mhurhangee/ep-ind-claims huggingface dataset:
Use of a compound of formula A for substituting sodium chloride in food products, wherein the compound of formula A has the following structure: where: R 1 is H or C 1 -C 10 alkyl; R 2 is H or C 1 -C 3 alkyl; X is CHOR 3 or C=O; R 3 is H, C 1 -C 3 alkyl, or R 4 is H or C 1 -C 3 alkyl; Y is CR 5 =CH or CHR 5 -CH 2; R 5 is H, OH, -OCH 3, -OCH 2 CH 3, -O-OCH 2 CH 2 CH 3, or and R 6 is H or C 1 -C 3 alkyl. wherein the compound of formula A is present in the food product in an amount sufficient to enhance the perception of saltiness of the food product. R 1 is H or C 1 -C 10 alkyl; R 2 is H or C 1 -C 3 alkyl; X is CHOR 3 or C=O; R 3 is H, C 1 -C 3 alkyl, or R 4 is H or C 1 -C 3 alkyl; Y is CR 5 =CH or CHR 5 -CH 2; R 5 is H, OH, -OCH 3, -OCH 2 CH 3, -O-OCH 2 CH 2 CH 3, or and R 6 is H or C 1 -C 3 alkyl. wherein the compound of formula A is present in the food product in an amount sufficient to enhance the perception of saltiness of the food product.
A system comprising: - a lighting device (1, 21) comprising a sensor and a light source, wherein the sensor is configured to detect a presence in a space and to detect an emulator signal, - an emulator device configured to convey the emulator signal to the sensor; - a controller configured to control the emulator device to transmit the emulator signal at a first moment in time, and to determine a verification condition of the sensor if the sensor detects the emulator signal at the first moment in time; and characterised in that, the light source is configured to provide ultraviolet light in operation and to interrupt providing said ultraviolet light in operation when the sensor detects presence in said space. - a lighting device (1, 21) comprising a sensor and a light source, wherein the sensor is configured to detect a presence in a space and to detect an emulator signal, - an emulator device configured to convey the emulator signal to the sensor; - a controller configured to control the emulator device to transmit the emulator signal at a first moment in time, and to determine a verification condition of the sensor if the sensor detects the emulator signal at the first moment in time;
A method of manufacturing a magnet embedded core including a magnet embedded in resin filling a magnet insertion hole extending axially in a laminated iron core, the method comprising: a first step of placing the laminated iron core on a manufacturing device (20,22), a resin charging step wherein resin material in solid form is charged into the magnet insertion hole of the laminated iron core, the resin material consisting of thermosetting resin; a melting step of melting the resin material in the magnet insertion hole; a pressurization step of pressurizing an interior of the magnet insertion hole; a thermally curing step of the melted resin material pressurized in the pressurizing step by heating the laminated iron core to progress the chemical reaction of the melted resin material such that the inserted magnet is fixed to the laminated iron core by the cured resin material, characterized in that the melting step includes a step of preheating the magnet in a heating oven and a step of inserting the preheated magnet into the magnet insertion hole and thereby at least partially melting the resin material. a first step of placing the laminated iron core on a manufacturing device (20,22), a resin charging step wherein resin material in solid form is charged into the magnet insertion hole of the laminated iron core, the resin material consisting of thermosetting resin; a melting step of melting the resin material in the magnet insertion hole; a pressurization step of pressurizing an interior of the magnet insertion hole; a thermally curing step of the melted resin material pressurized in the pressurizing step by heating the laminated iron core to progress the chemical reaction of the melted resin material such that the inserted magnet is fixed to the laminated iron core by the cured resin material, characterized in that the melting step includes a step of preheating the magnet in a heating oven and a step of inserting the preheated magnet into the magnet insertion hole and thereby at least partially melting the resin material.
A biosolids treatment system that treats human biosolids to produce beneficial use products including low carbon ash, high carbon activated biochar, and Class A biosolids with a solids content ≥ 90%, the system comprising: variable feed conveyors (222a, 222b) that convey a mixed biosolid feed into a dryer and a gasifier, wherein the mixed biosolid feed comprises a mixture of dried biosolid output from the dryer and wet biosolid that has not been in the dryer; wherein said dryer dries the mixed biosolid feed to a predetermined moisture content to create dried biosolid output wherein a moisture sensor measures the predetermined moisture content which is controlled by varying a speed of the variable feed conveyors; and characterized in that said gasifier uses the mixed biosolid feed as its exclusive fuel source and converts the biosolid feed into usable thermal energy for system use and at least one of the beneficial use products. variable feed conveyors (222a, 222b) that convey a mixed biosolid feed into a dryer and a gasifier, wherein the mixed biosolid feed comprises a mixture of dried biosolid output from the dryer and wet biosolid that has not been in the dryer; wherein said dryer dries the mixed biosolid feed to a predetermined moisture content to create dried biosolid output wherein a moisture sensor measures the predetermined moisture content which is controlled by varying a speed of the variable feed conveyors; and characterized in that said gasifier uses the mixed biosolid feed as its exclusive fuel source and converts the biosolid feed into usable thermal energy for system use and at least one of the beneficial use products.
A method of driving a temple of a temple device including an automatic temple position switching mechanism, the temple device being used for a loom that successively weaves a fabric having two or more weave sections with different weft densities in accordance with a set weaving length that has been set beforehand for each of the weave sections, the temple being displaceable between two positions that are an operating position and a standby position, the automatic temple position switching mechanism automatically switching a position of the temple between the two positions in accordance with a density of the fabric to be woven, the method being performed when displacing the temple from the operating position toward the standby position in accordance with switching between the weave sections, the method comprising: successively detecting a weaving length of a weave section that is being woven; and characterised by displacing the temple in accordance with a preset operation mode including at least a movement start timing of the temple such that movement of the temple is started before the detected weaving length reaches the set weaving length and such that the temple reaches a non-operating position after a plurality of weft-insertion periods. successively detecting a weaving length of a weave section that is being woven; and characterised by displacing the temple in accordance with a preset operation mode including at least a movement start timing of the temple such that movement of the temple is started before the detected weaving length reaches the set weaving length and such that the temple reaches a non-operating position after a plurality of weft-insertion periods.
Profile of a crossbar carrier, in particular for mounting to the roof rails of vehicles, consisting of a formed solid body, the outer profile of which has a rounded front part and a trailing part at the rear end, wherein the bottom area of the front part has a flat leading surface running diagonally downwards, characterized in that said flat leading surface is followed by a rounded tear-off projection terminating along its entire length by a tear-off edge, which is located in an area defined by the first interval of 0.31p s to 0.73p s measured perpendicularly from the determining line (a) and the second interval of 0,75p k to 0.98p k, where the determining line (a) is the line between the furthest point of the front part and the furthest point of the outflow part of the body, (p s) is the first determining parameter, based on the diameter of the third circle (k 3) inscribed at the point of the greatest width of the encircled cross-sectional profile of the body, and (p k) is the second determining parameter, based on the diameter of the second circle (k 2) corresponding to the linear distance between points and, said area resulting from the intersection of a first surface defined between two straight lines parallel to the determining line (a) and spaced from said determining line (a) by a respective distance of 0.31 p s and 0.73 p s and a second surface defined between two auxiliary circles and, concentric with the second circle and of respective diametres 0.75 p k and 0.98 p k.
A revision implant for a total ankle replacement system, comprising: a body extending between a first planar surface and a second planar surface; a head extending from the first planar surface of the body and configured to couple the revision implant to an additional component of a multi-component prosthesis; and one or more protrusions extending from the second planar surface configured to anchor the revision implant to a resected talus, wherein the one or more protrusions extend from the second planar surface at a predetermined angle (α) between 5° and 75°, characterised in that the revision implant further comprises a central stem extending from the second planar surface, the central stem configured to couple the revision implant to an augment configured to fill one or more voids of the resected bone. a body extending between a first planar surface and a second planar surface; a head extending from the first planar surface of the body and configured to couple the revision implant to an additional component of a multi-component prosthesis; and one or more protrusions extending from the second planar surface configured to anchor the revision implant to a resected talus, wherein the one or more protrusions extend from the second planar surface at a predetermined angle (α) between 5° and 75°, characterised in that the revision implant further comprises a central stem extending from the second planar surface, the central stem configured to couple the revision implant to an augment configured to fill one or more voids of the resected bone.
A shoe assembly for an aerial cable transportation system comprising at least one supporting cable and at least one transport unit moved on the supporting cable; wherein the shoe assembly comprises: - an inlet; - an outlet; - at least one seat extending from the inlet to the outlet to support the at least one supporting cable; - at least one safety device to hold the at least one supporting cable at the corresponding at least one seat; characterized in that each safety device comprises: - a supporting arm pivotable about a substantially vertical axis and passing at one end thereof at the side of the at least one seat; and - at least one blocking head coupled to the supporting arm; in which - in a first configuration, the supporting arm is orthogonal to and above the at least one seat and the at least one blocking head is at the at least one seat to hold the at least one supporting cable; - in a second configuration the supporting arm is parallel to and at the side of the at least one seat so that the supporting arm and the at least one blocking head do not represent an obstacle to the transit of the at least one transport unit along the shoe assembly. - an inlet; - an outlet; - at least one seat extending from the inlet to the outlet to support the at least one supporting cable; - at least one safety device to hold the at least one supporting cable at the corresponding at least one seat; - a supporting arm pivotable about a substantially vertical axis and passing at one end thereof at the side of the at least one seat; and - at least one blocking head coupled to the supporting arm; in which - in a first configuration, the supporting arm is orthogonal to and above the at least one seat and the at least one blocking head is at the at least one seat to hold the at least one supporting cable; - in a second configuration the supporting arm is parallel to and at the side of the at least one seat so that the supporting arm and the at least one blocking head do not represent an obstacle to the transit of the at least one transport unit along the shoe assembly.
A method of forming a three-dimensional object, comprising: providing a carrier and an optically transparent member having a build surface (15, 920), said carrier and said build surface (15, 920) defining a build region therebetween; filling said build region with a polymerizable liquid; continuously or intermittently irradiating said build region with light through said optically transparent member to form a solid polymer from said polymerizable liquid; applying a reduced pressure and polymerization inhibitor-enriched gas (760, 982) to the polymerizable liquid through the optically transparent member to thereby reduce a gas content of the polymerizable liquid; and continuously or intermittently advancing (e.g., sequentially or concurrently with said irradiating step) said carrier away from said build surface (15, 920) to form said three-dimensional object from said solid polymer; wherein applying a reduced pressure and polymerization inhibitor-enriched gas (760, 982) to the polymerizable liquid through the optically transparent member to thereby reduce a gas content of the polymerizable liquid comprises supplying a polymerization inhibitor gas to the polymerizable liquid through the optically transparent member; and wherein supplying a polymerization inhibitor gas to the polymerization liquid comprises supplying the polymerization inhibitor gas at a substantially constant pressure. providing a carrier and an optically transparent member having a build surface (15, 920), said carrier and said build surface (15, 920) defining a build region therebetween; filling said build region with a polymerizable liquid; continuously or intermittently irradiating said build region with light through said optically transparent member to form a solid polymer from said polymerizable liquid; applying a reduced pressure and polymerization inhibitor-enriched gas (760, 982) to the polymerizable liquid through the optically transparent member to thereby reduce a gas content of the polymerizable liquid; and continuously or intermittently advancing (e.g., sequentially or concurrently with said irradiating step) said carrier away from said build surface (15, 920) to form said three-dimensional object from said solid polymer; wherein applying a reduced pressure and polymerization inhibitor-enriched gas (760, 982) to the polymerizable liquid through the optically transparent member to thereby reduce a gas content of the polymerizable liquid comprises supplying a polymerization inhibitor gas to the polymerizable liquid through the optically transparent member; and wherein supplying a polymerization inhibitor gas to the polymerization liquid comprises supplying the polymerization inhibitor gas at a substantially constant pressure.
An article of footwear comprising: an upper; a sole structure; wherein the sole structure comprises a sole component, wherein the sole component at least partially comprises an auxetic structure, wherein the sole component includes a plurality of inner recesses on an inner surface of the sole component, the plurality of inner recesses comprising at least a first inner recess, wherein the first inner recess does not extend completely through the sole component; wherein the sole component includes a plurality of outer recesses on an outer surface of the sole component, the plurality of outer recesses comprising at least a first outer recess, wherein the first outer recess does not extend completely through the sole component; and wherein the plurality of inner recesses and the plurality of outer recesses are arranged on the sole structure to provide the sole component with the auxetic structure, wherein the first inner recess is a convex opening with at least a first inner arm, and the first outer recess is a convex opening with at least a first outer arm. an upper; a sole structure; wherein the sole structure comprises a sole component, wherein the sole component at least partially comprises an auxetic structure, wherein the sole component includes a plurality of inner recesses on an inner surface of the sole component, the plurality of inner recesses comprising at least a first inner recess, wherein the first inner recess does not extend completely through the sole component; wherein the sole component includes a plurality of outer recesses on an outer surface of the sole component, the plurality of outer recesses comprising at least a first outer recess, wherein the first outer recess does not extend completely through the sole component; and wherein the plurality of inner recesses and the plurality of outer recesses are arranged on the sole structure to provide the sole component with the auxetic structure, wherein the first inner recess is a convex opening with at least a first inner arm, and the first outer recess is a convex opening with at least a first outer arm.
A bellows of a gangway between two articulately connected vehicle parts (2, 3), wherein the bellows comprises at least one frame device, wherein the frame device includes several bellows frames connecting successively disposed individual folds or corrugations of the bellows, wherein the frame device is designed to be at least partially flame-retardant, wherein the bellows frames have a support acting as a fire protection at least in the area of the floor, wherein the support is designed as a profile that can be joined with the respective bellows frame, characterized in that the profile comprises a fire protection coating, which is designed as a material inflating under the action of heat.
A process for coating a gas turbine engine component, comprising: applying a bond coat on a superalloy substrate of said component; applying a thermal barrier material to said bond coat; mixing a rare earth apatite and a rare earth zirconate to form a randomly dispersed system; and applying said randomly dispersed system to said thermal barrier material via Suspension Plasma Spray or Solution Precursor Plasma Spray (SPPS). applying a bond coat on a superalloy substrate of said component; applying a thermal barrier material to said bond coat; mixing a rare earth apatite and a rare earth zirconate to form a randomly dispersed system; and applying said randomly dispersed system to said thermal barrier material via Suspension Plasma Spray or Solution Precursor Plasma Spray (SPPS).
A multi-functional supporting cushion, comprising: a plurality (21, 22, 23) of pad portions comprising a first pad portion, a second pad portion and a third pad portion, each of which having a circularly curved top end, the pad portions at the center being higher than those on both sides such that the top ends of the plurality (21, 22, 23) of pad portions form a wave-shaped contour descending from the center of the plurality (21,22,23) of said pad portions toward the two sides, a bolster being selectively formed from the plurality (21, 22, 23) of pad portions or selectively the plurality (21, 22, 23) of pad portions being constricted from respective free ends of the two pad portions at both sides to make a circular loop, characterized in that, the plurality (21, 22, 23) of pad portions of the cushion comprise an outer case, an inner case and at least one foam received in the inner case, wherein the at least one foam and the inner case are received in the outer case, wherein the outer case comprises a string and a fastening element and an interior surface thereof is defined with a plurality of string through holes, wherein the string is threaded through the outer case, the plurality of string through holes and the fastening element, and wherein the cushion can be constricted by drawing up the string and clasping the string with the fastening element.
A method for manufacturing an equipment panel of a railway vehicle, the panel including a cellular core inserted between first and second skins, including: - a step for providing the first skin, - a first step for assembling the first skin with the cellular core, the cellular core being arranged such that its cells extend substantially perpendicular to the first skin, - a step for filling a peripheral zone of the cellular core with a resin, - a second step for assembling the second skin with the cellular core, - a step for polymerization of the resin, thus securing the cellular core with the first and second skins, - a step for machining a contour of the panel, the contour being defined in a plane parallel to the first and/or second skins, and machined in the peripheral zone, - after the machining step, a third step for assembling a lateral skin on an edge of the panel with the machined contour, characterized in that the third assembling step comprises gluing the lateral skin on the edge of the panel, the lateral skin being glued to the machined resin. - a step for providing the first skin, - a first step for assembling the first skin with the cellular core, the cellular core being arranged such that its cells extend substantially perpendicular to the first skin, - a step for filling a peripheral zone of the cellular core with a resin, - a second step for assembling the second skin with the cellular core, - a step for polymerization of the resin, thus securing the cellular core with the first and second skins, - a step for machining a contour of the panel, the contour being defined in a plane parallel to the first and/or second skins, and machined in the peripheral zone, - after the machining step, a third step for assembling a lateral skin on an edge of the panel with the machined contour,