mhurhangee/patent-ind-claim-en huggingface dataset:
A method of inspecting an artefact that is located within a computer controlled coordinate positioning apparatus' measurement volume, the method comprising: obtaining at least two images of the artefact captured from different perspectives and, based on a given nominal location of a predetermined point on the artefact to be measured within said computer controlled coordinate positioning apparatus' measurement volume, determine the location of said predetermined point in said at least two images; wherein determining the location of said predetermined point in an image comprises determining a search line along which to search within the image, and identifying where along said search line the image meets predetermined criteria; and in which said search line is derived from a plane containing the perspective centre of the at least two images and said nominal location of the predetermined point. obtaining at least two images of the artefact captured from different perspectives and, based on a given nominal location of a predetermined point on the artefact to be measured within said computer controlled coordinate positioning apparatus' measurement volume, determine the location of said predetermined point in said at least two images; wherein determining the location of said predetermined point in an image comprises determining a search line along which to search within the image, and identifying where along said search line the image meets predetermined criteria; and in which said search line is derived from a plane containing the perspective centre of the at least two images and said nominal location of the predetermined point.
A vented garment comprising at least one vented garment panel , the vented garment panel comprising: a first layer and a second layer affixed to each other at a plurality of seams , wherein the plurality of seams are collectively configured to define a plurality of interconnected chambers ; a thermally insulating material contained within the plurality of interconnected chambers; and at least one opening on a portion of at least one seam, the at least one opening extending through the portion of the at least one seam, through the first layer, and through the second layer, characterized in that each seam in the plurality of seams comprises an angular orientation such that the each seam is angularly oriented with respect to an adjacent seam of the plurality of seams , wherein the angular orientation of the plurality of seams forms or defines the plurality of interconnected chambers .
Tibial stabilization and protection orthosis comprising: a substantially tubular body made of semi-rigid material and defining an internal compartment configured for at least partially housing a zone (A) of the leg of a user (U) defined by the calf and by the tibia; said body having a substantially circular upper edge configured to be positioned below the knee and a substantially circular lower edge configured to be insertable inside a boot (S) worn by the user (U); said body further having respective adjustment means for varying the width of said internal compartment as a function of the size of the leg of the user (U); wherein said tubular body comprises a band element configured to be wrappable around said zone (A) of the leg; said band having respective end flaps , opposite each other; characterised in that said end flaps can be mutually abutted to configure the band closed in a loop. a substantially tubular body made of semi-rigid material and defining an internal compartment configured for at least partially housing a zone (A) of the leg of a user (U) defined by the calf and by the tibia; said body having a substantially circular upper edge configured to be positioned below the knee and a substantially circular lower edge configured to be insertable inside a boot (S) worn by the user (U); said body further having respective adjustment means for varying the width of said internal compartment as a function of the size of the leg of the user (U); wherein said tubular body comprises a band element configured to be wrappable around said zone (A) of the leg; said band having respective end flaps , opposite each other; characterised in that said end flaps can be mutually abutted to configure the band closed in a loop.
A process for the preparation of an optically active chiral amine comprising: a) providing an amino acceptor and an amino donor, b) reacting the amino acceptor and the amino donor with a (R)- or (S)-selective transaminase and c) obtaining the desired optically active chiral amine and an alpha-ketone by-product, wherein the process is carried out in a reaction mixture having a pH from 5.0 to 9.5 for a reaction time of 40 to 70 minutes in a temperature range from 10 to 65 °C, and wherein the amino acceptor is selected from the group consisting of phenylpyruvic acid, a salt thereof, pyruvic acid, a salt thereof, 2-ketoglutarate, 3-oxobutyrate, 2-butanone, 3-oxopyrrolidine (3-OP), 3-pyridylmethylketone (3-PMK), 3-oxobutyric acid ethyl ester (3-OBEE), 3-oxopentanoic acid methyl ester (3-OPME), N-1-boc-3-oxopiperidinone, N-1-boc-3-oxopyrrolidine (B3OP), 3-oxo-piperidine, alkyl-3-oxo-butanoates and methoxyacetone. a) providing an amino acceptor and an amino donor, b) reacting the amino acceptor and the amino donor with a (R)- or (S)-selective transaminase and c) obtaining the desired optically active chiral amine and an alpha-ketone by-product,
A method for bonding a transparent substrate within an opening of a structure, comprising the steps of: a. applying to a transparent substrate a primer composition that includes a colorant and at least one isocyanate functional prepolymer derived from the reaction of an aliphatic polyisocyanate and a polyol, at least partially reacted with an amino group of a secondary aminosilane, wherein the secondary aminosilane includes two or three methoxy groups bound to silicon, two or three ethoxy groups bound to silicon, or a combination thereof, and wherein the colorant is present in an amount of from 0.1 to 15 percent by weight of the overall primer composition; b. applying a one-part or two-part urethane adhesive to the structure defining the opening; and c. installing the transparent substrate within the opening, wherein the resulting installed substrate is free of any ceramic enamel; and wherein the structure defining the opening is part of an automotive vehicle having a predetermined color; and wherein the colorant is selected to match the predetermined color of the automotive vehicle, or to correspond with a predetermined color scheme, or both. a. applying to a transparent substrate a primer composition that includes a colorant and at least one isocyanate functional prepolymer derived from the reaction of an aliphatic polyisocyanate and a polyol, at least partially reacted with an amino group of a secondary aminosilane, wherein the secondary aminosilane includes two or three methoxy groups bound to silicon, two or three ethoxy groups bound to silicon, or a combination thereof, and wherein the colorant is present in an amount of from 0.1 to 15 percent by weight of the overall primer composition; b. applying a one-part or two-part urethane adhesive to the structure defining the opening; and c. installing the transparent substrate within the opening, wherein the resulting installed substrate is free of any ceramic enamel;
Cooling device for an internal combustion engine, - having a heat exchanger , preferably a tube-fin heat exchanger, which is arranged in a housing and has a plurality of gas paths which extend along a first direction (R1) for being flowed through with a gas to be cooled and a plurality of coolant paths which extend along a second direction (R2) for being flowed through with a coolant, - a gas distributor and a gas collector which communicate fluidically with the gas paths of the heat exchanger in order to distribute and collect, respectively, the gas to be cooled, are attached on two sides of the heat exchanger which lie opposite one another along the first direction (R1) and on which the housing is of open configuration, - a first seal device being arranged between the housing and the gas distributor , and a second seal device being arranged between the housing and the gas collector , - the first and the second seal device being configured as identical parts, - wherein the first and the second seal device are formed in each case as a frame part with an inner frame and with an outer frame which encloses the inner frame on the outside at a spacing, characterized in that - the inner frame is connected to the outer frame by means of at least one connecting strut . - having a heat exchanger , preferably a tube-fin heat exchanger, which is arranged in a housing and has a plurality of gas paths which extend along a first direction (R1) for being flowed through with a gas to be cooled and a plurality of coolant paths which extend along a second direction (R2) for being flowed through with a coolant, - a gas distributor and a gas collector which communicate fluidically with the gas paths of the heat exchanger in order to distribute and collect, respectively, the gas to be cooled, are attached on two sides of the heat exchanger which lie opposite one another along the first direction (R1) and on which the housing is of open configuration, - a first seal device being arranged between the housing and the gas distributor , and a second seal device being arranged between the housing and the gas collector , - the first and the second seal device being configured as identical parts, - wherein the first and the second seal device are formed in each case as a frame part with an inner frame and with an outer frame which encloses the inner frame on the outside at a spacing, characterized in that - the inner frame is connected to the outer frame by means of at least one connecting strut .
A method of making a filled resin, comprising: providing a wiped film evaporator comprising an internal evaporator chamber maintained under vacuum conditions and an internal evaporator chamber wall maintained at an elevated temperature; functionalizing the particles prior to compounding, wherein functionalizing the particles comprises treating the particles with surface-modifying agent to provide functionalized solvent-borne particles; introducing the solvent-borne particles and organic matrix into the internal evaporator chamber; and compounding the solvent-borne particles and the organic matrix in the internal evaporator chamber by forming a thin film against the internal evaporator chamber wall, the thin film comprised of organic matrix and particles, the vacuum conditions and elevated temperature being sufficient to remove solvent from the particles and organic matrix to provide the filled resin; wherein less than about 10% of the particles in the filled resin are agglomerated at a particle loading of at least about 20% by weight based on the total weight of the filled resin; wherein the organic matrix comprises an epoxy resin, a (meth)acrylate resin, an ethylenically-unsaturated polyester resin, a vinyl ester which is the reaction product of epoxy resin(s) with ethylenically-unsaturated monocarboxylic acid(s), a curable imide resin, a bisbenzocyclobutane resin, or a polycyanate ester resin. providing a wiped film evaporator comprising an internal evaporator chamber maintained under vacuum conditions and an internal evaporator chamber wall maintained at an elevated temperature; functionalizing the particles prior to compounding, wherein functionalizing the particles comprises treating the particles with surface-modifying agent to provide functionalized solvent-borne particles; introducing the solvent-borne particles and organic matrix into the internal evaporator chamber; and compounding the solvent-borne particles and the organic matrix in the internal evaporator chamber by forming a thin film against the internal evaporator chamber wall, the thin film comprised of organic matrix and particles, the vacuum conditions and elevated temperature being sufficient to remove solvent from the particles and organic matrix to provide the filled resin; wherein less than about 10% of the particles in the filled resin are agglomerated at a particle loading of at least about 20% by weight based on the total weight of the filled resin; wherein the organic matrix comprises an epoxy resin, a (meth)acrylate resin, an ethylenically-unsaturated polyester resin, a vinyl ester which is the reaction product of epoxy resin(s) with ethylenically-unsaturated monocarboxylic acid(s), a curable imide resin, a bisbenzocyclobutane resin, or a polycyanate ester resin.
Inhalator comprising: a controller unit having a first housing , a controller accommodated in the first housing, and a socket electrically connected to the controller ; and an aerosol generator unit having an aerosol generator configured to generate an aerosol by nebulizing a fluid and accommodated in a second housing , and a plug electrically connected with the aerosol generator and configured to directly mate with and electrically connect to the socket, wherein the controller is configured to control operation of the aerosol generator, characterized in that the socket or the plug is configured to detachably receive the plug or the socket in at least two different orientations for electrical connection between the plug and the socket. a controller unit having a first housing , a controller accommodated in the first housing, and a socket electrically connected to the controller ; and an aerosol generator unit having an aerosol generator configured to generate an aerosol by nebulizing a fluid and accommodated in a second housing , and a plug electrically connected with the aerosol generator and configured to directly mate with and electrically connect to the socket, wherein the controller is configured to control operation of the aerosol generator, characterized in that the socket or the plug is configured to detachably receive the plug or the socket in at least two different orientations for electrical connection between the plug and the socket.
A method for manufacturing an electrical wire , the electrical wire comprising a rod-like conductor having a shape corresponding to a predetermined wiring route and also having rigidity to enable the rod-like conductor to hold the shape by itself, the rod-like conductor having a conductor , the conductor being covered with a first insulation sheath on an outer circumference of the conductor , and a second insulation sheath covering the rod-like conductor , the method comprising: preparing a plurality of rod-like preliminary conductors having the rigidity so as to correspond to a plurality of sub routes (SR1, SR2, SR3, SR4, SR5, SR6, SR7, SR8, SR9) into which the wiring route is divided; processing at least one of the plurality of preliminary conductors into a shape conforming to the corresponding sub routes (SR1, SR2, SR3, SR4, SR5, SR6, SR7, SR8, SR9); after the processing, connecting the plurality of preliminary conductors to form the rod-like conductor ; and after the connecting, forming the second insulation sheath to cover the rod-like conductor ; wherein the plurality of rod-like preliminary conductors are covered substantially entirely in a longitudinal direction with the second insulation sheath , including connections where the conductors are exposed through the first insulation sheath and connected to each other. preparing a plurality of rod-like preliminary conductors having the rigidity so as to correspond to a plurality of sub routes (SR1, SR2, SR3, SR4, SR5, SR6, SR7, SR8, SR9) into which the wiring route is divided; processing at least one of the plurality of preliminary conductors into a shape conforming to the corresponding sub routes (SR1, SR2, SR3, SR4, SR5, SR6, SR7, SR8, SR9); after the processing, connecting the plurality of preliminary conductors to form the rod-like conductor ; and after the connecting, forming the second insulation sheath to cover the rod-like conductor ; wherein the plurality of rod-like preliminary conductors are covered substantially entirely in a longitudinal direction with the second insulation sheath , including connections where the conductors are exposed through the first insulation sheath and connected to each other.
Changeable nozzle (D1, D2) for applying an application agent to a component and for fastening to an change system (X1, X2), the nozzle (D1, D2) consisting of a nozzle body which contains the nozzle outlet opening (s), has a longitudinal and central axis (L) and comprises the following: a) an alignment means (A1, H2) configured for angularly aligning the nozzle (D1, D2) on the change system (X1, X2) with respect to the longitudinal and central axes (L); and b) a holding device (H1, H2) for releasably holding the nozzle (D1, D2) on the change system (X1, X2), the holding device (H1, H2) having at least one holding recess (H1, H2) which is of conical design and tapers into the nozzle interior in such a way that, with respect to the longitudinal and central axis (L), a non-axial action on the holder recess (H1, H2) causes an axial displacement of the nozzle (D1, D2), characterized in that a rotationally asymmetrical non-round outer geometry of the nozzle (D1) serves as the alignment means (A1), and the outer geometry has at least one alignment section (A1) formed on the side of the nozzle (D1) for the angularly correct, mechanical alignment of the nozzle (D1), the alignment section (A1) being straight and planar on the outer surface of the nozzle (D1) for contour-parallel alignment on the change system (X1, X2) and with the rotationally asymmetrical configuration of the outer geometry of the nozzle (D1), or the alignment means (H2) has at least two retaining recesses (H2) which are spaced apart from one another in the circumferential direction of the nozzle (D2) and taper conically into the nozzle interior, so that the retaining recesses (H2) permit fixing of the nozzle (D2) only in angularly correct alignment, and the holding recesses (H2) also serve for releasably holding the nozzle (D2) on the change system (X2), whereby the aligning device (H2) also serves as a holding device (H2) for releasably holding the nozzle (D2) on the change system (X2). a) an alignment means (A1, H2) configured for angularly aligning the nozzle (D1, D2) on the change system (X1, X2) with respect to the longitudinal and central axes (L); and b) a holding device (H1, H2) for releasably holding the nozzle (D1, D2) on the change system (X1, X2), the holding device (H1, H2) having at least one holding recess (H1, H2) which is of conical design and tapers into the nozzle interior in such a way that, with respect to the longitudinal and central axis (L), a non-axial action on the holder recess (H1, H2) causes an axial displacement of the nozzle (D1, D2), characterized in that a rotationally asymmetrical non-round outer geometry of the nozzle (D1) serves as the alignment means (A1), and the outer geometry has at least one alignment section (A1) formed on the side of the nozzle (D1) for the angularly correct, mechanical alignment of the nozzle (D1), the alignment section (A1) being straight and planar on the outer surface of the nozzle (D1) for contour-parallel alignment on the change system (X1, X2) and with the rotationally asymmetrical configuration of the outer geometry of the nozzle (D1),
Toothed belt having at least one drive side provided with a toothed profile , wherein the toothed profile is provided with a fabric layer and at least on its outside facing away from the toothed profile the fabric layer has a coating made of plastics material, wherein at least in the lateral edge regions of the fabric layer a sealing of the fabric layer which extends to the lateral edges thereof and the lateral surfaces delimiting the toothed belt and which penetrates the fabric layer is provided, characterized in that the sealing comprises a hotmelt adhesive based on ethylene vinyl acetate (EVA) or on polyamide (PA) or characterized in that the main material of the toothed belt is substantially composed of polyurethane and the sealing is composed of a polyurethane melt or a polyurethane-based lacquer.
Procedure for the spatially resolved determination of at least a physical or chemical process variable of a fluid medium arranged in a vessel of an automation system, wherein a system is used in which at least a sensor is provided which can be moved in the medium and/or in the vessel and which determines information about the at least one process variable, wherein a position determination unit is provided which provides information about the current respective position of the sensor in relation to the medium and/or the vessel , and wherein a data transmission unit is provided which collects information about the current respective position of the sensor and the corresponding information, provided by the sensor , about the at least one process variable and/or transmits the information to an external control unit and/or display unit , wherein the procedure comprises the following procedural steps: - during the commissioning phase of the automation system, the at least one sensor provides information about the at least one process variable from a multitude of positions (P) in the vessel and/or the medium , - on the basis of the information about the at least one process variable, several relevant positions are determined at which the deviation of the information about the at least one process variable exceeds a predefined threshold value, - in the subsequent operating phase, the sensor preferably moves between the relevant positions to provide information about the at least one process variable. - during the commissioning phase of the automation system, the at least one sensor provides information about the at least one process variable from a multitude of positions (P) in the vessel and/or the medium , - on the basis of the information about the at least one process variable, several relevant positions are determined at which the deviation of the information about the at least one process variable exceeds a predefined threshold value, - in the subsequent operating phase, the sensor preferably moves between the relevant positions to provide information about the at least one process variable.