mhurhangee/patent-ind-claim-en huggingface dataset:
A water heater comprising: a hot water tank ; a heating unit which heats water in the hot water tank ; and a middle temperature water outlet unit provided inside the hot water tank , wherein the middle temperature water outlet unit includes a plurality of openings through which hot water within the hot water tank flows into the middle temperature water outlet unit , a switching portion that changes an opening area of each of the plurality of openings , and an extraction portion , the middle temperature water outlet unit mixes respective parts of the hot water flowing from the plurality of openings into the middle temperature water outlet unit to produce hot water having a predetermined temperature, and discharges the hot water having the predetermined temperature from the extraction portion to an outside of the middle temperature water outlet unit , and when at least two of the plurality of openings are opened, a temperature of the hot water flowing into the middle temperature water outlet unit from one of the two opened openings is different from a temperature of the hot water flowing into the middle temperature water outlet unit from another one of the two opened openings , characterized in that the middle temperature water outlet unit further includes a shape memory portion that moves the switching portion based on a temperature of hot water around the shape memory portion . a hot water tank ; a heating unit which heats water in the hot water tank ; and a middle temperature water outlet unit provided inside the hot water tank , wherein the middle temperature water outlet unit includes a plurality of openings through which hot water within the hot water tank flows into the middle temperature water outlet unit , a switching portion that changes an opening area of each of the plurality of openings , and an extraction portion , a plurality of openings through which hot water within the hot water tank flows into the middle temperature water outlet unit , a switching portion that changes an opening area of each of the plurality of openings , and an extraction portion , the middle temperature water outlet unit mixes respective parts of the hot water flowing from the plurality of openings into the middle temperature water outlet unit to produce hot water having a predetermined temperature, and discharges the hot water having the predetermined temperature from the extraction portion to an outside of the middle temperature water outlet unit , and when at least two of the plurality of openings are opened, a temperature of the hot water flowing into the middle temperature water outlet unit from one of the two opened openings is different from a temperature of the hot water flowing into the middle temperature water outlet unit from another one of the two opened openings , characterized in that the middle temperature water outlet unit further includes a shape memory portion that moves the switching portion based on a temperature of hot water around the shape memory portion .
A motorcycle comprising: a motorcycle frame structure (FR); a fuel tank supported by the motorcycle frame structure (FR); and a fuel tank covering to cover an upper portion of the fuel tank , wherein the covering covers an intermediate portion of the fuel tank with respect to a widthwise direction of the motorcycle, which intermediate portion ranges from a front end portion of the fuel tank to a rear end portion thereof, the covering includes a shielding portion provided at a front portion thereof and configured to cover a mounting area at which a key cylinder disposed forwardly of the fuel tank is mounted on the motorcycle frame structure (FR), the front portion of the fuel tank covering is fitted to the fuel tank by means of a fastening member , characterized in that a rear end mounting member , defined at a rear portion of the fuel tank covering , is fitted to a rear end mounting seat , defined at a rear end portion of the fuel tank , by means of a fastening member , wherein the rear portion of the fuel tank covering is fitted to the motorcycle frame structure (FR) through the rear end mounting seat of the fuel tank at a location rearwardly of the fuel tank by means of the fastening member . a motorcycle frame structure (FR); a fuel tank supported by the motorcycle frame structure (FR); and a fuel tank covering to cover an upper portion of the fuel tank , wherein the covering covers an intermediate portion of the fuel tank with respect to a widthwise direction of the motorcycle, which intermediate portion ranges from a front end portion of the fuel tank to a rear end portion thereof, the covering includes a shielding portion provided at a front portion thereof and configured to cover a mounting area at which a key cylinder disposed forwardly of the fuel tank is mounted on the motorcycle frame structure (FR), the front portion of the fuel tank covering is fitted to the fuel tank by means of a fastening member , characterized in that a rear end mounting member , defined at a rear portion of the fuel tank covering , is fitted to a rear end mounting seat , defined at a rear end portion of the fuel tank , by means of a fastening member , wherein the rear portion of the fuel tank covering is fitted to the motorcycle frame structure (FR) through the rear end mounting seat of the fuel tank at a location rearwardly of the fuel tank by means of the fastening member .
A peptide product comprising a surfactant X covalently attached to a peptide, the peptide comprising a linker amino acid U and at least one other amino acid: wherein the surfactant X is wherein: A is a hydrophobic group which is a substituted or unsubstituted C 1 -C 30 alkyl group, a substituted or unsubstituted alkoxyaryl group, a substituted or unsubstituted aralkyl group, or a steroid nucleus-containing moiety; and B is a hydrophilic saccharide group covalently attached to the peptide via the linker amino acid U; and wherein the peptide product displays arrestin-biased agonism or antagonism compared to the unmodified peptide not covalently attached to the surfactant X, wherein the peptide product is selected from compounds EU-A700 to EU-A1174 having SEQ. ID. NOs 646-1120 shown in Table 4, Figure 9. A is a hydrophobic group which is a substituted or unsubstituted C 1 -C 30 alkyl group, a substituted or unsubstituted alkoxyaryl group, a substituted or unsubstituted aralkyl group, or a steroid nucleus-containing moiety; and B is a hydrophilic saccharide group covalently attached to the peptide via the linker amino acid U;
Arrangement having an electrical appliance and a panel for the electrical appliance for installation in a kitchen , wherein - the electrical appliance has a front side, - the electrical appliance has, on the front side, a substantially full-surface-area door for opening purposes, - with a panel which is to be fitted flat to the door , - a display device is arranged on the door , - the display device has an illuminated display , - at least a portion of the display device projects beyond the front side of the door , - the panel is fastened to the door of the electrical appliance and largely covers the said door, characterized in that - a recess is provided in the panel in order to arrange the display device in the said panel, - the panel is covered, at least in the region of the display device, with a lamination , - the lamination is of transparent design in the region of the display device in such a way that the illuminated display shines through the lamination and is discernible in an activated state, and only the lamination with its visual appearance can be seen in a deactivated state of the illuminated display . - the electrical appliance has a front side, - the electrical appliance has, on the front side, a substantially full-surface-area door for opening purposes, - with a panel which is to be fitted flat to the door , - a display device is arranged on the door , - the display device has an illuminated display , - at least a portion of the display device projects beyond the front side of the door , - the panel is fastened to the door of the electrical appliance and largely covers the said door, characterized in that - a recess is provided in the panel in order to arrange the display device in the said panel, - the panel is covered, at least in the region of the display device, with a lamination , - the lamination is of transparent design in the region of the display device in such a way that the illuminated display shines through the lamination and is discernible in an activated state, and only the lamination with its visual appearance can be seen in a deactivated state of the illuminated display .
Method for controlling an aircraft in the form of a multicopter which has a plurality of redundant rotors , preferably arranged in a common rotor plane, in order, on the one hand, to generate lift and, on the other hand, by inclination of the at least one rotor plane, also to generate propulsion, wherein attitude regulation and control of the multicopter are effected by alterations to rotor speeds in dependence upon pilot control commands, the rotors being in data-transmitting connection with one another via a fail-safe network , which is implemented with multiple redundancy, and communicating their respective operating states, especially their rotor speeds, in the network ; the network contains a second plurality of controllers which, autonomously and decentrally with reference to sensor data, and preferably also with reference to the rotor operating states, each determine a control signal for at least one rotor and make that control signal available in the network ; the rotors are controlled by means of the control signals so that a flight characteristic of the multicopter corresponds substantially to what has been specified by the pilot control command, characterised in that the sensor data in the network are determined by a first plurality of distributed, redundant sensor units which determine control-relevant data of the multicopter relating to inclination, acceleration, yaw rate and/or position in all three spatial axes of the multicopter and make that data available in the network .
A process for manufacturing a thermally conductive thin sheet, which comprises: preparing a thermally conductive composition comprising: preparing a carbon-based filler; adding the carbon-based filler to a solvent mixture of an acetate solvent, an aromatic hydrocarbon solvent, and an alicyclic ketone solvent and stirring them to obtain a first dispersion solution; adding a metallic filler to the first dispersion solution and stirring them to obtain a second dispersion solution; and adding a binder resin to the second dispersion solution and stirring them to obtain a liquid composition. blending an adhesive with the thermally conductive composition, molding the thermally conductive composition in a sheet form, and drying the molded sheet to obtain a thermally conductive adhesive film; forming thermally conductive filler layers on both sides of the thermally conductive adhesive film by coating at least one thermally conductive filler in the form of a solid powder without an adhesive or a binder resin to form a sheet; and rolling the obtained sheet to press the solid particles of the thermally conductive filler to bond each other. preparing a thermally conductive composition comprising: preparing a carbon-based filler; adding the carbon-based filler to a solvent mixture of an acetate solvent, an aromatic hydrocarbon solvent, and an alicyclic ketone solvent and stirring them to obtain a first dispersion solution; adding a metallic filler to the first dispersion solution and stirring them to obtain a second dispersion solution; and adding a binder resin to the second dispersion solution and stirring them to obtain a liquid composition. preparing a carbon-based filler; adding the carbon-based filler to a solvent mixture of an acetate solvent, an aromatic hydrocarbon solvent, and an alicyclic ketone solvent and stirring them to obtain a first dispersion solution; adding a metallic filler to the first dispersion solution and stirring them to obtain a second dispersion solution; and adding a binder resin to the second dispersion solution and stirring them to obtain a liquid composition. blending an adhesive with the thermally conductive composition, molding the thermally conductive composition in a sheet form, and drying the molded sheet to obtain a thermally conductive adhesive film; forming thermally conductive filler layers on both sides of the thermally conductive adhesive film by coating at least one thermally conductive filler in the form of a solid powder without an adhesive or a binder resin to form a sheet; and rolling the obtained sheet to press the solid particles of the thermally conductive filler to bond each other.
A method of operating a wearable device, the method comprising: hierarchically displaying each of a plurality of icon sets arranged along each of a plurality of virtual closed loops on a display of the wearable device, the plurality of virtual closed loops comprising a first virtual closed loop and a second virtual closed loop, and the plurality of icon sets comprising a first icon set arranged along the first virtual closed loop and a second icon set arranged along the second virtual closed loop; obtaining a first input to a bezel ring of the wearable device; displaying the first virtual closed loop and the second virtual closed loop on the display of the wearable device by exchanging a position of the first virtual closed loop and a position of the second virtual closed loop based on the first input to the bezel ring; determining at least one icon included in a virtual closed loop arranged along a boundary of the display based on a second input to the bezel ring; and executing a preset function corresponding to the determined at least one icon. hierarchically displaying each of a plurality of icon sets arranged along each of a plurality of virtual closed loops on a display of the wearable device, the plurality of virtual closed loops comprising a first virtual closed loop and a second virtual closed loop, and the plurality of icon sets comprising a first icon set arranged along the first virtual closed loop and a second icon set arranged along the second virtual closed loop; obtaining a first input to a bezel ring of the wearable device; displaying the first virtual closed loop and the second virtual closed loop on the display of the wearable device by exchanging a position of the first virtual closed loop and a position of the second virtual closed loop based on the first input to the bezel ring; determining at least one icon included in a virtual closed loop arranged along a boundary of the display based on a second input to the bezel ring; and executing a preset function corresponding to the determined at least one icon.
An engine generator set, comprising: an engine compartment comprising an internal combustion engine coupled to an alternator , such that a crank shaft of the internal combustion engine extends along a horizontal axis of the internal combustion engine to couple with a rotor of the alternator to form a horizontally shafted engine and alternator ; a cooling compartment comprising one or more cooling system components mounted above and/or below the horizontally shafted engine and alternator ; a generator set housing enclosing the engine compartment and the cooling compartment , wherein a height of the generator set housing is equal to or larger than a length of the generator set housing , and wherein the length is substantially parallel to the horizontal axis ; and characterised in that the engine generator set further comprises: a vented partition arranged within the generator set housing for separating the cooling compartment from the engine compartment , wherein the vented partition comprises a pair of inclined planar sides extending completely across a width and a length of the generator set housing , wherein the inclined planar sides extend at an acute angle from opposing sides of the generator set housing to meet at a central ridge , wherein the acute angle is measured between horizontal and each inclined planar side , and wherein openings within the central ridge enable heated air from the engine compartment to be drawn into the cooling compartment by one or more electrically driven fans . an engine compartment comprising an internal combustion engine coupled to an alternator , such that a crank shaft of the internal combustion engine extends along a horizontal axis of the internal combustion engine to couple with a rotor of the alternator to form a horizontally shafted engine and alternator ; a cooling compartment comprising one or more cooling system components mounted above and/or below the horizontally shafted engine and alternator ; a generator set housing enclosing the engine compartment and the cooling compartment , wherein a height of the generator set housing is equal to or larger than a length of the generator set housing , and wherein the length is substantially parallel to the horizontal axis ; and characterised in that the engine generator set further comprises: a vented partition arranged within the generator set housing for separating the cooling compartment from the engine compartment , wherein the vented partition comprises a pair of inclined planar sides extending completely across a width and a length of the generator set housing , wherein the inclined planar sides extend at an acute angle from opposing sides of the generator set housing to meet at a central ridge , wherein the acute angle is measured between horizontal and each inclined planar side , and wherein openings within the central ridge enable heated air from the engine compartment to be drawn into the cooling compartment by one or more electrically driven fans .
An attachment system , comprising: a) an attachment platform included in or configured to be coupled with a load-bearing platform comprising at least a portion of a garment or a pack; and b) a plurality of openings formed in the attachment platform and being hexagonally-shaped, wherein the plurality of openings are arranged in a repeating hexagonal pattern corresponding to a hexagon that includes six sides including a first pair of parallel sides , a second pair of parallel sides non-parallel to the first pair, and a third pair of parallel sides non-parallel to the first pair and non-parallel to the second pair, wherein the openings are sized to facilitate attachment of an accessory to the attachment platform by weaving of an attachment member associated with the accessory through multiple of the openings along any of at least three differing axes respectively parallel or perpendicular to one of the first pair of parallel sides, the second pair of parallel sides, or the third pair of parallel sides; wherein the plurality of openings comprises a plurality of hexagonal openings separated by a plurality of interconnected links extending along and between adjacent sides of adjacent hexagonal openings, each hexagonal opening having a side-to-side width (D1) corresponding to a distance between two parallel sides of said hexagonal opening and a corner-to-corner width (D2) corresponding to a distance between two corners positioned on opposite ends of a bisecting axis of said hexagonal opening, characterized in that said side-to-side width is 2.54 centimetres (1 inch) and/or said corner-to-corner width is 2.896 centimetres (1.14 inches). a) an attachment platform included in or configured to be coupled with a load-bearing platform comprising at least a portion of a garment or a pack; and b) a plurality of openings formed in the attachment platform and being hexagonally-shaped, wherein the plurality of openings are arranged in a repeating hexagonal pattern corresponding to a hexagon that includes six sides including a first pair of parallel sides , a second pair of parallel sides non-parallel to the first pair, and a third pair of parallel sides non-parallel to the first pair and non-parallel to the second pair, wherein the openings are sized to facilitate attachment of an accessory to the attachment platform by weaving of an attachment member associated with the accessory through multiple of the openings along any of at least three differing axes respectively parallel or perpendicular to one of the first pair of parallel sides, the second pair of parallel sides, or the third pair of parallel sides;
A heat dissipation material capable of being arranged between a heat generation unit such as a battery cell, and a heat dissipation unit such as a heat dissipation plate, the heat dissipation material comprising: a plurality of elastic foam pad members; and a graphite member which surrounds the elastic foam pad members for heat conduction, the plurality of elastic foam members being capable of buffering the graphite member from an external force and allowing the graphite member to be in close contact with both the heat generation unit and the heat dissipation unit, wherein the graphite member surrounds each of the plurality of elastic foam pad members, and wherein the graphite member is provided to surround each of a pair of the elastic foam pad members, so that one of both side ends of the graphite member surrounds any one of the pair of elastic foam pad members, and the other of both side ends of the graphite member surrounds the other one of the pair of elastic foam pad members, so that heat transfer efficiency is improved. a plurality of elastic foam pad members; and a graphite member which surrounds the elastic foam pad members for heat conduction, the plurality of elastic foam members being capable of buffering the graphite member from an external force and allowing the graphite member to be in close contact with both the heat generation unit and the heat dissipation unit, wherein the graphite member surrounds each of the plurality of elastic foam pad members, and wherein the graphite member is provided to surround each of a pair of the elastic foam pad members, so that one of both side ends of the graphite member surrounds any one of the pair of elastic foam pad members, and the other of both side ends of the graphite member surrounds the other one of the pair of elastic foam pad members, so that heat transfer efficiency is improved.
A piston ring, comprising a piston ring body, wherein a DLC layer is applied on the outer surface of the piston ring body at least on the running surface as functional layer, wherein a protective layer is applied on the functional layer at least on partial surfaces of the piston ring running surface, wherein the protective layer consists of a material which is different from the material of the functional layer and has a greater thermal resistance than that, wherein the protective layer is present in form of superficial enclosures in recesses of the functional layer. wherein a DLC layer is applied on the outer surface of the piston ring body at least on the running surface as functional layer, wherein a protective layer is applied on the functional layer at least on partial surfaces of the piston ring running surface, wherein the protective layer consists of a material which is different from the material of the functional layer and has a greater thermal resistance than that, wherein the protective layer is present in form of superficial enclosures in recesses of the functional layer.
. A method for image segmentation using an encoding-decoding network including (i) K encoding filters (1-1)-th to (1-K)-th; (ii) K decoding filters (2-K)-th to (2-1)-th , each of which corresponds to each of the (1-1)-th to the (1-K)-th filters; and (iii) a 1-st to a K-th loss layers respectively interacting with the K filters included in the decoding layer, wherein K is an integer greater than or equal to 3, characterized in that the encoding-decoding network further comprises: H intermediate dilation convolution filters (4-1)-th to (4-H)-th, each positioned between one of the encoding filters (1-1)-th to the (1-K)-th and its corresponding decoding filter, wherein H is an integer greater than 0 and no larger than K.