mhurhangee/patent-ind-claim-en huggingface dataset:
A method of manufacturing a wire grid polarizer, the method comprising: preparing a stamp having a nanostructure body at one surface and forming a mask layer (130, 130a, 130b: 130c, 130d, 130e, 130f, 130g) with anisotropic vapor deposition at the one surface; forming a metal film on a substrate ; transferring the mask layer onto the metal film ; and patterning the metal film into metal lines by removing a portion that is not covered with the mask layer in the metal film with dry etching, wherein the nanostructure body comprises a plurality of protruding portions , the forming of a mask layer with anisotropic vapor deposition comprises forming a mask layer at an upper surface and one side surface of each of the plurality of protruding portions by performing anisotropic vapor deposition in a direction that is inclined in a thickness direction of the stamp , and the mask layer that is transferred onto the metal film comprises a flat portion with a constant thickness and a protrusion that contacts one side edge of the flat portion. preparing a stamp having a nanostructure body at one surface and forming a mask layer (130, 130a, 130b: 130c, 130d, 130e, 130f, 130g) with anisotropic vapor deposition at the one surface; forming a metal film on a substrate ; transferring the mask layer onto the metal film ; and patterning the metal film into metal lines by removing a portion that is not covered with the mask layer in the metal film with dry etching, wherein the nanostructure body comprises a plurality of protruding portions , the forming of a mask layer with anisotropic vapor deposition comprises forming a mask layer at an upper surface and one side surface of each of the plurality of protruding portions by performing anisotropic vapor deposition in a direction that is inclined in a thickness direction of the stamp , and the mask layer that is transferred onto the metal film comprises a flat portion with a constant thickness and a protrusion that contacts one side edge of the flat portion.
A medical device comprising: a seal assembly housing ; a wiper seal ; the wiper seal including an outer perimeter portion at which the wiper seal is coupled to the seal assembly housing , an inner sealing portion , and a flex portion between the outer perimeter portion and the inner sealing portion , the flex portion including an annular corrugation and an annular groove defined by the annular corrugation, characterised by a support rib being in the annular groove . a seal assembly housing ; a wiper seal ; the wiper seal including an outer perimeter portion at which the wiper seal is coupled to the seal assembly housing , an inner sealing portion , and a flex portion between the outer perimeter portion and the inner sealing portion , the flex portion including an annular corrugation and an annular groove defined by the annular corrugation, characterised by a support rib being in the annular groove .
A medicament delivery device for dispensing discrete doses of medicament, the device comprising: first and second medicament carriers each comprising said doses of medicament contained in a plurality of individual compartments spaced along a carrier strip and sealed by a sealing layer ; and first and second opening mechanisms each arranged to handle a respective one of the first and second medicament carriers and to open each compartment of the respective medicament carrier by separating the sealing layer from the carrier strip as the medicament carrier is advanced through the device , a take-up spool arranged to wind the separated sealing layers thereon such as to maintain the separated sealing layers in tension, each separated sealing layer having a path of travel between a respective one of the first and second opening mechanisms and the take-up spool ; and a tension control element in contact with each of the separated sealing layers , characterised in that at least a part of the tension control element is arranged to be movable by a biasing force, which is exerted on the tension control element by the separated sealing layers as a result of any inequality in the tensions of the separated sealing layers wound by the take-up spool , to alter the length of the path of travel of each separated sealing layer so as to substantially equalise the tensions in the separated sealing layers . first and second medicament carriers each comprising said doses of medicament contained in a plurality of individual compartments spaced along a carrier strip and sealed by a sealing layer ; and first and second opening mechanisms each arranged to handle a respective one of the first and second medicament carriers and to open each compartment of the respective medicament carrier by separating the sealing layer from the carrier strip as the medicament carrier is advanced through the device , a take-up spool arranged to wind the separated sealing layers thereon such as to maintain the separated sealing layers in tension, each separated sealing layer having a path of travel between a respective one of the first and second opening mechanisms and the take-up spool ; and a tension control element in contact with each of the separated sealing layers , characterised in that at least a part of the tension control element is arranged to be movable by a biasing force, which is exerted on the tension control element by the separated sealing layers as a result of any inequality in the tensions of the separated sealing layers wound by the take-up spool , to alter the length of the path of travel of each separated sealing layer so as to substantially equalise the tensions in the separated sealing layers .
A pressure sensing display module, having a display area and a wiring area surrounding a periphery of the display area , the pressure sensing display module comprising: a force sensitive unit provided in the wiring area , wherein the force sensitive unit is a force sensitive resistor; a display unit provided corresponding to the display area , wherein information generated by the display unit is displayed on the display area ; a first substrate and a second substrate , wherein the force sensitive unit is located between the first substrate and the second substrate , light emitted by the display unit goes through the second substrate and the first substrate sequentially; a spacer layer located between the first substrate and the second substrate , wherein the spacer layer comprises a hollow area corresponding to the display area , the force sensitive unit is located on a side of the second substrate adjacent to the first substrate , and a thickness of the spacer layer is greater than a thickness of the force sensitive unit ; wherein the first substrate is provided with an ink shielding layer on a side thereof adjacent to the second substrate , the ink shielding layer corresponds to the force sensitive unit and is configured to shield the force sensitive unit ; wherein a sum of the thickness of the force sensitive unit and a thickness of the ink shielding layer is less than the thickness of the spacer layer , and a gap is formed between the force sensitive unit and the ink shielding layer . a force sensitive unit provided in the wiring area , wherein the force sensitive unit is a force sensitive resistor; a display unit provided corresponding to the display area , wherein information generated by the display unit is displayed on the display area ; a first substrate and a second substrate , wherein the force sensitive unit is located between the first substrate and the second substrate , light emitted by the display unit goes through the second substrate and the first substrate sequentially; a spacer layer located between the first substrate and the second substrate , wherein the spacer layer comprises a hollow area corresponding to the display area , the force sensitive unit is located on a side of the second substrate adjacent to the first substrate , and a thickness of the spacer layer is greater than a thickness of the force sensitive unit ; wherein the first substrate is provided with an ink shielding layer on a side thereof adjacent to the second substrate , the ink shielding layer corresponds to the force sensitive unit and is configured to shield the force sensitive unit ; wherein a sum of the thickness of the force sensitive unit and a thickness of the ink shielding layer is less than the thickness of the spacer layer , and a gap is formed between the force sensitive unit and the ink shielding layer .
A refrigerant pipe (R1, R2, R3, R4) for a refrigeration apparatus (A, B), the refrigerant pipe comprising: a first pipe made of stainless steel through which a refrigerant flows; a joint pipe provided on an outer peripheral surface of the first pipe and made of a material different from stainless steel; and a second pipe having a diameter smaller than that of the first pipe and connected to the outer peripheral surface of the first pipe via the joint pipe , wherein a surface to be connected , which is connected to the joint pipe , of the second pipe is made of an identical material to the material of the joint pipe ; the joint pipe and the surface to be connected of the second pipe are made of copper or a copper alloy, wherein the joint pipe includes a large-diameter portion , a small-diameter portion having a diameter smaller than that of the large-diameter portion ), and an inclined portion connecting the large-diameter portion and the small-diameter portion ; characterized in that the joint pipe has an outer peripheral surface connected to the first pipe ; wherein a first positioning mechanism that determines a position of the joint pipe with respect to the first pipe is provided on an outer peripheral surface of the joint pipe ; wherein the small-diameter portion is inserted into a hole formed in the first pipe ; wherein an outer peripheral surface of the inclined portion abuts on a peripheral edge of the hole , the inclined portion functions as the first positioning mechanism. a first pipe made of stainless steel through which a refrigerant flows; a joint pipe provided on an outer peripheral surface of the first pipe and made of a material different from stainless steel; and a second pipe having a diameter smaller than that of the first pipe and connected to the outer peripheral surface of the first pipe via the joint pipe , wherein a surface to be connected , which is connected to the joint pipe , of the second pipe is made of an identical material to the material of the joint pipe ; the joint pipe and the surface to be connected of the second pipe are made of copper or a copper alloy, wherein the joint pipe includes a large-diameter portion , a small-diameter portion having a diameter smaller than that of the large-diameter portion ), and an inclined portion connecting the large-diameter portion and the small-diameter portion ; characterized in that the joint pipe has an outer peripheral surface connected to the first pipe ; wherein a first positioning mechanism that determines a position of the joint pipe with respect to the first pipe is provided on an outer peripheral surface of the joint pipe ; wherein the small-diameter portion is inserted into a hole formed in the first pipe ; wherein an outer peripheral surface of the inclined portion abuts on a peripheral edge of the hole , the inclined portion functions as the first positioning mechanism.
Coating composition for producing a coated substrate and, in particular, for the production of a coated wall, floor and ceiling covering which contains: a) 15 to 80% by weight of at least one ethylene vinyl acetate copolymer, b) 0.1 to 30% by weight of at least one hydrocarbon resin, c) 0.1 to 20% by weight of at least one wax, d) 0.1 to 80% by weight of at least one filler, e) 0.01 to 20% by weight of at least one lubricant which is a carboxylic acid amide and f) optionally, 0.0 to 10% by weight of a blowing agent, wherein the total of all components is 100% by weight. a) 15 to 80% by weight of at least one ethylene vinyl acetate copolymer, b) 0.1 to 30% by weight of at least one hydrocarbon resin, c) 0.1 to 20% by weight of at least one wax, d) 0.1 to 80% by weight of at least one filler, e) 0.01 to 20% by weight of at least one lubricant which is a carboxylic acid amide and f) optionally, 0.0 to 10% by weight of a blowing agent, wherein the total of all components is 100% by weight.
A portable hand wash station , comprising: a base ; a fresh water tank ; a greywater tank disposed horizontally adjacent to the fresh water tank ; a tank cover disposed atop the fresh water tank and the greywater tank ; and a sink member disposed atop the tank cover , the sink member defining a pair of sink basins disposed opposite one another, wherein the fresh water tank is disposed atop the base , the greywater tank is disposed atop the base , and the sink member is secured to the tank cover via a hinge so that the sink member can pivot with respect to the tank cover . a base ; a fresh water tank ; a greywater tank disposed horizontally adjacent to the fresh water tank ; a tank cover disposed atop the fresh water tank and the greywater tank ; and a sink member disposed atop the tank cover , the sink member defining a pair of sink basins disposed opposite one another, wherein the fresh water tank is disposed atop the base , the greywater tank is disposed atop the base , and the sink member is secured to the tank cover via a hinge so that the sink member can pivot with respect to the tank cover .
A method for forming a thermally conductive silicone material on an electronic component, comprising the steps of: (I) preparing a silicone composition comprising: (A) a polyorganosiloxane, (B) a thermally conductive filler and (C) a catalyst, wherein the silicone composition is curable by heat, (II) applying the silicone composition on an electronic component for an electronic device, in which the electronic component generates heat when the electronic device which contains the electronic component is in operation, and (III) curing the silicone composition by heat generated by the electronic component. (I) preparing a silicone composition comprising: (A) a polyorganosiloxane, (B) a thermally conductive filler and (C) a catalyst, wherein the silicone composition is curable by heat, (A) a polyorganosiloxane, (B) a thermally conductive filler and (C) a catalyst, (II) applying the silicone composition on an electronic component for an electronic device, in which the electronic component generates heat when the electronic device which contains the electronic component is in operation, and (III) curing the silicone composition by heat generated by the electronic component.
A system, comprising: a plurality of power busways configured to extend through one or more regions of an aisle space, each region spanning a full width and a separate limited portion of a length of the aisle space, wherein at least two of the power busways comprise primary power busways configured to distribute power from separate primary power sources and at least one of the power busways comprises a secondary power busway configured to distribute power from at least one secondary power source ; wherein the plurality of power busways are configured to interchangeably provide at least one of a plurality of power support redundancies to at least one electrical load located in the aisle space, based at least in part upon which one or more of the plurality of power busways are interchangeably coupled to a power inlet of the electrical load via at least separate tap boxes . a plurality of power busways configured to extend through one or more regions of an aisle space, each region spanning a full width and a separate limited portion of a length of the aisle space, wherein at least two of the power busways comprise primary power busways configured to distribute power from separate primary power sources and at least one of the power busways comprises a secondary power busway configured to distribute power from at least one secondary power source ; wherein the plurality of power busways are configured to interchangeably provide at least one of a plurality of power support redundancies to at least one electrical load located in the aisle space, based at least in part upon which one or more of the plurality of power busways are interchangeably coupled to a power inlet of the electrical load via at least separate tap boxes .
A method for producing 5-(halomethyl)furfural, comprising: a) combining a feedstock, an acid, and a salt in a reaction vessel to form a reaction mixture, wherein: the feedstock comprises one or more C6 monosaccharides, disaccharides comprising monomeric units having six carbon atoms, or polysaccharides comprising monomeric units having six carbon atoms; the acid is HX, wherein X is halo; the salt is A r+ (X - ) r , wherein: A r+ is a Group I or Group II cation, and X - is a halo anion; and the reaction mixture has a [H + ] between 0.5 M and 8 M and a [X - ] of at least 7 M; and b) producing 5-(halomethyl)furfural from at least a portion of the feedstock in the reaction mixture. a) combining a feedstock, an acid, and a salt in a reaction vessel to form a reaction mixture, wherein: the feedstock comprises one or more C6 monosaccharides, disaccharides comprising monomeric units having six carbon atoms, or polysaccharides comprising monomeric units having six carbon atoms; the acid is HX, wherein X is halo; the salt is A r+ (X - ) r , wherein: A r+ is a Group I or Group II cation, and X - is a halo anion; and the reaction mixture has a [H + ] between 0.5 M and 8 M and a [X - ] of at least 7 M; and the feedstock comprises one or more C6 monosaccharides, disaccharides comprising monomeric units having six carbon atoms, or polysaccharides comprising monomeric units having six carbon atoms; the acid is HX, wherein X is halo; the salt is A r+ (X - ) r , wherein: A r+ is a Group I or Group II cation, and X - is a halo anion; and A r+ is a Group I or Group II cation, and X - is a halo anion; and the reaction mixture has a [H + ] between 0.5 M and 8 M and a [X - ] of at least 7 M; and b) producing 5-(halomethyl)furfural from at least a portion of the feedstock in the reaction mixture.
A method, comprising: by a cloud-based computing device : receiving data associated with a computing network of devices ; generating a model to monitor the computing network; communicating the model to a computing system located on-premise with the computing network; receiving further data associated with the computing network; determining that the on-premise computing system is executing below a model quality threshold; updating the model based on the further data; and communicating the updated model to the computing system located on-premise with the computing network; wherein determining that the on-premise computing system is executing below a model quality threshold comprises, by the cloud-based computing device: computing an updated model based on the further data and operating the updated model by the cloud-based computing device; and comparing an output of the model operated by the on-premise computing system with an output of the updated model operated by the cloud-based computing device to identify that the outputs do not match. receiving data associated with a computing network of devices ; generating a model to monitor the computing network; communicating the model to a computing system located on-premise with the computing network; receiving further data associated with the computing network; determining that the on-premise computing system is executing below a model quality threshold; updating the model based on the further data; and communicating the updated model to the computing system located on-premise with the computing network; wherein determining that the on-premise computing system is executing below a model quality threshold comprises, by the cloud-based computing device: computing an updated model based on the further data and operating the updated model by the cloud-based computing device; and comparing an output of the model operated by the on-premise computing system with an output of the updated model operated by the cloud-based computing device to identify that the outputs do not match. computing an updated model based on the further data and operating the updated model by the cloud-based computing device; and comparing an output of the model operated by the on-premise computing system with an output of the updated model operated by the cloud-based computing device to identify that the outputs do not match.
Turbomachine blade comprising : - an airfoil structure comprising two opposite skins , the skins comprising a fibrous reinforcement densified by a matrix; and - a spar comprising a blade root portion configured to be mounted on a hub of a rotor of the turbomachine, an airfoil portion disposed inside the airfoil structure between the two skins , and a stilt portion extending outside the airfoil structure between the blade root portion and the airfoil portion , the airfoil portion comprising a body connected to the blade root portion and two legs extending radially from the body ; the blade being characterised in that it further comprises a structural reinforcement extending from the blade root portion to the body of the airfoil portion , the structural reinforcement being integral with the blade root portion and configured to form a force path distinct from the stilt portion in the event of failure of the spar within the stilt portion . - an airfoil structure comprising two opposite skins , the skins comprising a fibrous reinforcement densified by a matrix; and - a spar comprising a blade root portion configured to be mounted on a hub of a rotor of the turbomachine, an airfoil portion disposed inside the airfoil structure between the two skins , and a stilt portion extending outside the airfoil structure between the blade root portion and the airfoil portion , the airfoil portion comprising a body connected to the blade root portion and two legs extending radially from the body ; the blade being characterised in that it further comprises a structural reinforcement extending from the blade root portion to the body of the airfoil portion , the structural reinforcement being integral with the blade root portion and configured to form a force path distinct from the stilt portion in the event of failure of the spar within the stilt portion .
Door sealing device for sealing a gap between a door panel and a frame in a rail vehicle , wherein the door sealing device has a flexible tubular hollow chamber which is formed by two opposite contact walls and two opposite sidewalls , wherein the hollow chamber has a bend or radius, such that in the fitted condition of the door sealing device a first contact wall of the contact walls faces toward the door panel and a second contact wall of the contact walls faces toward the frame , so that when the door panel is closed the hollow chamber is compressed in such manner that the contact walls move toward one another, the sidewalls being deformed in order to buckle along predetermined buckling lines under the action of the pressure, wherein the hollow chamber has a force-movement characteristic line in relation to a pressing force that brings about the compression and a sealing movement , the said line having a declining gradient, characterised in that the sidewall positioned on the inside of the bend or radius has a through-hole in the area of the bend or radius.