mhurhangee/patent-ind-claim-en huggingface dataset:
A composition comprising a phosphate ester-modified acrylic polyol, an isocyanate, and a catalyst, wherein: the catalyst is an organotin, organobismuth, organozinc, or a metal octoate, catalyst; the phosphate ester-modified acrylic polyol comprises greater than zero, but less than 1.0 wt.% phosphate modification, preferably comprises greater than zero, but less than 0.5 wt% phosphate modification, more preferably comprises greater than zero, but less than 0.3 wt% phosphate modification, even more preferably comprises greater than zero, but less than 0.2 wt% phosphate modification, wherein phosphate modification indicates the effective amount of (HP0 3 ) on acrylic polyol. the catalyst is an organotin, organobismuth, organozinc, or a metal octoate, catalyst; the phosphate ester-modified acrylic polyol comprises greater than zero, but less than 1.0 wt.% phosphate modification, preferably comprises greater than zero, but less than 0.5 wt% phosphate modification, more preferably comprises greater than zero, but less than 0.3 wt% phosphate modification, even more preferably comprises greater than zero, but less than 0.2 wt% phosphate modification, wherein phosphate modification indicates the effective amount of (HP0 3 ) on acrylic polyol.
A high-temperature steaming method for a dual-cylinder washing machine, wherein the dual-cylinder washing machine comprises a first washing cylinder , a second washing cylinder , a three-way valve , an air duct , and a heating device capable of heating washing water in the first washing cylinder and the second washing cylinder , and the first washing cylinder and the second washing cylinder are respectively communicated with the air duct through the three-way valve ; characterized in that the high-temperature steaming method comprises: heating (S1) the first washing cylinder using the heating device, and making the three-way valve block a valve port communicating with the first washing cylinder ; obtaining (S2) a washing water temperature of the first washing cylinder ; when the washing water temperature of the first washing cylinder reaches a first steaming temperature, stopping (S3) the heating device from heating the first washing cylinder , and heating the second washing cylinder using the heating device; obtaining (S4) a washing water cooling temperature of the first washing cylinder and a washing water temperature of the second washing cylinder ; if the washing water cooling temperature of the first washing cylinder decreases to a preset temperature, then making (S5) the three-way valve switch a valve position and block a valve port communicating with the second washing cylinder ; and when the washing water temperature of the second washing cylinder reaches a second steaming temperature, stopping (S6) the heating device from heating the second washing cylinder . heating (S1) the first washing cylinder using the heating device, and making the three-way valve block a valve port communicating with the first washing cylinder ; obtaining (S2) a washing water temperature of the first washing cylinder ; when the washing water temperature of the first washing cylinder reaches a first steaming temperature, stopping (S3) the heating device from heating the first washing cylinder , and heating the second washing cylinder using the heating device; obtaining (S4) a washing water cooling temperature of the first washing cylinder and a washing water temperature of the second washing cylinder ; if the washing water cooling temperature of the first washing cylinder decreases to a preset temperature, then making (S5) the three-way valve switch a valve position and block a valve port communicating with the second washing cylinder ; and when the washing water temperature of the second washing cylinder reaches a second steaming temperature, stopping (S6) the heating device from heating the second washing cylinder .
A method of analyzing a contact patch of a tire during a hydroplaning event, comprising: obtaining a piezoelectric sensor output signal from at least one piezoelectric sensor mounted in a tire , the piezoelectric sensor output signal being generated at least in part during a hydroplaning event; analyzing, with one or more processing devices , the piezoelectric sensor output signal to determine a contact patch entry and a contact patch exit for the tire ; detecting, with the one or more processing devices , a signal perturbation corresponding to the hydroplaning event in the piezoelectric sensor output signal , the signal perturbation occurring at a time between a time associated with the contact patch entry and a time associated with the contact patch exit ; and assessing a quantitative degree of hydroplaning for the tire during the hydroplaning event based at least in part on the signal perturbation ; wherein the quantitative degree of hydroplaning indicates how much of the contact patch was separated from a static surface by a fluid during the hydroplaning event; characterized in that the quantitative degree of hydroplaning is determined based on a ratio of the difference between a time corresponding to the signal perturbation and a time corresponding to the contact patch entry to the difference between a time corresponding to the contact patch exit and the time corresponding to contact patch entry . obtaining a piezoelectric sensor output signal from at least one piezoelectric sensor mounted in a tire , the piezoelectric sensor output signal being generated at least in part during a hydroplaning event; analyzing, with one or more processing devices , the piezoelectric sensor output signal to determine a contact patch entry and a contact patch exit for the tire ; detecting, with the one or more processing devices , a signal perturbation corresponding to the hydroplaning event in the piezoelectric sensor output signal , the signal perturbation occurring at a time between a time associated with the contact patch entry and a time associated with the contact patch exit ; and assessing a quantitative degree of hydroplaning for the tire during the hydroplaning event based at least in part on the signal perturbation ; wherein the quantitative degree of hydroplaning indicates how much of the contact patch was separated from a static surface by a fluid during the hydroplaning event; characterized in that the quantitative degree of hydroplaning is determined based on a ratio of the difference between a time corresponding to the signal perturbation and a time corresponding to the contact patch entry to the difference between a time corresponding to the contact patch exit and the time corresponding to contact patch entry .
Apparatus for ultrasonic testing of a component with a surface , which comprises an underside that can be placed onto the surface , at least one ultrasonic test head , a guide slide to which the test head is fastened, and a guide unit , wherein: - the guide unit comprises an opening which is bounded by an upper guide rail having a first guide element and a lower guide rail having a second guide element ; - the guide slide is arranged inside the opening and is configured such that it can be moved continuously in a translation direction along the guide rails ; - the guide rails are arched with respect to the underside and the guide elements are curved, wherein the first guide element trails the second guide element in the translation direction of the guide slide; - the guide elements engage in corresponding recesses on the guide slide and achieve the respective squint angle of the test head with respect to the underside and the surface by virtue of the guide slide rotating about an axis perpendicular to the translation direction over the course of the translational movement; and - one guide rail is recessed to a greater extent than the other and defines the squint angle of the test head by virtue of a position difference with respect to the other guide rail , wherein the squint angle of the test head is varied continuously at the same time as the translational movement of the test head . - the guide unit comprises an opening which is bounded by an upper guide rail having a first guide element and a lower guide rail having a second guide element ; - the guide slide is arranged inside the opening and is configured such that it can be moved continuously in a translation direction along the guide rails ; - the guide rails are arched with respect to the underside and the guide elements are curved, wherein the first guide element trails the second guide element in the translation direction of the guide slide; - the guide elements engage in corresponding recesses on the guide slide and achieve the respective squint angle of the test head with respect to the underside and the surface by virtue of the guide slide rotating about an axis perpendicular to the translation direction over the course of the translational movement; and - one guide rail is recessed to a greater extent than the other and defines the squint angle of the test head by virtue of a position difference with respect to the other guide rail , wherein the squint angle of the test head is varied continuously at the same time as the translational movement of the test head .
Method for execution by an electronically controlled light operating device, wherein the light operating device is supplied with a supply voltage via a first connection and receives an output signal of a motion detector via a second connection, wherein the method comprises the following steps: • evaluation of the output signal of the motion detector connected to the same supply voltage, said motion detector, as a function of the detection of a motion, either transmitting the supply voltage as an output signal or outputting no output signal, and • driving of outputs for connecting lights to one of a plurality of predetermined dimming levels as a function of the output signal of the motion detector, wherein at least one of the predetermined dimming levels is programmable. • evaluation of the output signal of the motion detector connected to the same supply voltage, said motion detector, as a function of the detection of a motion, either transmitting the supply voltage as an output signal or outputting no output signal, and • driving of outputs for connecting lights to one of a plurality of predetermined dimming levels as a function of the output signal of the motion detector,
A method for removing a trace amount of mercury in a natural gas feed, comprising: recovering a mixture of produced water and mercury-containing natural gas from an underground reservoir, and separating the mercury-containing natural gas from the produced water; or recovering a dry mercury-containing natural gas from an underground reservoir; scrubbing the mercury-containing natural gas with an aqueous solution in an absorber, wherein the aqueous solution comprises a water-soluble sulfur compound to react at least a portion of the mercury in the natural gas with the water-soluble sulfur compound to produce a treated natural gas with a reduced concentration of mercury and a mercury-containing sulfur-compound depleted solution, removing at least a portion of the mercury-containing sulfur-depleted solution as a purge stream; recirculating at least a portion of the mercury-containing sulfur-depleted solution as a recirculating stream; and providing a fresh source of water-soluble sulfur compound as a feed to the absorber for reaction with the mercury in the natural gas. recovering a mixture of produced water and mercury-containing natural gas from an underground reservoir, and separating the mercury-containing natural gas from the produced water; or recovering a dry mercury-containing natural gas from an underground reservoir; scrubbing the mercury-containing natural gas with an aqueous solution in an absorber, wherein the aqueous solution comprises a water-soluble sulfur compound to react at least a portion of the mercury in the natural gas with the water-soluble sulfur compound to produce a treated natural gas with a reduced concentration of mercury and a mercury-containing sulfur-compound depleted solution, removing at least a portion of the mercury-containing sulfur-depleted solution as a purge stream; recirculating at least a portion of the mercury-containing sulfur-depleted solution as a recirculating stream; and providing a fresh source of water-soluble sulfur compound as a feed to the absorber for reaction with the mercury in the natural gas.
A process for preparing Acetyl Iopamidol which comprises reacting compound (II) with serinol according to the scheme: wherein said process is carried out by mechanical co-milling of compound (II) and serinol.
A valve for an auditory system, the auditory system capable of converting between an acoustic signal and an electrical signal, wherein the valve has an acoustic pathway through which sound may travel between a point exterior to the auditory system and a point interior to the auditory system, the valve comprising: a housing; a magnetic member located within the housing; an armature adjacent to the magnetic member wherein the magnetic member generates a magnetic force applied to the armature; and a coil having an axial dimension and positioned adjacent to the armature at a substantially fixed location relative to the housing; wherein the coil is disposed about a bobbin; the acoustic pathway of the valve extends through the housing along the axial dimension of the coil and extends through the bobbin; wherein energizing of the coil attracts or repels the armature to substantially open or close the acoustic pathway such that the opening and closing of the acoustic pathway is effective to operate the valve in an open position or a closed position, wherein the open position allows already-produced sound to pass through the acoustic pathway along the axial dimension of the coil, and wherein the closed position prevents the already-produced sound from passing through the acoustic pathway, CHARACTERISED IN THAT the valve further comprises a spring member associated with the armature, wherein the spring member applies a force to the armature to open the acoustic pathway and the magnetic member applies the magnetic force to the armature to close the acoustic pathway. a housing; a magnetic member located within the housing; an armature adjacent to the magnetic member wherein the magnetic member generates a magnetic force applied to the armature; and a coil having an axial dimension and positioned adjacent to the armature at a substantially fixed location relative to the housing; wherein the coil is disposed about a bobbin; the acoustic pathway of the valve extends through the housing along the axial dimension of the coil and extends through the bobbin; wherein energizing of the coil attracts or repels the armature to substantially open or close the acoustic pathway such that the opening and closing of the acoustic pathway is effective to operate the valve in an open position or a closed position, wherein the open position allows already-produced sound to pass through the acoustic pathway along the axial dimension of the coil, and wherein the closed position prevents the already-produced sound from passing through the acoustic pathway, CHARACTERISED IN THAT the valve further comprises a spring member associated with the armature, wherein the spring member applies a force to the armature to open the acoustic pathway and the magnetic member applies the magnetic force to the armature to close the acoustic pathway.
Folded metal sheet of a roof skin or a wall covering or a roof gutter or the like, having an outer side of the metal sheet and an inner side of the metal sheet , wherein the metal sheet has folded-over metal sheet portions having at least one covering , and the covering is constructed over the complete surface or partial surface, that is to say, with a surface covering of at least 40% on the inner side of the metal sheet the covering has permanently resilient properties and the covering has at least one of the following materials set out: - thermoplastic elastomer material based on olefin (TPO), - ethylene propylene diene rubber (EPDM), - polypropylene (PP/EPDM), - thermoplastic copolyamide (TPA), - thermoplastic polyester elastomer materials (TPC), - thermoplastic copolyester, - styrene block copolymers, - thermoplastic elastomer materials based on urethane (TPU) or - cross-linked thermoplastic elastomer materials based on olefin and wherein for insulation against noise, but at least in order to reduce noise, the covering has a thickness of at least 0.1 mm, but a maximum of 1 mm, preferably a thickness between 0.15 mm and 0.6 mm, wherein the covering is foamed onto the inner side of the metal sheet. the covering is constructed over the complete surface or partial surface, that is to say, with a surface covering of at least 40% on the inner side of the metal sheet the covering has permanently resilient properties and the covering has at least one of the following materials set out: - thermoplastic elastomer material based on olefin (TPO), - ethylene propylene diene rubber (EPDM), - polypropylene (PP/EPDM), - thermoplastic copolyamide (TPA), - thermoplastic polyester elastomer materials (TPC), - thermoplastic copolyester, - styrene block copolymers, - thermoplastic elastomer materials based on urethane (TPU) or - cross-linked thermoplastic elastomer materials based on olefin and - thermoplastic elastomer material based on olefin (TPO), - ethylene propylene diene rubber (EPDM), - polypropylene (PP/EPDM), - thermoplastic copolyamide (TPA), - thermoplastic polyester elastomer materials (TPC), - thermoplastic copolyester, - styrene block copolymers, - thermoplastic elastomer materials based on urethane (TPU) or - cross-linked thermoplastic elastomer materials based on olefin and wherein for insulation against noise, but at least in order to reduce noise, the covering has a thickness of at least 0.1 mm, but a maximum of 1 mm, preferably a thickness between 0.15 mm and 0.6 mm, wherein the covering is foamed onto the inner side of the metal sheet.
A thin film transistor, comprising an active layer having a channel part , a source contact part , and a drain contact part ; wherein at least one of the source contact part and the drain contact part has a contacting edge having one or more irregularities along the contacting edge; wherein the thin film transistor further comprises a source electrode and a drain electrode on the active layer , optionally the active layer comprises a metal oxide semiconductor material, an amorphous silicon or a polycrystalline silicon, wherein the contacting edge of the source contact part is electrically connected to the source electrode ; the contacting edge of the drain contact part is electrically connected to the drain electrode ; the active layer extends substantially in an extension direction from the source electrode to the drain electrode ; and the one or more irregularities are along a first portion of the contacting edge extending in a direction non-parallel to the extension direction of the active layer and along a second portion of the contacting edge extending in a direction substantially parallel to the extension direction of the active layer. wherein at least one of the source contact part and the drain contact part has a contacting edge having one or more irregularities along the contacting edge; wherein the thin film transistor further comprises a source electrode and a drain electrode on the active layer , optionally the active layer comprises a metal oxide semiconductor material, an amorphous silicon or a polycrystalline silicon, wherein the contacting edge of the source contact part is electrically connected to the source electrode ; the contacting edge of the drain contact part is electrically connected to the drain electrode ; the active layer extends substantially in an extension direction from the source electrode to the drain electrode ; and the one or more irregularities are along a first portion of the contacting edge extending in a direction non-parallel to the extension direction of the active layer and along a second portion of the contacting edge extending in a direction substantially parallel to the extension direction of the active layer.
A coated component comprising: a ceramic matrix composite substrate comprising silicon carbide and having a surface ; a bondcoat on the surface of the substrate , wherein the bondcoat comprises a plurality of discrete particles dispersed within a matrix phase , wherein the matrix phase comprises mullite and defines 60% to 98% by volume of the bondcoat , and wherein the plurality of discrete particles comprises an oxygen getter and has 50% of its volume or greater formed of particles having an average size of 10 μm to 100 μm; and an environmental barrier coating on the bondcoat . a ceramic matrix composite substrate comprising silicon carbide and having a surface ; a bondcoat on the surface of the substrate , wherein the bondcoat comprises a plurality of discrete particles dispersed within a matrix phase , wherein the matrix phase comprises mullite and defines 60% to 98% by volume of the bondcoat , and wherein the plurality of discrete particles comprises an oxygen getter and has 50% of its volume or greater formed of particles having an average size of 10 μm to 100 μm; and an environmental barrier coating on the bondcoat .
A Newcastle disease virus (NDV), wherein the NDV is an attenuated virus from strain 73T, wherein the viral genome of the NDV comprises an F protein cleavage site (FPCS) sequence selected from the group consisting of: S116: 111H-N-R-T-K-S/F117; S116K: 111H-N-K-T-K- S/F117; S116M: 111H-N-R- M-K-S/F117; S116KM: 111H-N-K-M-K-S/F-I118; and R116: 111H-N-R-T-K-R/F-I118, wherein the NDV expresses one or more heterologous polynucleotide sequences and wherein the one or more heterologous polynucleotide sequences is inserted at the P-M junction. S116: 111H-N-R-T-K-S/F117; S116K: 111H-N-K-T-K- S/F117; S116M: 111H-N-R- M-K-S/F117; S116KM: 111H-N-K-M-K-S/F-I118; and R116: 111H-N-R-T-K-R/F-I118, wherein the NDV expresses one or more heterologous polynucleotide sequences and wherein the one or more heterologous polynucleotide sequences is inserted at the P-M junction.