechanism , comprising a starting arm connected with the lock arm to drive the lock arm to move when the starting arm is operated to unlock the brake assembly , wherein the brake assembly comprises a brake arm , a connecting portion and a brake wire , the connecting portion is connected with the brake arm and the brake wire is connected with the connecting portion to drive the brake wire to move through the brake arm . a frame , a wheel unit connected with the frame , a working unit connected with the frame , and a power source arranged on the frame to supply power, wherein the work vehicle further comprises: a brake assembly connected with the wheel unit , and a locking assembly , comprising a lock arm to lock the brake assembly , characterized by a starting mechanism , comprising a starting arm connected with the lock arm to drive the lock arm to move when the starting arm is operated to unlock the brake assembly , wherein the brake assembly comprises a brake arm , a connecting portion and a brake wire , the connecting portion is connected with the brake arm and the brake wire is connected with the connecting portion to drive the brake wire to move through the brake arm . a brake assembly connected with the wheel unit , and a locking assembly , comprising a lock arm to lock the brake assembly , characterized by a starting mechanism , comprising a starting arm connected with the lock arm to drive the lock arm to move when the starting arm is operated to unlock the brake assembly , wherein the brake assembly comprises a brake arm , a connecting portion and a brake wire , the connecting portion is connected with the brake arm and the brake wire is connected with the connecting portion to drive the brake wire to move through the brake arm .
Process to prepare paraffins and waxes from a gaseous feed stream comprising hydrogen and carbon monoxide in a Fischer-Tropsch reactor comprising a fixed bed of reduced Fischer-Tropsch catalyst that comprises cobalt as catalytically active metal, said process at least comprises the following steps: (a) adding to the gaseous feed stream a nitrogen-containing compound such that the nitrogen-containing compound is present in the gaseous feed stream in a concentration of up to 10 ppmV to obtain a mixture, wherein the nitrogen-containing compound is a compound selected from ammonia, HCN, NO, amines, nitriles, and a heterocyclic compound containing at least one nitrogen atom as ring member of a heterocyclic ring; (b) feeding the mixture of step (a) to the Fischer-Tropsch reactor to obtain a Fischer-Tropsch product comprising paraffins having from 5 to 300 carbon atoms, wherein the Fischer-Tropsch process in the Fischer-Tropsch reactor is carried out at a temperature between 200 and 250°C and at a pressure between 55 and 100 bara; (c) subjecting the Fischer-Tropsch product of step (b) to a hydrogenation step, thereby obtaining hydrogenated fraction comprising 5 to 300 carbon atoms; (d) separating the hydrogenated Fischer-Tropsch product stream of step (c), thereby obtaining at least a fraction comprising 5 to 9 carbon atoms, a fraction comprising 10 to 17 carbon atoms and a fraction comprising 18 to 300 carbon atoms; (e) separating the hydrogenated fraction comprising 18 to 300 carbon atoms of step (d), thereby obtaining one or more first light waxes having a congealing point in the range of 30 to 75°C and a second heavy wax having a congealing point in the range of 75 to 120°C. (a) adding to the gaseous feed stream a nitrogen-containing compound such that the nitrogen-containing compound is present in the gaseous feed stream in a concentration of up to 10 ppmV to obtain a mixture, wherein the nitrogen-containing compound is a compound selected from ammonia, HCN, NO, amines, nitriles, and a heterocyclic compound containing at least one nitrogen atom as ring member of a heterocyclic ring; (b) feeding the mixture of step (a) to the Fischer-Tropsch reactor to obtain a Fischer-Tropsch product comprising paraffins having from 5 to 300 carbon atoms, wherein the Fischer-Tropsch process in the Fischer-Tropsch reactor is carried out at a temperature between 200 and 250°C and at a pressure between 55 and 100 bara; (c) subjecting the Fischer-Tropsch product of step (b) to a hydrogenation step, thereby obtaining hydrogenated fraction comprising 5 to 300 carbon atoms; (d) separating the hydrogenated Fischer-Tropsch product stream of step (c), thereby obtaining at least a fraction comprising 5 to 9 carbon atoms, a fraction comprising 10 to 17 carbon atoms and a fraction comprising 18 to 300 carbon atoms; (e) separating the hydrogenated fraction comprising 18 to 300 carbon atoms of step (d), thereby obtaining one or more first light waxes having a congealing point in the range of 30 to 75°C and a second heavy wax having a congealing point in the range of 75 to 120°C.
A method for controlling the operation of a gas or air compressor unit, comprising an internal combustion engine , a first turbo charger for generating compressed air for the internal combustion engine and a second turbo charger for generating compressed air, wherein the first turbo charger and the second turbo charger are arranged in an exhaust flow path of the internal combustion engine , wherein a space into which compressed air has been applied by the second turbo charger can be opened by opening a blow-off device , and wherein the method comprises the following steps: - controlling the blow-off device via a pressure regulator ; - monitoring a control pressure effected by the pressure regulator ; and - changing the operating state when the control pressure exceeds a previously defined maximum value in said operating state; wherein the air compressed by the first turbo charger is routed into a combustion chamber of the internal combustion engine ; and wherein the air compressed by the second turbo charger is routed to a main compressor driven by the internal combustion engine in the monitored operating state, which main compressor further compresses the compressed air; characterized in that it comprises the following further steps: - monitoring the pressure of the compressed air generated by the first turbo charger during an operating state of the compressor unit; and - changing the operating state of the compressor unit when the monitored control pressure falls below a previously defined value; wherein the pressure monitored at the first turbo charger falls below the previously defined value when a space, into which compressed air has been applied by the second turbo charger , is closed due to a failure; and wherein the changing of the operating state furthermore comprises a closing of a supply of intake air to the main compressor . - controlling the blow-off device via a pressure regulator ; - monitoring a control pressure effected by the pressure regulator ; and - changing the operating state when the control pressure exceeds a previously defined maximum value in said operating state; - monitoring the pressure of the compressed air generated by the first turbo charger during an operating state of the compressor unit; and - changing the operating state of the compressor unit when the monitored control pressure falls below a previously defined value; wherein the pressure monitored at the first turbo charger falls below the previously defined value when a space, into which compressed air has been applied by the second turbo charger , is closed due to a failure; and wherein the changing of the operating state furthermore comprises a closing of a supply of intake air to the main compressor .
An ion beam chamber fluid delivery system for delivering a fluid onto a substrate in an ion beam system during operation, said system comprising: a chamber comprising an ion beam gun oriented so as to cause ions to impinge the substrate, said chamber further comprising a sealable opening for receiving the substrate and said chamber having a fluid delivery conduit therein for delivering the fluid into the chamber; a transferable substrate stage for holding the substrate, the transferable stage further configured to move at least in part through the sealable opening between an operating position inside the chamber and a payload position at least in part outside the chamber during non-operation, said payload position for receiving and removing said substrate; and a fluid delivery nozzle being affixed to the transferable stage, with an outlet position that is configured to deliver a fluid to a predetermined location on said transferable stage, the fluid delivery nozzle being in fluid communication with the fluid delivery conduit via a nozzle conduit connector that permits the fluid delivery nozzle to remain substantially fixed relative to the transferable stage when the transferable stage is in the operating position; wherein the fluid delivery conduit comprises a conduit engager that is configured to automatically, removably and sealably, engage with said nozzle conduit connector by moving said transferable stage into said operating position from said payload position. a chamber comprising an ion beam gun oriented so as to cause ions to impinge the substrate, said chamber further comprising a sealable opening for receiving the substrate and said chamber having a fluid delivery conduit therein for delivering the fluid into the chamber; a transferable substrate stage for holding the substrate, the transferable stage further configured to move at least in part through the sealable opening between an operating position inside the chamber and a payload position at least in part outside the chamber during non-operation, said payload position for receiving and removing said substrate; and a fluid delivery nozzle being affixed to the transferable stage, with an outlet position that is configured to deliver a fluid to a predetermined location on said transferable stage, the fluid delivery nozzle being in fluid communication with the fluid delivery conduit via a nozzle conduit connector that permits the fluid delivery nozzle to remain substantially fixed relative to the transferable stage when the transferable stage is in the operating position; wherein the fluid delivery conduit comprises a conduit engager that is configured to automatically, removably and sealably, engage with said nozzle conduit connector by moving said transferable stage into said operating position from said payload position.
An apparel item comprising: a first panel of material ; a second panel of material positioned adjacent and interior to the first panel of material so that a first surface of the second panel of material is positioned adjacent to a first surface of the first panel of material , wherein the first panel of material and the second panel of material form at least in part the apparel item ; a trim piece having an outer layer and an inner layer , characterized in that an opening is formed in the outer layer of the trim piece , and wherein a first edge of the first panel of material is affixed to the outer layer of the trim piece , and a first edge of the second panel of material is affixed to the inner layer of the trim piece ; and a pocket panel positioned between at least the first panel of material and the second panel of material , the pocket panel having at least a first edge and a second edge opposite the first edge , wherein the first edge of the pocket panel is affixed to the outer layer of the trim piece adjacent to the opening and the second edge of the pocket panel is affixed to the second panel of material so as to define a pocket space between the pocket panel and the second panel of material , and wherein the opening in the outer layer of the trim piece is in communication with the pocket space .
An exercise management device using a hula hoop , comprising: a hula hoop , wherein the hula hoop comprises: an annular body; a sensor unit comprising (a) a gyro sensor provided at one side of the body to measure an angular velocity, (b) an acceleration sensor for measuring an acceleration, and (c) a gravity sensor for detecting the direction of gravity; and a control unit comprising a micro controller unit for receiving and analyzing a data value detected by the sensor unit and calculating a spinning speed, a spinning direction, and the number of spins to obtain exercise information or transmit the data value, a communication unit having a Bluetooth chip for transmitting the exercise information or the data value to the outside, and a power unit for turning on/off the control unit by supplying or blocking power; and a wireless communication device having a dedicated program installed therein for receiving the exercise information or data value transmitted from the communication unit to display the exercise information or display exercise information obtained by analyzing the data value and calculating the spinning speed, the spinning direction, and the number of spins, characterized in that the dedicated program is adapted to compare and display times or amounts the user exercised respectively in left and right directions, thereby allowing a user to perform balanced exercise in both directions. an annular body; a sensor unit comprising (a) a gyro sensor provided at one side of the body to measure an angular velocity, (b) an acceleration sensor for measuring an acceleration, and (c) a gravity sensor for detecting the direction of gravity; and a control unit comprising a micro controller unit for receiving and analyzing a data value detected by the sensor unit and calculating a spinning speed, a spinning direction, and the number of spins to obtain exercise information or transmit the data value, a communication unit having a Bluetooth chip for transmitting the exercise information or the data value to the outside, and a power unit for turning on/off the control unit by supplying or blocking power; and a wireless communication device having a dedicated program installed therein for receiving the exercise information or data value transmitted from the communication unit to display the exercise information or display exercise information obtained by analyzing the data value and calculating the spinning speed, the spinning direction, and the number of spins, characterized in that the dedicated program is adapted to compare and display times or amounts the user exercised respectively in left and right directions, thereby allowing a user to perform balanced exercise in both directions.
A portable ventilator comprising: a ventilation drive configured to drive ventilation gas from a gas source to a patient; wherein the portable ventilator is configured to removably connect to and disconnect from each of a plurality of hosts such that: when the portable ventilator is not connected to the host the ventilation drive drives ventilation gas from a portable gas source to the patient, and when the portable ventilator is connected to the host the ventilation drive drives ventilation gas to the patient from the source out of the host gas source and the portable gas source which has the highest delivery pressure. a ventilation drive configured to drive ventilation gas from a gas source to a patient; wherein the portable ventilator is configured to removably connect to and disconnect from each of a plurality of hosts such that: when the portable ventilator is not connected to the host the ventilation drive drives ventilation gas from a portable gas source to the patient, and when the portable ventilator is connected to the host the ventilation drive drives ventilation gas to the patient from the source out of the host gas source and the portable gas source which has the highest delivery pressure.
A method of transmitting data over a wireless communications channel, comprising: transmitting a plurality of blocks , each block comprising a plurality of symbols representing said data, and comprising: transmitting said symbols using time packing, such that each symbol in a block overlaps in the time domain with at least one other symbol in the block; and including a null guard interval in each block, in which no symbol or any part of any symbol is transmitted, wherein transmitting said symbols using time packing comprises transmitting said symbols using Faster-than-Nyquist signalling, the method further comprising: applying precoding to input data; and passing the precoded input data to a pulse-shaping filter . transmitting a plurality of blocks , each block comprising a plurality of symbols representing said data, and comprising: transmitting said symbols using time packing, such that each symbol in a block overlaps in the time domain with at least one other symbol in the block; and including a null guard interval in each block, in which no symbol or any part of any symbol is transmitted, transmitting said symbols using time packing, such that each symbol in a block overlaps in the time domain with at least one other symbol in the block; and including a null guard interval in each block, in which no symbol or any part of any symbol is transmitted, wherein transmitting said symbols using time packing comprises transmitting said symbols using Faster-than-Nyquist signalling, the method further comprising: applying precoding to input data; and passing the precoded input data to a pulse-shaping filter . applying precoding to input data; and passing the precoded input data to a pulse-shaping filter .
A feed device for the feed of rubber, in particular solid silicone rubber, as a strand product or bale product into units having screw conveying , e.g. an extruder, comprising a housing , wherein the housing has a cylindrical section over its height and a conical section adjoining the cylindrical section , wherein the cylindrical and conical sections of the housing have a single-part screw conveyor , wherein the single-part screw conveyor is configured as cylindrical in the cylindrical section and as conical in the conical section , characterized in that the conical section has at least two outlet nozzles for connection to the unit having screw conveying . wherein the cylindrical and conical sections of the housing have a single-part screw conveyor , wherein the single-part screw conveyor is configured as cylindrical in the cylindrical section and as conical in the conical section , characterized in that the conical section has at least two outlet nozzles for connection to the unit having screw conveying .