mhurhangee/patent-ind-claim-en huggingface dataset:
A breast cup (110; 610) comprising: a support cup portion (120; 620) comprising an upper-lateral quadrant (210; 622), an upper-medial quadrant (214; 626), a lower-lateral quadrant (212; 624), and a lower-medial quadrant (216; 628); a first gusset expandable from a first configuration to a second configuration, the first gusset (122; 630) secured to the support cup portion (120; 620) such that it extends between at least a portion of the upper-lateral quadrant (210; 622) and a portion of the lower-lateral quadrant (212; 624) of the support cup portion (120; 620); and a second gusset (124; 632) expandable from a first configuration to a second configuration, the second gusset (124; 632) secured to the support cup portion (120; 620) such that it extends between at least a portion of the upper-medial quadrant (214; 626) and a portion of the lower-medial quadrant (216; 628) of the support cup portion (120; 620), wherein the first gusset (122; 630) has a first modulus of elasticity and the second gusset (124; 632) has a second modulus of elasticity, the first modulus of elasticity and the second modulus of elasticity both being less than a third modulus of elasticity of the support cup portion (120; 620).
A peptide combination comprising: a peptide having the amino acid sequence of SEQ ID NO: 1; a peptide having the amino acid sequence of SEQ ID NO: 2; a peptide having the amino acid sequence of SEQ ID NO: 3; a peptide having the amino acid sequence of SEQ ID NO: 4; a peptide having the amino acid sequence of SEQ ID NO: 5; and a peptide having the amino acid sequence of SEQ ID NO: 6. a peptide having the amino acid sequence of SEQ ID NO: 1; a peptide having the amino acid sequence of SEQ ID NO: 2; a peptide having the amino acid sequence of SEQ ID NO: 3; a peptide having the amino acid sequence of SEQ ID NO: 4; a peptide having the amino acid sequence of SEQ ID NO: 5; and a peptide having the amino acid sequence of SEQ ID NO: 6.
A degradable rubber member for downhole tools, comprising a rubber material containing from 0.1 to 20 parts by mass of a degradation accelerator relative to 100 parts by mass of a degradable rubber, the degradation accelerator being an acidic substance, the acidic substance, by breaking a bond of a main chain of a rubber molecule of the degradable rubber, accelerating degradation of the rubber member, wherein the degradable rubber member is one of a seal member, a ball, a ball seat, a degradable protecting member for downhole tools, and an annular molded article being disposed on an outer circumferential surface orthogonal to the direction of a mandrel of a downhole tool.
A method of manufacturing a mold for a diffraction grating light guide plate, the method comprising: preparing a first mask film including first and second openings each formed in an independent region, respectively; attaching the first mask film to one surface of a molding base, opening only the first opening, positioning the molding base with the first mask film attached thereto in a Faraday cage having a mesh part provided on an upper surface thereof, and then forming, by using plasma etching, a first pattern portion in a first region of one surface of the molding base which is exposed through the first opening; and opening only the second opening, and then forming, by using plasma etching, a second pattern portion in a second region of one surface of the molding base which is exposed through the second opening, wherein the first mask film includes a first base and a first adhesive layer provided on one surface of the first base, a glass transition temperature of the first base is 70°C or more and 100°C or less, and adhesive force of the first adhesive layer is 11,6 N/m (30 gf/in) or more and 19,3 N/m (50 gf/in) or less. preparing a first mask film including first and second openings each formed in an independent region, respectively; attaching the first mask film to one surface of a molding base, opening only the first opening, positioning the molding base with the first mask film attached thereto in a Faraday cage having a mesh part provided on an upper surface thereof, and then forming, by using plasma etching, a first pattern portion in a first region of one surface of the molding base which is exposed through the first opening; and opening only the second opening, and then forming, by using plasma etching, a second pattern portion in a second region of one surface of the molding base which is exposed through the second opening, wherein the first mask film includes a first base and a first adhesive layer provided on one surface of the first base, a glass transition temperature of the first base is 70°C or more and 100°C or less, and adhesive force of the first adhesive layer is 11,6 N/m (30 gf/in) or more and 19,3 N/m (50 gf/in) or less.
A medical device for treating a vessel having a nominal (starting) diameter at a treatment site in a mammalian body, the device comprising: an expansion element mounted on a catheter , the expansion element configured to enlarge and contract at a first frequency of 0.1 to 10 Hz; the expansion element capable of being oriented at the treatment site; the expansion element being configured to radially expand with an absence of localized shear loading on the vessel; and the expansion element capable of being cycled at the treatment site at the first frequency between a first diameter (D1n) that is greater than the nominal (starting diameter) and a second diameter that is less than the first diameter (D1n) in a first cycle, wherein the second diameter increases in size during subsequent cycles relative to the second diameter during the first cycle; whereby the nominal (starting) diameter of the treatment site is increased following the treatment and removal of the expansion element. an expansion element mounted on a catheter , the expansion element configured to enlarge and contract at a first frequency of 0.1 to 10 Hz; the expansion element capable of being oriented at the treatment site; the expansion element being configured to radially expand with an absence of localized shear loading on the vessel; and the expansion element capable of being cycled at the treatment site at the first frequency between a first diameter (D1n) that is greater than the nominal (starting diameter) and a second diameter that is less than the first diameter (D1n) in a first cycle, wherein the second diameter increases in size during subsequent cycles relative to the second diameter during the first cycle; whereby the nominal (starting) diameter of the treatment site is increased following the treatment and removal of the expansion element.
An application unit comprising: a downwardly extending frame configured to be positioned in operation between first and second rows of plants in a field; a base coupled to the frame , the base configured to be positioned in proximity to a ground surface while in operation; and a fluid applicator (1532; 1750; 1780; 1800; 1850) for applying fluid to the first and second rows of plants, characterised by the fluid applicator (1532; 1750; 1780; 1800; 1850) comprising a first actuator and a second actuator ; a first applicator arm connected to the first actuator and a second applicator arm connected to the second actuator , each applicator arm coupled to the base and being configured to be actuated by a respective one of the first and second actuators to move the applicator arm from a position between the first and second rows of plants to a position adjacent to the first and second rows of plants during operation of the fluid applicator . a downwardly extending frame configured to be positioned in operation between first and second rows of plants in a field; a base coupled to the frame , the base configured to be positioned in proximity to a ground surface while in operation; and a fluid applicator (1532; 1750; 1780; 1800; 1850) for applying fluid to the first and second rows of plants, characterised by the fluid applicator (1532; 1750; 1780; 1800; 1850) comprising a first actuator and a second actuator ; a first applicator arm connected to the first actuator and a second applicator arm connected to the second actuator , each applicator arm coupled to the base and being configured to be actuated by a respective one of the first and second actuators to move the applicator arm from a position between the first and second rows of plants to a position adjacent to the first and second rows of plants during operation of the fluid applicator .
A sensor comprising: at least one optical fiber ; a sensor head comprising an acoustic detector configured to: receive light that is transmitted downstream through the optical fiber from a first light source ; and reflect the light upstream through the optical fiber upon incidence of acoustic waves due to vibrations caused by the acoustic waves; and characterized in that the sensor further includes at least one fluorescent material within at least one of said sensor head and said at least one optical fiber, said at least one fluorescent material configured to: receive light from a second light source external to said sensor ; and emit visible light in response to the light received from the second light source , and in that said acoustic detector is a diaphragm that vibrates upon incidence of acoustic waves , wherein the vibration causes one or more characteristics of reflected light to be different from the characteristics of received light beam . a sensor head comprising an acoustic detector configured to: receive light that is transmitted downstream through the optical fiber from a first light source ; and reflect the light upstream through the optical fiber upon incidence of acoustic waves due to vibrations caused by the acoustic waves; and receive light that is transmitted downstream through the optical fiber from a first light source ; and reflect the light upstream through the optical fiber upon incidence of acoustic waves due to vibrations caused by the acoustic waves; and characterized in that the sensor further includes at least one fluorescent material within at least one of said sensor head and said at least one optical fiber, said at least one fluorescent material configured to: receive light from a second light source external to said sensor ; and emit visible light in response to the light received from the second light source , receive light from a second light source external to said sensor ; and emit visible light in response to the light received from the second light source , and in that said acoustic detector is a diaphragm that vibrates upon incidence of acoustic waves , wherein the vibration causes one or more characteristics of reflected light to be different from the characteristics of received light beam .
A method for calibration of a transceiver , TRX, comprising a transmitter , TX, and a measurement receiver , MRX, the method comprising: producing a plurality of TX local oscillator, LO, signals having a same frequency and offset in phase by a first LO generator comprising a first frequency doubler and a first frequency divider , the first frequency doubler being configured to receive a voltage controlled oscillator, VCO, signal having a first frequency and generate a first signal fed into the first frequency divider , the first signal having a second frequency that is twice the first frequency; producing a plurality of MRX LO signals having a same frequency and offset in phase by a second LO generator comprising a second frequency doubler and a second frequency divider , the second frequency doubler being configured to receive the VCO signal and generate a second signal fed into the second frequency divider , the second signal having the second frequency; and in a calibration mode, configuring the TX to operate at a first LO frequency of the plurality of TX LO signals, and configuring the MRX to operate at a second LO frequency of the plurality of MRX LO signals equal to the first frequency through disabling the second frequency doubler . producing a plurality of TX local oscillator, LO, signals having a same frequency and offset in phase by a first LO generator comprising a first frequency doubler and a first frequency divider , the first frequency doubler being configured to receive a voltage controlled oscillator, VCO, signal having a first frequency and generate a first signal fed into the first frequency divider , the first signal having a second frequency that is twice the first frequency; producing a plurality of MRX LO signals having a same frequency and offset in phase by a second LO generator comprising a second frequency doubler and a second frequency divider , the second frequency doubler being configured to receive the VCO signal and generate a second signal fed into the second frequency divider , the second signal having the second frequency; and in a calibration mode, configuring the TX to operate at a first LO frequency of the plurality of TX LO signals, and configuring the MRX to operate at a second LO frequency of the plurality of MRX LO signals equal to the first frequency through disabling the second frequency doubler .
Variable cam drive , with an externally toothed camshaft , an internally toothed cam unit , wherein the cam unit is mounted on the camshaft in an axially displaceable manner, a gap , and a lubricant supply device for guiding lubricant into the gap , wherein the lubricant supply device has a passage extending through the cam unit , wherein the passage begins in a lubricant collecting area for supporting the cam unit and ends in the gap , characterized in that the passage begins in a radial bearing surface , wherein residual lubricant from a radial bearing for supporting the camshaft can be guided directly to the toothing between the camshaft and the cam unit in the gap , wherein the gap between the camshaft and the cam unit is arranged in an area of an external toothing of the camshaft and an internal toothing of the cam unit .
A gearbox assembly comprising a gearbox , a drive shaft arranged to be driven by the gearbox and a drive shaft coupling that couples the drive shaft and the gearbox , the gearbox assembly further comprising a gearbox oil cooling assembly for cooling the gearbox , the gearbox oil cooling assembly comprising: a heat exchanger to receive and cool an oil from the gearbox and having an air inlet ; an impeller axially disposed between the heat exchanger and the drive shaft coupling , wherein the impeller is operatively coupled to, and arranged to be rotated by, the drive shaft by being operatively coupled to the drive shaft coupling ; and an exhaust duct operatively coupled to the heat exchanger and disposed radially outwardly around the impeller , wherein the gearbox oil cooling assembly defines an airflow pathway through which air passes through the air inlet , the impeller and through the exhaust duct according to the rotation of the impeller to cool the oil in the heat exchanger , and wherein the drive shaft coupling , the impeller , the exhaust duct , the heat exchanger , and the gearbox are disposed in an axially stacked arrangement, characterized in that the gearbox oil cooling assembly further comprises a first tube and a second tube , wherein the oil is routed to the heat exchanger within the first tube and the oil is returned to the gearbox within the second tube , and wherein the first tube and the second tube are disposed at an internal location relative to the gearbox and the heat exchanger . a heat exchanger to receive and cool an oil from the gearbox and having an air inlet ; an impeller axially disposed between the heat exchanger and the drive shaft coupling , wherein the impeller is operatively coupled to, and arranged to be rotated by, the drive shaft by being operatively coupled to the drive shaft coupling ; and an exhaust duct operatively coupled to the heat exchanger and disposed radially outwardly around the impeller , wherein the gearbox oil cooling assembly defines an airflow pathway through which air passes through the air inlet , the impeller and through the exhaust duct according to the rotation of the impeller to cool the oil in the heat exchanger , and wherein the drive shaft coupling , the impeller , the exhaust duct , the heat exchanger , and the gearbox are disposed in an axially stacked arrangement, characterized in that the gearbox oil cooling assembly further comprises a first tube and a second tube , wherein the oil is routed to the heat exchanger within the first tube and the oil is returned to the gearbox within the second tube , and wherein the first tube and the second tube are disposed at an internal location relative to the gearbox and the heat exchanger .
A medical sensor for measuring a force, pressure, or load parameter, the medical sensor comprising: a first dielectric layer ; a first conductive region overlying the first dielectric layer ; a second conductive region underlying the first dielectric layer ; a second dielectric layer overlying the first conductive region ; a first shield region overlying the second dielectric layer ; a third dielectric layer underlying the second conductive region ; and a second shield region underlying the third dielectric layer ; wherein: the first conductive region and second conductive region are electrically coupled together; the first dielectric layer , the first conductive region , and the second conductive region form a first capacitor; the second dielectric layer , the first conductive region , and the first shield region form a second capacitor; the third dielectric layer , the second conductive region , and the second shield region form a third capacitor; the first shield region and the second shield region are coupled to ground; the first capacitor, the second capacitor, and the third capacitor are coupled mechanically in series; the second capacitor and the third capacitor are coupled electrically in parallel; and the medical sensor is configured such that a change in the force, pressure, or load parameter produces a physical change in the first dielectric layer, the second dielectric layer, and the third dielectric layer. a first dielectric layer ; a first conductive region overlying the first dielectric layer ; a second conductive region underlying the first dielectric layer ; a second dielectric layer overlying the first conductive region ; a first shield region overlying the second dielectric layer ; a third dielectric layer underlying the second conductive region ; and a second shield region underlying the third dielectric layer ; the first conductive region and second conductive region are electrically coupled together; the first dielectric layer , the first conductive region , and the second conductive region form a first capacitor; the second dielectric layer , the first conductive region , and the first shield region form a second capacitor; the third dielectric layer , the second conductive region , and the second shield region form a third capacitor; the first shield region and the second shield region are coupled to ground; the first capacitor, the second capacitor, and the third capacitor are coupled mechanically in series; the second capacitor and the third capacitor are coupled electrically in parallel; and the medical sensor is configured such that a change in the force, pressure, or load parameter produces a physical change in the first dielectric layer, the second dielectric layer, and the third dielectric layer.
A sialon sintered body containing β-sialon and 21R-sialon, characterized in that the sialon sintered body exhibits an X-ray diffraction peak intensity ratio [(I 21R /I A )×100] of 5% or greater and smaller than 25%, wherein I A represents the sum of the peak intensities of the sialon species, and I 21R represents the peak intensity of 21R-sialon; and the sialon sintered body exhibits an X-ray diffraction peak intensity ratio [(I α /I A )×100] of 0% to 15%, wherein I A represents the sum of the peak intensities of the sialon species, and I α represents the peak intensity of α-sialon; wherein the ratios are calculated from the peak intensities of the sialon species obtained by using X-ray diffractometry; and the sialon sintered body has a thermal expansion coefficient of 4.2 ppm/K or less in a range of room temperature to 600°C.
A system intended for measuring water quality in a recirculating shower having the capability of recirculating water and flowing water to waste, depending on water quality, said system being a dockable module system that may be arranged in the drain of a recirculating shower and that comprises a water channel base unit , a sensor module unit for water quality measurement and a water distribution module unit for distribution of water to recirculation, wherein the water channel base unit comprises a channel having one first end arranged for receiving inflowing water and one second end comprising an overflow arrangement which is arranged to send water to waste, said channel also comprising a recirculation drain hole ; wherein the sensor module unit has been attached into a hole of the channel of the water channel based unit during the production of the system and is not intended to be removed from the water channel based unit after having been attached, wherein at least one sensor of the sensor module unit is arranged inside along the channel of the water channel base unit , wherein the water distribution module unit is connectable to and detachable from the recirculation drain hole of the water channel base unit , and wherein the water distribution module unit comprises a water recirculation connection , which is a recirculating tube arranged to suck water from below the channel via said recirculation drain hole , and is connectable to a suction side of a core unit of a recirculating shower so as to allow recirculation of water inside of a recirculating shower. wherein the water channel base unit comprises a channel having one first end arranged for receiving inflowing water and one second end comprising an overflow arrangement which is arranged to send water to waste, said channel also comprising a recirculation drain hole ; wherein the sensor module unit has been attached into a hole of the channel of the water channel based unit during the production of the system and is not intended to be removed from the water channel based unit after having been attached, wherein at least one sensor of the sensor module unit is arranged inside along the channel of the water channel base unit , wherein the water distribution module unit is connectable to and detachable from the recirculation drain hole of the water channel base unit , and wherein the water distribution module unit comprises a water recirculation connection , which is a recirculating tube arranged to suck water from below the channel via said recirculation drain hole , and is connectable to a suction side of a core unit of a recirculating shower so as to allow recirculation of water inside of a recirculating shower.
An environmental control system, comprising: a heat exchanger ; a ram air duct operable to provide cooling ram air to the heat exchanger; and a water extractor operable to extract water from bleed air, the bleed air being air cooled by the heat exchanger; characterised in that the heat exchanger includes at least one nozzle operable to spray water from the water extractor into the ram air duct. a heat exchanger ; a ram air duct operable to provide cooling ram air to the heat exchanger; and a water extractor operable to extract water from bleed air, the bleed air being air cooled by the heat exchanger; characterised in that the heat exchanger includes at least one nozzle operable to spray water from the water extractor into the ram air duct.
Process for the production of polyacrylonitrile by polymerisation of a reaction mixture comprising acrylonitrile in a solution where the solvent is a eutectic system comprising a quaternary ammonium compound and a hydrogen donor.