mhurhangee/patent-ind-claim-en huggingface dataset:
A breathable barrier fabric comprising: a first outer spunbond layer comprising thermoplastic bicomponent fibers; an inner monolithic film layer made from a breathable polymer; and a second outer spunbond layer comprising thermoplastic bicomponent fibers; the first outer spunbond layer and the second outer spunbond layer each having an inner surface bonded to a surface of the film layer and an outer glazed surface where the thermoplastic bicomponent fibers are at least partially flattened; the breathable barrier fabric having a particle emission rate of less than 20,000 particles per minute for particles with a particle size of at least 0.3μm and less than 12,000 particles per minute for particles with a particle size of at least 0.5 μm measured by the Helmke drum test method for a coverall according to IEST-RP-CC003.4. a first outer spunbond layer comprising thermoplastic bicomponent fibers; an inner monolithic film layer made from a breathable polymer; and a second outer spunbond layer comprising thermoplastic bicomponent fibers; the first outer spunbond layer and the second outer spunbond layer each having an inner surface bonded to a surface of the film layer and an outer glazed surface where the thermoplastic bicomponent fibers are at least partially flattened; the breathable barrier fabric having a particle emission rate of less than 20,000 particles per minute for particles with a particle size of at least 0.3μm and less than 12,000 particles per minute for particles with a particle size of at least 0.5 μm measured by the Helmke drum test method for a coverall according to IEST-RP-CC003.4.
A transition duct for a can combustor of a gas turbine assembly for power plant; the transition duct being a tubular assembly comprising a first end configured for being coupled to a combustion chamber of the can combustor and a second end configured for being coupled to a turbine of the gas turbine assembly ; the transition duct comprising: - an inner tubular body having an inner surface in contact with the hot gas (M) and an outer surface ; - an outer tubular body having an inner surface and an outer surface in contact with cooling air (C); wherein a gap is present between the inner tubular body and the outer tubular body forming a cooling channel defined by the outer surface of the inner tubular body and the inner surface of the outer tubular body ; wherein the outer tubular body is provided with a plurality of holes allowing cooling air (C) to enter the cooling channel ; wherein the outer surface of the inner tubular body is provided with a plurality of ribs ; wherein a first plurality of ribs is provided, these ribs being parallel to each other and extending on the outer surface of the inner tubular body along a first direction; wherein a second plurality of ribs is provided, these being parallel to each other and extending on the outer surface of the inner tubular body along a second direction; wherein the ribs of the first plurality of ribs have a height greater than the ribs of the second plurality of ribs . - an inner tubular body having an inner surface in contact with the hot gas (M) and an outer surface ; - an outer tubular body having an inner surface and an outer surface in contact with cooling air (C); wherein a gap is present between the inner tubular body and the outer tubular body forming a cooling channel defined by the outer surface of the inner tubular body and the inner surface of the outer tubular body ; wherein the outer tubular body is provided with a plurality of holes allowing cooling air (C) to enter the cooling channel ; wherein the outer surface of the inner tubular body is provided with a plurality of ribs ; wherein a first plurality of ribs is provided, these ribs being parallel to each other and extending on the outer surface of the inner tubular body along a first direction; wherein a second plurality of ribs is provided, these being parallel to each other and extending on the outer surface of the inner tubular body along a second direction; wherein the ribs of the first plurality of ribs have a height greater than the ribs of the second plurality of ribs .
An image capturing unit, comprising: a first image sensor comprising first pixels that comprise a first photoelectric conversion unit and a second photoelectric conversion unit that are arranged in a first direction and photoelectrically convert incident light; and a second image sensor comprising second pixels that comprise a third photoelectric conversion unit and a fourth photoelectric conversion unit that are arranged in a second direction that is different from the first direction and photoelectrically convert light that has passed through the first pixel. a first image sensor comprising first pixels that comprise a first photoelectric conversion unit and a second photoelectric conversion unit that are arranged in a first direction and photoelectrically convert incident light; and a second image sensor comprising second pixels that comprise a third photoelectric conversion unit and a fourth photoelectric conversion unit that are arranged in a second direction that is different from the first direction and photoelectrically convert light that has passed through the first pixel.
A method of designing a primer oligonucleotide, the primer oligonucleotide comprising from 5' to 3': i) a first region comprising a self-complementary sequence comprising from 5' to 3' the reverse complement of a nicking enzyme recognition sequence, a palindromic sequence, and a nicking enzyme recognition sequence, and ii) a second region at least 16 nucleotides long that specifically binds to a complementary region on a target nucleic acid molecule, wherein the second region comprises one or more 2' modified nucleotides; the method comprising: a) selecting the second region of said primer oligonucleotide, so that the ΔG for a double-stranded primer-target hybrid formed by the hybridization of the second region and the target nucleic acid molecule is at least 62.76 kJ/mol (15 kcal/mol) lower than the ΔG of a self-dimer comprising the second region of the primer; and b) selecting a first region of said primer oligonucleotide, so that the ΔG for a homodimer formed by hybridization of the self-complementary first region of two primer oligonucleotide molecules is at least 15 kcal/mol lower than the ΔG of a self-dimer comprising the second region of the primer oligonucleotide. i) a first region comprising a self-complementary sequence comprising from 5' to 3' the reverse complement of a nicking enzyme recognition sequence, a palindromic sequence, and a nicking enzyme recognition sequence, and ii) a second region at least 16 nucleotides long that specifically binds to a complementary region on a target nucleic acid molecule, wherein the second region comprises one or more 2' modified nucleotides; a) selecting the second region of said primer oligonucleotide, so that the ΔG for a double-stranded primer-target hybrid formed by the hybridization of the second region and the target nucleic acid molecule is at least 62.76 kJ/mol (15 kcal/mol) lower than the ΔG of a self-dimer comprising the second region of the primer; and b) selecting a first region of said primer oligonucleotide, so that the ΔG for a homodimer formed by hybridization of the self-complementary first region of two primer oligonucleotide molecules is at least 15 kcal/mol lower than the ΔG of a self-dimer comprising the second region of the primer oligonucleotide.
A device for packaging and dispensing a product, generally a liquid, semi-fluid or suspended product, comprising: - a container intended to contain the product ; - a dispensing accessory equipped with a mouthpiece and actuatable to dispense said product in the form of doses or determined drops , preferably in the form of clean or sterile calibrated drops; - a dosing chamber for storing a predetermined amount of the product ; and - one end belonging to the mouthpiece , where a central channel is formed to communicate with the dosing chamber in an actuated state of the dispensing accessory, allowing to expel the dose or the determined drop , characterized in that the mouthpiece further includes one or more lateral channel(s) opening into the central channel and able to circulate air transversely into the central channel and/or allow a blowing of a residual drop present at said end after expulsion of the dose or the determined drop . - a container intended to contain the product ; - a dispensing accessory equipped with a mouthpiece and actuatable to dispense said product in the form of doses or determined drops , preferably in the form of clean or sterile calibrated drops; - a dosing chamber for storing a predetermined amount of the product ; and - one end belonging to the mouthpiece , where a central channel is formed to communicate with the dosing chamber in an actuated state of the dispensing accessory, allowing to expel the dose or the determined drop ,
A gamma radiation detector comprising: a plurality of scintillator elements (101 1..n , 201 1..n , 301 1..n ); a planar optical detector array ; a pinhole collimator comprising a pinhole aperture ; wherein each scintillator element includes a gamma radiation receiving face (101' 1..n , 201' 1..n , 301' 1..n ) and an opposing scintillation light output face (101" 1..n , 201" 1..n , 301" 1..n ), the gamma radiation receiving face of each scintillator element being arranged to face the pinhole aperture for generating scintillation light in response to gamma radiation received from the pinhole aperture; and wherein the scintillation light output face (101" 1..n , 201" 1..n , 301" 1..n ) of each of the plurality of scintillator elements are in optical communication with the planar optical detector array ; characterized in that the plurality of scintillator elements are arranged in a plurality of groups (105 a..z , 205 a..z , 305 a..z ); each group comprising multiple scintillator elements and each group having a group axis (106 a..z , 206 a..z , 306 a..z ) that is aligned with the pinhole aperture and that is perpendicular to the radiation receiving face of each of the scintillator elements in each group. a plurality of scintillator elements (101 1..n , 201 1..n , 301 1..n ); a planar optical detector array ; a pinhole collimator comprising a pinhole aperture ; wherein each scintillator element includes a gamma radiation receiving face (101' 1..n , 201' 1..n , 301' 1..n ) and an opposing scintillation light output face (101" 1..n , 201" 1..n , 301" 1..n ), the gamma radiation receiving face of each scintillator element being arranged to face the pinhole aperture for generating scintillation light in response to gamma radiation received from the pinhole aperture; and wherein the scintillation light output face (101" 1..n , 201" 1..n , 301" 1..n ) of each of the plurality of scintillator elements are in optical communication with the planar optical detector array ; characterized in that the plurality of scintillator elements are arranged in a plurality of groups (105 a..z , 205 a..z , 305 a..z ); each group comprising multiple scintillator elements and each group having a group axis (106 a..z , 206 a..z , 306 a..z ) that is aligned with the pinhole aperture and that is perpendicular to the radiation receiving face of each of the scintillator elements in each group.
Process for retanning leather comprising the steps of: a) providing tanned or pre-tanned leather b) treating the tanned leather of step a) with a composition comprising expanded hollow microspheres, preferably as an aqueous composition, the expanded hollow microspheres have a true density of from 0.01 to 0.10 g/cm 3 (25°C), determined with a helium pycnometer or as the quotient of the median mass of the expanded hollow microspheres with the median volume of the expanded hollow microspheres, and/or a bulk density of the dry powder of 0.005 to 0.06 g/cm 3 (25°C), determined by measuring the mass of a defined volume of dry powder according to ISO 8460, section 1, c) drying, whereby the temperature of the leather during drying does not exceed 75 °C. a) providing tanned or pre-tanned leather b) treating the tanned leather of step a) with a composition comprising expanded hollow microspheres, preferably as an aqueous composition, the expanded hollow microspheres have a true density of from 0.01 to 0.10 g/cm 3 (25°C), determined with a helium pycnometer or as the quotient of the median mass of the expanded hollow microspheres with the median volume of the expanded hollow microspheres, and/or a bulk density of the dry powder of 0.005 to 0.06 g/cm 3 (25°C), determined by measuring the mass of a defined volume of dry powder according to ISO 8460, section 1, c) drying, whereby the temperature of the leather during drying does not exceed 75 °C.
A robot system , comprising: a manipulator configured to receive a manipulating instruction from an operator; a slave arm having a plurality of joints (JT1, JT2, JT3, JT4, JT5, JT6); and a control device configured to control operation of the slave arm , characterized in that the control device is configured, while the slave arm is operating at a speed equal to or higher than a first given preset threshold, even when an operational instruction value for correcting the operation of the slave arm is inputted from the manipulator during an automatic operation of the slave arm , to prevent the correction of the operation of the slave arm . a manipulator configured to receive a manipulating instruction from an operator; a slave arm having a plurality of joints (JT1, JT2, JT3, JT4, JT5, JT6); and a control device configured to control operation of the slave arm , characterized in that the control device is configured, while the slave arm is operating at a speed equal to or higher than a first given preset threshold, even when an operational instruction value for correcting the operation of the slave arm is inputted from the manipulator during an automatic operation of the slave arm , to prevent the correction of the operation of the slave arm .
A method of making a zirconium based alloy cladding tube which exhibits improved creep resistance for use in an elevated temperature environment of a nuclear reactor, the method comprising the steps: (a) vacuum melting ingots, the ingots comprising: 0.4 to 1.5 weight percent niobium; 0.1 to 0.8 weight percent tin; 0.01 to 0.6 weight percent iron, optionally, 0.05 to 0.5 weight percent chromium and a balance of at least 97 weight percent zirconium including impurities, wherein the impurities are less than 0.006 weight percent; (b) forging the melted ingots to produce an alloy; (c) beta-quenching the alloy; (d) extruding the alloy; (e) cold pilgering the alloy to reduce by 55%; (f) annealing at a temperature from 554 to 607 °C (1030 to 1125 °F) to produce an annealed alloy; (g) conducting a second cold pilgering step to reduce by 70-80%; and conducting a second intermediate anneal at a temperature from 554 to 577 °C (1030 to 1070 °F); (h) conducting a third cold pilgering step to reduce by 70-80%; and conducting a third intermediate anneal at a temperature from 554 to 577 °C (1030 to 1070 °F); and (i) subjecting the alloy to a final heat treatment of partial recrystallization at a temperature from 427 to 704 °C (800 to 1300 °F), such that 80% to 95% is recrystallized and 5% to 20% is stress relief annealed . (a) vacuum melting ingots, the ingots comprising: 0.4 to 1.5 weight percent niobium; 0.1 to 0.8 weight percent tin; 0.01 to 0.6 weight percent iron, optionally, 0.05 to 0.5 weight percent chromium and a balance of at least 97 weight percent zirconium including impurities, wherein the impurities are less than 0.006 weight percent; 0.4 to 1.5 weight percent niobium; 0.1 to 0.8 weight percent tin; 0.01 to 0.6 weight percent iron, optionally, 0.05 to 0.5 weight percent chromium and a balance of at least 97 weight percent zirconium including impurities, wherein the impurities are less than 0.006 weight percent; (b) forging the melted ingots to produce an alloy; (c) beta-quenching the alloy; (d) extruding the alloy; (e) cold pilgering the alloy to reduce by 55%; (f) annealing at a temperature from 554 to 607 °C (1030 to 1125 °F) to produce an annealed alloy; (g) conducting a second cold pilgering step to reduce by 70-80%; and conducting a second intermediate anneal at a temperature from 554 to 577 °C (1030 to 1070 °F); (h) conducting a third cold pilgering step to reduce by 70-80%; and conducting a third intermediate anneal at a temperature from 554 to 577 °C (1030 to 1070 °F); and (i) subjecting the alloy to a final heat treatment of partial recrystallization at a temperature from 427 to 704 °C (800 to 1300 °F), such that 80% to 95% is recrystallized and 5% to 20% is stress relief annealed . (i) subjecting the alloy to a final heat treatment of partial recrystallization at a temperature from 427 to 704 °C (800 to 1300 °F), such that 80% to 95% is recrystallized and 5% to 20% is stress relief annealed .
A projector comprising: a scanning light source operable to sweep through a convex surface defining a convex object surface to be imaged , and an optical assembly section operable to receive light from the scanning light source , wherein the optical assembly section comprises: a prism element ; a collimating element coupled to the prism element at an interface, wherein the collimating element is configured to collimate a cone of light emitted by the scanning light source at on axis position; a quarter wave plate ; and a polarizing beam splitter disposed at the interface. a scanning light source operable to sweep through a convex surface defining a convex object surface to be imaged , and an optical assembly section operable to receive light from the scanning light source , wherein the optical assembly section comprises: a prism element ; a collimating element coupled to the prism element at an interface, wherein the collimating element is configured to collimate a cone of light emitted by the scanning light source at on axis position; a quarter wave plate ; and a polarizing beam splitter disposed at the interface. a prism element ; a collimating element coupled to the prism element at an interface, wherein the collimating element is configured to collimate a cone of light emitted by the scanning light source at on axis position; a quarter wave plate ; and a polarizing beam splitter disposed at the interface.
A rail for producing a false wall, comprising two separate portions, one of the portions, referred to as a fastening portion , being arranged to enable the fastening thereof to a wall, the other portion, referred to as an attachment portion , being arranged to enable the attachment of at least one fabric, said portions being detachably assembled to one another by a connecting part having coupling means suitable for interacting with complementary coupling means on the attachment portion and two arms arranged so as to tilt relative to one another between an attachment portion retention position in which the coupling means of the connecting part cooperate with the complementary means of the attachment portion and an attachment portion release position, characterized in that the connecting part is partially accommodated in a groove provided in the fastening portion and opening in the lower portion thereof, said coupling means extending out of said groove.
A rupture disk for use in a fluid control system, the rupture disk comprising: a membrane ; and a compressible flange , around a perimeter of the membrane, wherein the flange defines at least one perimetrically extending void which allows significant expansion of the flange to achieved parallel to the disk when the flange is compressed perpendicularly to the disk, wherein the flange is arranged such that, when the rupture disk is installed in a housing that comprises an axially-extending mating surface , the rupture disk is configured to expand in a radial direction when an axial compression force is applied to the flange , so as to establish a seal between the rupture disk and the axially-extending mating surface , and wherein the rupture disk is a single monolithic structure formed of a homogeneous material. a membrane ; and a compressible flange , around a perimeter of the membrane, wherein the flange defines at least one perimetrically extending void which allows significant expansion of the flange to achieved parallel to the disk when the flange is compressed perpendicularly to the disk, wherein the flange is arranged such that, when the rupture disk is installed in a housing that comprises an axially-extending mating surface , the rupture disk is configured to expand in a radial direction when an axial compression force is applied to the flange , so as to establish a seal between the rupture disk and the axially-extending mating surface , and
An apparatus for chamfering at least one edge of the gearing at the front side of a workpiece having internal gearing comprising at least one rotatably supported workpiece holder for holding the workpiece and comprising at least one rotatably supported tool holder for holding at least one chamfer hob , in particular a chamfer cut hob, and comprising a control for the automatic control of the machine axes for chamfering the edges of a gearing on at least one front side, and preferably on both front sides, of a workpiece ; characterized in that the control is programmed such that the tool holder is or will be arranged next to a workpiece held in the workpiece holder and a chamfer hob held in the tool holder is arranged by means of a tool arbor in the region of the center opening of the workpiece formed by the internal gearing to be brought into engagement with an edge of the internal gearing on the upper side and/or on the lower side of the workpiece.
Locking device for closing a door, with a lock shaft , a cam disc attached to the lock shaft in a torque-proof fashion and with a spring attachment for generating locking force, whereby the cam disk has a recess on a front section relative to the lock shaft , on or in which a cam is kept such that it can pivot, whereby the cam forms a front cam point relative to the recess and whereby a buffer for buffing a rotation of the lock shaft is present, whereby the buffer influences the cam disc via a roller , distinguished by the fact that the spring attachment influences the cam disc via an additional roller and that the cam can pivot into a first and/or second end position via the additional roller .
A chip device, comprising: a first wafer ; a first component disposed on the first wafer; a second component disposed on the first wafer spaced from the first component, wherein the second component generates heat; a second wafer from a first material having a first thermal conductivity, wherein the second wafer includes a cavity and a via , and wherein the via is constructed from a second material having a second thermal conductivity that is greater than the first thermal conductivity; and a heat sink coupled to the second wafer so that at least a portion of the second wafer is interposed between the first wafer and the heat sink, wherein the first component is disposed adjacent the cavity, and wherein the via extends between the second component and the heat sink. a first wafer ; a first component disposed on the first wafer; a second component disposed on the first wafer spaced from the first component, wherein the second component generates heat; a second wafer from a first material having a first thermal conductivity, wherein the second wafer includes a cavity and a via , and wherein the via is constructed from a second material having a second thermal conductivity that is greater than the first thermal conductivity; and a heat sink coupled to the second wafer so that at least a portion of the second wafer is interposed between the first wafer and the heat sink, wherein the first component is disposed adjacent the cavity, and wherein the via extends between the second component and the heat sink.