mhurhangee/patent-ind-claim-en huggingface dataset:
A motorcycle wheel comprising: a rim on which a tire is mounted; a hub that is located at a center thereof and supports a wheel axle ; and a plurality of spokes that connect the rim and the hub , the rim , the hub , and the plurality of spokes being integrally formed, wherein the plurality of spokes include a first spoke and a second spoke disposed adjacent to each other in a circumferential direction (D1) of the wheel , and the first spoke includes at least one first spoke piece , the second spoke includes at least one second spoke piece , wherein the first spoke piece has a larger dimension in an axial direction (D2) of the wheel than the second spoke piece , and, regarding a cross-sectional shape along the circumferential direction (D1), each of the first and second spoke pieces is formed in a rectangular shape in which a dimension (W1, W2) thereof in the axial direction (D2) is longer than a dimension (T1, T2) thereof in the circumferential direction (D1), characterised in that a radius (R1) of arc of a corner portion of the first spoke piece is set so as to be smaller than that (R2) of arcs of a corner portion of the second spoke piece , and an end surface in the axial direction (D2) of the first spoke piece has roughness set so as to be lower than that of an end surface in the axial direction (D2) of the second spoke piece . a rim on which a tire is mounted; a hub that is located at a center thereof and supports a wheel axle ; and a plurality of spokes that connect the rim and the hub , the rim , the hub , and the plurality of spokes being integrally formed, wherein the plurality of spokes include a first spoke and a second spoke disposed adjacent to each other in a circumferential direction (D1) of the wheel , and the first spoke includes at least one first spoke piece , the second spoke includes at least one second spoke piece , wherein the first spoke piece has a larger dimension in an axial direction (D2) of the wheel than the second spoke piece , and, the plurality of spokes include a first spoke and a second spoke disposed adjacent to each other in a circumferential direction (D1) of the wheel , and the first spoke includes at least one first spoke piece , the second spoke includes at least one second spoke piece , wherein the first spoke piece has a larger dimension in an axial direction (D2) of the wheel than the second spoke piece , and, regarding a cross-sectional shape along the circumferential direction (D1), each of the first and second spoke pieces is formed in a rectangular shape in which a dimension (W1, W2) thereof in the axial direction (D2) is longer than a dimension (T1, T2) thereof in the circumferential direction (D1), characterised in that a radius (R1) of arc of a corner portion of the first spoke piece is set so as to be smaller than that (R2) of arcs of a corner portion of the second spoke piece , and an end surface in the axial direction (D2) of the first spoke piece has roughness set so as to be lower than that of an end surface in the axial direction (D2) of the second spoke piece .
A computer-implemented method of stitching tile images of a specimen-bearing slide, the method comprising: (a) deriving a greyscale tile image for each of a set of tile images, wherein each tile image corresponds to a portion within a region of interest of the specimen-bearing slide; (b) performing a local registration to determine spatial relationships between pairs of adjacent greyscale tile images, wherein a spatial relationship of an overlapping region between each pair of adjacent greyscale tile images is determined by using an integral image to compute a normalized cross correlation, NCC, score for an image resolution within a multi-resolution framework; (c) performing a global placement to position the set of tile images relative to one another, wherein the global placement is determined with weighted least squares utilizing the determined spatial relationships between all adjacent greyscale tile images and the NCC scores as weights; and (d) stitching together the set of images based on the computed tile image placements. (a) deriving a greyscale tile image for each of a set of tile images, wherein each tile image corresponds to a portion within a region of interest of the specimen-bearing slide; (b) performing a local registration to determine spatial relationships between pairs of adjacent greyscale tile images, wherein a spatial relationship of an overlapping region between each pair of adjacent greyscale tile images is determined by using an integral image to compute a normalized cross correlation, NCC, score for an image resolution within a multi-resolution framework; (c) performing a global placement to position the set of tile images relative to one another, wherein the global placement is determined with weighted least squares utilizing the determined spatial relationships between all adjacent greyscale tile images and the NCC scores as weights; and (d) stitching together the set of images based on the computed tile image placements.
A method for operating a thermal flow sensor , wherein the thermal flow sensor has at least one sensor element and an electronic unit, comprising: - bringing a measuring medium into thermal contact with the sensor element and periodically heating the measuring medium by means of an alternating voltage applied to the sensor element and simultaneously detecting a maximum amplitude of a temperature profile and/or a phase shift between the profile of the alternating voltage and the profile of the temperature; - adjusting the detected maximum amplitude and/or the detected phase shift with the aid of calibration data; - determining an isoline (ILx) using the adjusted maximum amplitude and/or the adjusted phase shift on the basis of a mathematical or physical model of the thermal flow sensor , the isoline (ILx) ) of a multiplicity of value pairs of thermal parameters (C p , k ) , in particular a thermal conductivity and a heat capacity, of the measurement medium , which value pairs are associated with the same maximum amplitude or the same phase shift; - deriving at least one measurement fluid datum from the isoline (ILx); and carrying out a flow measurement by means of the thermal flow sensor , the sensor element supplying signal values, and converting the signal values into measured values of the effective flow velocity of the measuring medium by means of the measuring fluid information. - bringing a measuring medium into thermal contact with the sensor element and periodically heating the measuring medium by means of an alternating voltage applied to the sensor element and simultaneously detecting a maximum amplitude of a temperature profile and/or a phase shift between the profile of the alternating voltage and the profile of the temperature; - adjusting the detected maximum amplitude and/or the detected phase shift with the aid of calibration data; - determining an isoline (ILx) using the adjusted maximum amplitude and/or the adjusted phase shift on the basis of a mathematical or physical model of the thermal flow sensor , the isoline (ILx) ) of a multiplicity of value pairs of thermal parameters (C p , k ) , in particular a thermal conductivity and a heat capacity, of the measurement medium , which value pairs are associated with the same maximum amplitude or the same phase shift; - deriving at least one measurement fluid datum from the isoline (ILx); and
The ventilation device with heat recovery, with a housing , in which a heat exchanger is arranged via which air is conveyed by means of at least one blower arranged in the housing , wherein the housing has a front wall , a back wall and a side wall , as well as air connections for different types of air, i.e. ingoing air, discharge air, outgoing air and outside air, the air connection for ingoing air being an ingoing air connection , the air connection for discharge air being a discharge air connection , the air connection for outgoing air being an outgoing air connection and the air connection for outside air being an outside air connection , at least some of the air connections on the side wall being arranged such that an air connection of a first type of air is situated between at least two air connections of a second type of air, wherein the air connection of the first type of air is the discharge air connection and the air connections of the second type of air are the ingoing air connections , the air connection of the first type of air has a straight air connection piece and the two air connections of the second type of air respectively have an arcuate or angled air connection piece that can be rotated or mounted in a desired angular position, wherein a first air pathway that leads through the heat exchanger and connects the discharge air connection with the outgoing air connection is formed in the housing , and wherein a second air pathway that leads through the heat exchanger and connects the outside air connection with one of the ingoing air connections is formed in the housing , wherein an air junction of the second air pathway that is situated in the housing leads to the other one of the ingoing air connections , and the air junction has an air channel that crosses the first air pathway .
A gas turbine engine component comprising: a ceramic matrix composite (CMC) body including an interior surface characterized by defining a blind cavity ; a barrier coating disposed on an exterior of the CMC body ; and by a ceramic body (80; 180) in the blind cavity and lining at least a portion of the interior surface of the CMC body , the ceramic body (80; 180) defining an open, interconnected network of pores . a ceramic matrix composite (CMC) body including an interior surface characterized by defining a blind cavity ; a barrier coating disposed on an exterior of the CMC body ; and by a ceramic body (80; 180) in the blind cavity and lining at least a portion of the interior surface of the CMC body , the ceramic body (80; 180) defining an open, interconnected network of pores .
Hydrogenated nitrile rubbers comprising i) a content of phosphines, diphosphines or mixtures thereof, within the range from 0 to 1.0% by weight, based on the hydrogenated nitrile rubber, and ii) a content of phosphine sulphides, diphosphine sulphides or mixtures thereof in the range from 0.075 to 10% by weight, based on the hydrogenated nitrile rubber. i) a content of phosphines, diphosphines or mixtures thereof, within the range from 0 to 1.0% by weight, based on the hydrogenated nitrile rubber, and ii) a content of phosphine sulphides, diphosphine sulphides or mixtures thereof in the range from 0.075 to 10% by weight, based on the hydrogenated nitrile rubber.
Delivery device for dosing an operating/auxiliary medium into an exhaust tract of an internal combustion engine, having a valve assembly which has an intake-side valve and has a pressure-side valve , which valves have respective spring-loaded pistons. , wherein the pistons have respective flexible sealing lips and delimit an element space which is able to be subjected to pressure by a delivery diaphragm and through which the operating/auxiliary medium is delivered, characterized in that the sealing lips , on valve plates of the pistons , surround a roughened region .
Use of a film in a method for manufacturing a semiconductor component, wherein the film comprises: a base layer; and an adhesive layer provided on one surface side of the base layer, wherein the arithmetic average roughness (Ra) of the surface of one side of the base layer on which the adhesive layer is not provided is 0.1 μm or more and 2.0 μm or less and the maximum height (Rz) is 1.0 μm or more and 15 μm or less, the arithmetic average roughness (Ra) and the maximum height (Rz) being measured with a small surface roughness tester in accordance with ISO 4287-1997 using a reference length of 4.0 mm, a speed of 0.5 mm/s, and a cutoff of 0.8 mm, and wherein the method for manufacturing a semiconductor component includes: a segmenting step of separating a semiconductor wafer into segments in a state in which the adhesive layer is bonded to a back surface of the semiconductor wafer having circuits formed thereon to obtain semiconductor components; a pickup step of separating the semiconductor components from the adhesive layer; and an evaluation step of evaluating the semiconductor wafer or the semiconductor components in a temperature region of 25°C or lower, or 75°C or higher prior to the pickup step. a base layer; and an adhesive layer provided on one surface side of the base layer, wherein the arithmetic average roughness (Ra) of the surface of one side of the base layer on which the adhesive layer is not provided is 0.1 μm or more and 2.0 μm or less and the maximum height (Rz) is 1.0 μm or more and 15 μm or less, the arithmetic average roughness (Ra) and the maximum height (Rz) being measured with a small surface roughness tester in accordance with ISO 4287-1997 using a reference length of 4.0 mm, a speed of 0.5 mm/s, and a cutoff of 0.8 mm, and wherein the method for manufacturing a semiconductor component includes: a segmenting step of separating a semiconductor wafer into segments in a state in which the adhesive layer is bonded to a back surface of the semiconductor wafer having circuits formed thereon to obtain semiconductor components; a pickup step of separating the semiconductor components from the adhesive layer; and an evaluation step of evaluating the semiconductor wafer or the semiconductor components in a temperature region of 25°C or lower, or 75°C or higher prior to the pickup step. a segmenting step of separating a semiconductor wafer into segments in a state in which the adhesive layer is bonded to a back surface of the semiconductor wafer having circuits formed thereon to obtain semiconductor components; a pickup step of separating the semiconductor components from the adhesive layer; and an evaluation step of evaluating the semiconductor wafer or the semiconductor components in a temperature region of 25°C or lower, or 75°C or higher prior to the pickup step.
A burner that comprises a fan arranged to suction a gaseous mixture comprising at least one gas and air, a flame-holder ramp provided with a plurality of openings to diffuse the gaseous mixture inside a furnace, a coupling member fluidly connecting the fan to the flame-holder ramp , characterized in that the coupling member has an orifice making it possible to release the flame-holder ramp , the orifice being closed by a removable cover , in which the coupling member has a bent geometry having an angle (α) of the bend of between 30° and 90°, the opening of the coupling member being arranged on this bend .
A method comprising: establishing a conference session comprising a communication between a plurality of endpoint devices, wherein a bridging device facilitates a connection between at least some of the endpoint devices engaging in the conference session; providing at least one communication message from the bridging device to a communications manager device associated with the conference session, wherein the at least one communication message provides identification information associated with the bridging device and the conference session; and in response to a requesting endpoint device engaged in the ongoing conference session requesting to add an additional endpoint device to the ongoing conference session, wherein the requesting endpoint device has put the ongoing conference session on hold and is in a call with the additional endpoint device, extending the ongoing conference session to the additional endpoint device, wherein the additional endpoint device is switched from the call with the requesting endpoint device to a connection with the ongoing conference session utilizing the bridging device information and based upon the conference session information obtained from the at least one communication message. establishing a conference session comprising a communication between a plurality of endpoint devices, wherein a bridging device facilitates a connection between at least some of the endpoint devices engaging in the conference session; providing at least one communication message from the bridging device to a communications manager device associated with the conference session, wherein the at least one communication message provides identification information associated with the bridging device and the conference session; and in response to a requesting endpoint device engaged in the ongoing conference session requesting to add an additional endpoint device to the ongoing conference session, wherein the requesting endpoint device has put the ongoing conference session on hold and is in a call with the additional endpoint device, extending the ongoing conference session to the additional endpoint device, wherein the additional endpoint device is switched from the call with the requesting endpoint device to a connection with the ongoing conference session utilizing the bridging device information and based upon the conference session information obtained from the at least one communication message.
A gas isolation valve comprising: a housing with at least one inlet and at least one outlet ; a valve member located within the housing and being moveable between between first open and second closed positions for controlling, in use, the flow of a fluid from the inlet to the outlet of the valve; at least two spaced-apart valve seats in which the valve member is seated so as to form a cavity bounded by the valve seats, an exterior surface of the valve member and an interior surface of the housing; a first conduit extending between the exterior of the housing and the cavity; and a second conduit extending between the cavity and a bore of the valve member, through which conduits, in use, a purge gas can be introduced into the cavity and bore; wherein the valve member is rotatable between the first and second positions such that the bore aligns with the inlet and the outlet in the first position; characterised that the purge gas is dead-headed by the closed valve when the valve member is in the second position and wherein if the isolation valve is damaged, for example from a scratch on the ball or a corroded valve seat and/or o-ring, harmless inert gas rather than the harmful process gas will leak from the cavity and through the damaged area. a housing with at least one inlet and at least one outlet ; a valve member located within the housing and being moveable between between first open and second closed positions for controlling, in use, the flow of a fluid from the inlet to the outlet of the valve; at least two spaced-apart valve seats in which the valve member is seated so as to form a cavity bounded by the valve seats, an exterior surface of the valve member and an interior surface of the housing; a first conduit extending between the exterior of the housing and the cavity; and a second conduit extending between the cavity and a bore of the valve member, through which conduits, in use, a purge gas can be introduced into the cavity and bore; wherein the valve member is rotatable between the first and second positions such that the bore aligns with the inlet and the outlet in the first position; characterised that the purge gas is dead-headed by the closed valve when the valve member is in the second position and wherein if the isolation valve is damaged, for example from a scratch on the ball or a corroded valve seat and/or o-ring, harmless inert gas rather than the harmful process gas will leak from the cavity and through the damaged area.
A delivery system (100; 300; 400) for delivering an implant (10; 200) to a body lumen, the system comprising: an outer tubular member (102; 302; 402) defining a lumen (120; 320) and having a proximal end region (108; 308) and a distal end region (106; 306); an inner tubular member (104; 304; 404) defining a lumen (122; 322) and having a proximal end region (114; 314) and a distal end region (112; 312), the inner tubular member (104; 304; 404) slidably disposed within the lumen (120; 320) of the outer tubular member (102; 302; 402) and having at least one opening (132; 332, 334, 336, 338; 432) positioned in a side wall adjacent to the distal end region (112; 312), the at least one opening (132; 332, 334, 336, 338; 432) extending from an outer surface to an inner surface of the inner tubular member (104; 304; 404); an expandable implant (10; 200) disposed about the outer surface of the inner tubular member (104; 304; 404) adjacent the distal end region (112; 312) of the inner tubular member (104; 304; 404), the implant (10; 200) comprising at least a first rigid portion and a first flexible portion ; and a thread (124; 324; 436, 438) including a distal portion wrapped around the first flexible portion (14; 24) of the implant and configured to maintain the first flexible portion in a collapsed configuration; wherein the distal end region (106; 306) of the outer tubular member (102; 302; 402) is disposed over the first rigid portion of the implant and is configured to maintain the first rigid portion in a radially collapsed configuration. an outer tubular member (102; 302; 402) defining a lumen (120; 320) and having a proximal end region (108; 308) and a distal end region (106; 306); an inner tubular member (104; 304; 404) defining a lumen (122; 322) and having a proximal end region (114; 314) and a distal end region (112; 312), the inner tubular member (104; 304; 404) slidably disposed within the lumen (120; 320) of the outer tubular member (102; 302; 402) and having at least one opening (132; 332, 334, 336, 338; 432) positioned in a side wall adjacent to the distal end region (112; 312), the at least one opening (132; 332, 334, 336, 338; 432) extending from an outer surface to an inner surface of the inner tubular member (104; 304; 404); an expandable implant (10; 200) disposed about the outer surface of the inner tubular member (104; 304; 404) adjacent the distal end region (112; 312) of the inner tubular member (104; 304; 404), the implant (10; 200) comprising at least a first rigid portion and a first flexible portion ; and a thread (124; 324; 436, 438) including a distal portion wrapped around the first flexible portion (14; 24) of the implant and configured to maintain the first flexible portion in a collapsed configuration; wherein the distal end region (106; 306) of the outer tubular member (102; 302; 402) is disposed over the first rigid portion of the implant and is configured to maintain the first rigid portion in a radially collapsed configuration.
Method for stabilizing the nominal output of a thin-film solar module with a laminated composite of two substrates connected to each other by at least one adhesive layer , between which substrates solar cells connected in series are situated, wherein the laminated composite has a laminated pane structure with thin-film solar cells connected in series, wherein the thin-film solar cells have a semiconductor layer made of a chalcopyrite compound, in particular Cu(In/Ga)(S/Se) 2 , wherein the solar cells are illuminated with artificial light with an irradiance of at least 5 kW/m 2 .