mhurhangee/patent-ind-claim-en huggingface dataset:
A component supply device (1 to 1E) comprising a replenishing unit configured to perform replenishment with a new component supply tape (Tb) when a preceding component supply tape (Ta) is exhausted and a sensor (S) configured to sense the exhaustion of the preceding component supply tape (Ta), wherein a confluent portion , where a channel for the preceding component supply tape (Ta) and a channel for the new component supply tape (Tb) join with each other, is formed between the sensor (S) and the replenishing unit , a buckling prevention mechanism arranged on the confluent portion and being configured to prevent buckling of at least one of the preceding component supply tape (Ta) and the new component supply tape (Tb), and a separator configured to separate the unwound new component supply tape (Tb), in the vertical direction with respect to the unwound preceding component supply tape (Ta), wherein the buckling prevention mechanism is a plate spring characterized in that the plate spring is configured to be lifted up by an operator to prevent the preceding component supply tape (Ta) from buckling, when the preceding component supply tape (Ta) is transported through the channel for the preceding component supply tape (Ta), and is further configured to block an opening formed in an upper portion of the channel for the new component supply tape (Tb) to prevent the new component supply tape (Tb) from buckling, after the preceding component supply tape (Ta) is exhausted and the new component supply tape (Tb) is transported through the channel for the new component supply tape (Tb). a replenishing unit configured to perform replenishment with a new component supply tape (Tb) when a preceding component supply tape (Ta) is exhausted and a sensor (S) configured to sense the exhaustion of the preceding component supply tape (Ta), wherein a confluent portion , where a channel for the preceding component supply tape (Ta) and a channel for the new component supply tape (Tb) join with each other, is formed between the sensor (S) and the replenishing unit , a buckling prevention mechanism arranged on the confluent portion and being configured to prevent buckling of at least one of the preceding component supply tape (Ta) and the new component supply tape (Tb), and a separator configured to separate the unwound new component supply tape (Tb), in the vertical direction with respect to the unwound preceding component supply tape (Ta), wherein the buckling prevention mechanism is a plate spring characterized in that the plate spring is configured to be lifted up by an operator to prevent the preceding component supply tape (Ta) from buckling, when the preceding component supply tape (Ta) is transported through the channel for the preceding component supply tape (Ta), and is further configured to block an opening formed in an upper portion of the channel for the new component supply tape (Tb) to prevent the new component supply tape (Tb) from buckling, after the preceding component supply tape (Ta) is exhausted and the new component supply tape (Tb) is transported through the channel for the new component supply tape (Tb).
A tool bit for use with a blade assembly of a grading machine , the tool bit comprising: a shank portion defining a longitudinal axis (L); and a working portion ; wherein the working portion includes at least a first arcuate surface disposed longitudinally adjacent the shank portion ; characterized in that the shank portion defines two flat surfaces circumferentially aligned with the first arcuate surface , the two flat surfaces partially defining a cross-hole extending radially thru the shank portion . a shank portion defining a longitudinal axis (L); and a working portion ; wherein the working portion includes at least a first arcuate surface disposed longitudinally adjacent the shank portion ; characterized in that the shank portion defines two flat surfaces circumferentially aligned with the first arcuate surface , the two flat surfaces partially defining a cross-hole extending radially thru the shank portion .
A cleaner to performing an autonomous driving, comprising: a cleaner body ; a driving unit configured to move the cleaner body; a camera configured to detect 3D coordinates information; and a controller configured to sample a part of detected 3D coordinates information based on a plurality of preset height values, and configured to control the driving unit based on the sampled coordinates information, characterized in that the controller is configured to generate a map formed of a plurality of layers so as to correspond to the plurality of preset height values by using the sampled coordinates information. a cleaner body ; a driving unit configured to move the cleaner body; a camera configured to detect 3D coordinates information; and a controller configured to sample a part of detected 3D coordinates information based on a plurality of preset height values, and configured to control the driving unit based on the sampled coordinates information, characterized in that the controller is configured to generate a map formed of a plurality of layers so as to correspond to the plurality of preset height values by using the sampled coordinates information.
A liquid nutritional composition comprising (a) 4-20% by weight, of a calcium-depleted milk protein concentrate (MPC) that has undergone a first heat treatment to 80°C-140°C, for 1 second to 20 minutes during preparation of the calcium-depleted MPC and has between 15-45% by weight of the calcium removed; (b) 0-30% by weight fat; (c) 5-45% by weight carbohydrate; wherein the liquid nutritional composition has a viscosity of less than 0.2 Pa.s at a temperature of 20°C and shear rate of 100s -1 , and has an energy density of at least 0.5 kcal/ml, and wherein protein provides 10-40% of the total energy content of the composition and wherein the liquid nutritional composition has undergone a second heat treatment to increase storage time of the product. (a) 4-20% by weight, of a calcium-depleted milk protein concentrate (MPC) that has undergone a first heat treatment to 80°C-140°C, for 1 second to 20 minutes during preparation of the calcium-depleted MPC and has between 15-45% by weight of the calcium removed; (b) 0-30% by weight fat; (c) 5-45% by weight carbohydrate; wherein the liquid nutritional composition has a viscosity of less than 0.2 Pa.s at a temperature of 20°C and shear rate of 100s -1 , and has an energy density of at least 0.5 kcal/ml, and wherein protein provides 10-40% of the total energy content of the composition and wherein the liquid nutritional composition has undergone a second heat treatment to increase storage time of the product. wherein the liquid nutritional composition has a viscosity of less than 0.2 Pa.s at a temperature of 20°C and shear rate of 100s -1 , and has an energy density of at least 0.5 kcal/ml, and wherein protein provides 10-40% of the total energy content of the composition and wherein the liquid nutritional composition has undergone a second heat treatment to increase storage time of the product.
Concentrate comprising: - at least one mannosylerythritol lipid, and - at least one polyethylene glycol fatty acid ester having an HLB value greater than or equal to 12, in which the MEL:polyethylene glycol fatty acid ester weight ratio is comprised between 0.01 and 5. - at least one mannosylerythritol lipid, and - at least one polyethylene glycol fatty acid ester having an HLB value greater than or equal to 12,
A drying appliance including ∘ A treating chamber where items are introduced and treated with a process medium; ∘ a heat pump system having a refrigerant circuit in which a refrigerant can flow, said refrigerant circuit including a first heat exchanger where the refrigerant is cooled off, a second heat exchanger where the refrigerant is heated up, a compressor to pressurize and circulate the refrigerant through the refrigerant circuit, and a pressure-lowering device ; said first and/or second heat exchanger being apt to perform heat exchange between said refrigerant flowing in said refrigerant circuit and said process medium; characterized in that it further includes ∘ a grid interposed between said first and said second heat exchanger so that said process medium flowing through the second heat exchanger is at least partially guided toward the first heat exchanger. ∘ A treating chamber where items are introduced and treated with a process medium; ∘ a heat pump system having a refrigerant circuit in which a refrigerant can flow, said refrigerant circuit including a first heat exchanger where the refrigerant is cooled off, a second heat exchanger where the refrigerant is heated up, a compressor to pressurize and circulate the refrigerant through the refrigerant circuit, and a pressure-lowering device ; said first and/or second heat exchanger being apt to perform heat exchange between said refrigerant flowing in said refrigerant circuit and said process medium; characterized in that it further includes ∘ a grid interposed between said first and said second heat exchanger so that said process medium flowing through the second heat exchanger is at least partially guided toward the first heat exchanger.
A rotor blade of a wind power installation comprising: - a heating device for heating the rotor blade , arranged in the rotor blade in the area of its rotor blade surface, wherein - the heating device has electrically conductive heating wires , and - the heating wires run in a sinusoidal, wave-like and/or zigzag-shaped way, with - an amplitude, defining a sinusoidal amplitude, wave height or respectively spike height, and - a wavelength defining a period length, wavelength or respectively a distance between spikes, wherein - the amplitude and/or wavelength varies along the heating wires in order to be able to vary the specific areal heating performance of the heating device in sections, characterized in that - the heating wires are divided into heating groups of several heating wires connected in parallel, and - two or more heating groups are connected with each other in series. - a heating device for heating the rotor blade , arranged in the rotor blade in the area of its rotor blade surface, wherein - the heating device has electrically conductive heating wires , and - the heating wires run in a sinusoidal, wave-like and/or zigzag-shaped way, with - an amplitude, defining a sinusoidal amplitude, wave height or respectively spike height, and - a wavelength defining a period length, wavelength or respectively a distance between spikes, wherein - the amplitude and/or wavelength varies along the heating wires in order to be able to vary the specific areal heating performance of the heating device in sections, - the heating wires are divided into heating groups of several heating wires connected in parallel, and - two or more heating groups are connected with each other in series.
A plastics bat including a handle and a ball-striking head for striking resilient balls, the ball-striking head having a monocoque construction and including: a first discrete unstressed plastics lattice structure defining a first ball-striking surface of the bat ; a second discrete unstressed plastics lattice structure defining a second ball-striking surface of the bat ; and at least one peripheral support structure , wherein the lattice structures are connected to opposite sides of the peripheral support structure at outer peripheral regions of the lattice structures in a spaced apart arrangement wherein an internal space is defined between the first and second lattice structures absent of any load-bearing internal support structures, characterized in that each of the first and second lattice structures is in the form of a double lattice comprising a pair of spaced planar lattice elements supported by internal struts. a first discrete unstressed plastics lattice structure defining a first ball-striking surface of the bat ; a second discrete unstressed plastics lattice structure defining a second ball-striking surface of the bat ; and at least one peripheral support structure , wherein the lattice structures are connected to opposite sides of the peripheral support structure at outer peripheral regions of the lattice structures in a spaced apart arrangement wherein an internal space is defined between the first and second lattice structures absent of any load-bearing internal support structures, characterized in that each of the first and second lattice structures is in the form of a double lattice comprising a pair of spaced planar lattice elements supported by internal struts.
A method for coating a medical device comprising a first layer comprising a first drug, wherein the first layer is free from polymers and the first drug is an antiproliferative agent, the method comprising: applying a solution comprising a second drug and a solvent to form a second layer on the first layer of the medical device, wherein the second drug is an anti-inflammatory agent and the second layer is free from polymers, wherein the first drug in the first layer is in crystalline form and wherein the solution comprising the second drug is applied to the first layer of the medical device such that the first drug maintains its crystalline form.
A method of forming a pleated filter media pack (16; 302) with a filter media sheet , comprising: pressing embossments (38; 274; 286, 292) into the filter media sheet repeatedly with stamping dies ; creasing the filter media sheet at spaced intervals (66, 68; 278; 288) to form a plurality of pleat tips (196; 308), the embossments (38; 274; 286, 292) disposed at least partially between pleat tips (196; 308); pleating the filter media sheet ; and gathering the pleated filter media sheet to provide the pleated filter media pack (16; 302), characterized in that the stamping dies are in a non-roll form and the method comprises: advancing the filter media sheet along a travel path , extending the creasing (66, 68; 278; 288) in a direction that is perpendicular to the travel path and extending the embossments (38; 274; 286, 292) between adjacent creases by pressing said embossments into a first panel (70; 274; 284) of the filter media sheet and skipping the pressing on a second panel (72; 276; 290) that is connected to the first panel (70; 274; 284) by the creasing (66, 68; 278; 288), such that the first panel (70; 274; 284) and the second (72; 276; 290) panel mismatch. pressing embossments (38; 274; 286, 292) into the filter media sheet repeatedly with stamping dies ; creasing the filter media sheet at spaced intervals (66, 68; 278; 288) to form a plurality of pleat tips (196; 308), the embossments (38; 274; 286, 292) disposed at least partially between pleat tips (196; 308); pleating the filter media sheet ; and gathering the pleated filter media sheet to provide the pleated filter media pack (16; 302), characterized in that the stamping dies are in a non-roll form and the method comprises: advancing the filter media sheet along a travel path , extending the creasing (66, 68; 278; 288) in a direction that is perpendicular to the travel path and extending the embossments (38; 274; 286, 292) between adjacent creases by pressing said embossments into a first panel (70; 274; 284) of the filter media sheet and skipping the pressing on a second panel (72; 276; 290) that is connected to the first panel (70; 274; 284) by the creasing (66, 68; 278; 288), such that the first panel (70; 274; 284) and the second (72; 276; 290) panel mismatch.
An implantable device for delivery of a pharmaceutical substance comprising: a core comprising a first polymeric material and a core pharmaceutical substance; and a shell comprising ethylene vinyl acetate and a porogen material, wherein the porogen material comprises particles with a mean diameter between 1 micrometer and 300 micrometers; wherein the implantable device has reduced burst release as compared to a comparison device made entirely of the first polymeric material and the core pharmaceutical substance. a core comprising a first polymeric material and a core pharmaceutical substance; and a shell comprising ethylene vinyl acetate and a porogen material, wherein the porogen material comprises particles with a mean diameter between 1 micrometer and 300 micrometers; wherein the implantable device has reduced burst release as compared to a comparison device made entirely of the first polymeric material and the core pharmaceutical substance.
Device for implementing a mirror therapy , comprising: - a camera for filming a healthy limb of a patient , - a working surface on which the patient positions their healthy or pathological limb, - a screen capable of displaying the image of the healthy limb , which is positioned on the working surface , and which is filmed by the camera , said screen preventing the patient from directly seeing their healthy or pathological limb on the working surface , and - a support structure , which is connected to the working surface , and on which the screen and the camera are mounted, characterized in that the device includes a mirror fixed behind the screen , and in that the camera films the healthy limb reflected in the mirror , and in that the image displayed by the screen is a reflection of the healthy limb in said mirror . - a camera for filming a healthy limb of a patient , - a working surface on which the patient positions their healthy or pathological limb, - a screen capable of displaying the image of the healthy limb , which is positioned on the working surface , and which is filmed by the camera , said screen preventing the patient from directly seeing their healthy or pathological limb on the working surface , and - a support structure , which is connected to the working surface , and on which the screen and the camera are mounted, characterized in that the device includes a mirror fixed behind the screen , and in that the camera films the healthy limb reflected in the mirror , and in that the image displayed by the screen is a reflection of the healthy limb in said mirror .
A peptide capable of binding to an MHC molecule in vitro and being presented to a T cell without antigen processing, wherein said peptide comprises an amino acid sequence selected from the following S-arrestin (S-Ag) peptides: KKKVIFKKISRDKSVTIYLGKKK (SEQ ID No. 15), KKKAFVEQVANVVLKKK (SEQ ID No. 34), KKKVIGLTFRRDLYFSRVQVYPPVGKKK (SEQ ID No. 36), and KKKGILVSYQIKVKKKK (SEQ ID No. 46); or wherein said peptide consists of the S-Ag peptide selected from the following: RERRGIALDGKIKHE (SEQ ID No. 19), and LTKTLTLLPLLANNRERR (SEQ ID No. 25). KKKVIFKKISRDKSVTIYLGKKK (SEQ ID No. 15), KKKAFVEQVANVVLKKK (SEQ ID No. 34), KKKVIGLTFRRDLYFSRVQVYPPVGKKK (SEQ ID No. 36), and KKKGILVSYQIKVKKKK (SEQ ID No. 46); or RERRGIALDGKIKHE (SEQ ID No. 19), and LTKTLTLLPLLANNRERR (SEQ ID No. 25).
A vent for a respiratory therapy system, the vent allowing for a vent flow of gases exhaled by a patient receiving a flow of breathable gas from a volume interior to the respiratory therapy system to ambient , the vent comprising: a vent body having formed therein a plurality of slots , the plurality of slots together allowing the vent flow of exhaled gases from the volume to ambient , wherein each of the plurality of slots has an inlet and an outlet , a length extending perpendicularly between the inlet and the outlet , a width and a height, each of the width and the height extending in a direction perpendicular to the length, wherein the vent body is configured such that, for each of the plurality of slots , the width is significantly greater than the height, and the length is significantly greater than the height, and wherein the vent body is configured such that the plurality of slots are arranged such that the widths of the plurality of slots extend in mutually parallel directions. a vent body having formed therein a plurality of slots , the plurality of slots together allowing the vent flow of exhaled gases from the volume to ambient , wherein each of the plurality of slots has an inlet and an outlet , a length extending perpendicularly between the inlet and the outlet , a width and a height, each of the width and the height extending in a direction perpendicular to the length, wherein the vent body is configured such that, for each of the plurality of slots , the width is significantly greater than the height, and the length is significantly greater than the height, and wherein the vent body is configured such that the plurality of slots are arranged such that the widths of the plurality of slots extend in mutually parallel directions.
Heat exchanger assembly, comprising a heat exchanger connected to a first side mounting portion and a second side mounting portion , wherein the heat exchanger is connected to the first side mounting portion by means of a first connection assembly and is connected to the second side mounting portion by a second connection assembly , the first connection assembly being a releasable spheroid joint, characterized in that the first connection assembly comprises a first spheroid joint member located on the heat exchanger , and at least two second spheroid joint members located on the first side mounting portion , adapted for releasable connection with the first spheroid joint member .
A method of providing a solid texture map to a graphics processing unit , GPU, comprising: dividing renderable content into one or more layers ; dividing a layer of the one or more layers into a plurality of tiles ; dividing a tile of the plurality of tiles into a plurality of partitions ; determining that a set of partitions of the plurality of partitions is a solid color wherein the determining step comprises scanning each pixel of the plurality of partitions; generating a solid texture map indicating that the set of partitions of the plurality of partitions is a solid color; and providing access to the solid texture map to a GPU. dividing renderable content into one or more layers ; dividing a layer of the one or more layers into a plurality of tiles ; dividing a tile of the plurality of tiles into a plurality of partitions ; determining that a set of partitions of the plurality of partitions is a solid color wherein the determining step comprises scanning each pixel of the plurality of partitions; generating a solid texture map indicating that the set of partitions of the plurality of partitions is a solid color; and providing access to the solid texture map to a GPU.
A watercraft carrier , comprising: a base having an outboard end , a distal end , and an upper surface ; a hub disposed at the distal end of the base ; an upright coupled to the hub and configured to rotate with respect to the base ; characterized in that a handle disposed at the outboard end of the base configured to release the upright from a locked configuration such that the upright can rotate from a first position to a second position. a base having an outboard end , a distal end , and an upper surface ; a hub disposed at the distal end of the base ; an upright coupled to the hub and configured to rotate with respect to the base ; characterized in that a handle disposed at the outboard end of the base configured to release the upright from a locked configuration such that the upright can rotate from a first position to a second position.