mhurhangee/patent-ind-claim-en huggingface dataset:
A resin composition, comprising (a) an epoxy resin, (b) a siloxane-type curing agent of formula C22 wherein R C1 , R C2 , R C3 are independently selected from methyl, ethyl and 1-propyl; X C31 is a divalent group selected from a C 10 to C 30 alkylaryl of formula -X C32 -A C1 -[X C32 -A C2 ] p -X C32 -; A C1 is selected from a biphenylene group, a naphthylene group, an anthracenylene group, a phenantrenylene group, a pyrenylene group, and a fluorenylene group, all of which may be unsubstituted or substituted by C 1 to C 4 alkyl; A C2 is selected from a phenylene group, which may be unsubstituted or substituted by C 1 to C 4 alkyl; p is 0, 1 or 2; X C32 is a chemical bond or C 1 to C 4 alkanediyl, preferably a chemical bond or methanediyl; R C31 is selected from H, C 1 to C 6 alkyl, C 6 to C 30 aryl or alkylaryl, and X C22 is a divalent group selected from a C 1 to C 4 alkanediyl, and C 6 to C 30 aryl or alkylaryl; m is an average number of repeating units and is from 1.05 to 20. and wherein the resin composition does essentially not contain any fluoride or bromide. i.e. 1 % by weight or below (a) an epoxy resin, (b) a siloxane-type curing agent of formula C22 R C1 , R C2 , R C3 are independently selected from methyl, ethyl and 1-propyl; X C31 is a divalent group selected from a C 10 to C 30 alkylaryl of formula -X C32 -A C1 -[X C32 -A C2 ] p -X C32 -; A C1 is selected from a biphenylene group, a naphthylene group, an anthracenylene group, a phenantrenylene group, a pyrenylene group, and a fluorenylene group, all of which may be unsubstituted or substituted by C 1 to C 4 alkyl; A C2 is selected from a phenylene group, which may be unsubstituted or substituted by C 1 to C 4 alkyl; p is 0, 1 or 2; X C32 is a chemical bond or C 1 to C 4 alkanediyl, preferably a chemical bond or methanediyl; R C31 is selected from H, C 1 to C 6 alkyl, C 6 to C 30 aryl or alkylaryl, and X C22 is a divalent group selected from a C 1 to C 4 alkanediyl, and C 6 to C 30 aryl or alkylaryl; m is an average number of repeating units and is from 1.05 to 20.
Device for adjusting the height of a vehicle seat, wherein the device comprises a lower part for arranging on a vehicle, wherein the device has an upper part for arranging a vehicle seat and/or for arranging a rotary unit for a vehicle seat, wherein the lower part and the upper part are coupled together via an actuating arm , wherein the device has a damping member , wherein the damping member is present between the upper part and the lower part , wherein the damping member is configured to alter a spacing of the upper part relative to the lower part , and wherein the device comprises a spring element and the spring element is present on the device such that it acts counter to a direction of extension of the damping member , characterized in that the spring element is in the form of a coil spring or of a spiral spring, and in that the upper part is movably mounted between an end stop of the spring element and an end stop of the damping member .
Coupling element for electrically coupling a lateral connecting portion of a first laminated busbar to a lateral connecting portion of a second laminated busbar , said coupling element having a base body which comprises a sandwich of conducting layers (8.1, 8.2, 8.3) of sheet metal and intermediate insulating layers arranged in between said conducting layers (8.1, 8.2, 8.3) for electrically insulating said conducting layers (8.1, 8.2, 8.3) from each other, wherein each of said conducting layers (8.1, 8.2, 8.3) comprises a first layer section (8.1a, 8.2a, 8.3a) which is associated to said lateral connecting portion of said first busbar and a second layer section (8.1b, 8.2b, 8.3b) which is associated to said connecting portion of said second busbar , characterized in that said first and second layer sections (8.1a, 8.2a, 8.3a ; 8.1b, 8.2b, 8.3b) are electrically insulated from each other by an insulating element (10.1, 10.2, 10.3), each of said first layer sections (8.1a, 8.2a, 8.3a) comprises a first circuit breaker connecting terminal (12.1a, 12.2a, 12.3a) which is adapted to be electrically connected to an input terminal (14.1a, 14.2a, 14.3a) of a circuit breaker 14, and each of said second layer sections (8.1b, 8.2b, 8.3b) comprises a second circuit breaker connecting terminal (12.1b, 12.2b, 12.3b) which is adapted to be electrically connected to an output terminal (14.1b, 14.2b, 14.3b) of said circuit breaker .
An air-based fryer apparatus having a food preparation chamber , a food support receivable in said food preparation chamber , a system for circulating a flow of hot air inside said food preparation chamber upward or downward through the food support, a heating element to heat at least the circulated airand a shield disposed between the heating element and the food support , characterized in that said shield comprises a plurality of inclined surfaces and a plurality of apertures between said inclined surfaces through which the flow of hot air can pass, wherein the inclined surfaces are adapted to block a direct line of sight through the apertures in the shield from the heating element to the food support to prevent air flowing from the food support to the heating element through the apertures without being deflected by the inclined surfaces. a food preparation chamber , a food support receivable in said food preparation chamber , a system for circulating a flow of hot air inside said food preparation chamber upward or downward through the food support, a heating element to heat at least the circulated airand a shield disposed between the heating element and the food support , characterized in that said shield comprises a plurality of inclined surfaces and a plurality of apertures between said inclined surfaces through which the flow of hot air can pass, wherein the inclined surfaces are adapted to block a direct line of sight through the apertures in the shield from the heating element to the food support to prevent air flowing from the food support to the heating element through the apertures without being deflected by the inclined surfaces.
A mechanical circulatory support system, comprising: an implantable blood pump for generating a blood flow in a patient in which the blood pump is implanted; an implantable prosthetic rib assembly including a prosthetic rib segment and a percutaneous electrical connector mounted to the prosthetic rib segment, the prosthetic rib segment being configured to be mounted to a rib of the patient in place of a segment of the rib, the percutaneous electrical connector including a skin interface portion configured to interface with an edge of a skin aperture through a skin portion of the patient, the electrical connector being configured to expose a connection port of the electrical connector via the skin aperture; and an implantable power cable connected with or configured to be connected with each of the blood pump and the percutaneous electrical connector for transferring electric power received by the percutaneous electrical connector to the blood pump. an implantable blood pump for generating a blood flow in a patient in which the blood pump is implanted; an implantable prosthetic rib assembly including a prosthetic rib segment and a percutaneous electrical connector mounted to the prosthetic rib segment, the prosthetic rib segment being configured to be mounted to a rib of the patient in place of a segment of the rib, the percutaneous electrical connector including a skin interface portion configured to interface with an edge of a skin aperture through a skin portion of the patient, the electrical connector being configured to expose a connection port of the electrical connector via the skin aperture; and an implantable power cable connected with or configured to be connected with each of the blood pump and the percutaneous electrical connector for transferring electric power received by the percutaneous electrical connector to the blood pump.
A method of carrying out a directional solidification of castings in a process of the gas turbine blades manufacturing, comprising a vertical movement of a vacuum ceramic shell mold with a solidifying molten mass from a heating zone into a cooling zone, and its cooling with at least one stream of inert gas, directed to the mold in the upper part of the cooling zone, wherein during the phase of the blade casting cooling, the stream of inert gas reaches supersonic velocity at the nozzle outlet, with a gas consumption of 0.5-2 g/s per nozzle, wherein the optimum number of inert gas streams is dependent on the chord dimension of the blade casting per following relations: a/ in case of the chord up to 50 mm - one supersonic stream is used, which is directed to the mold in the area of the solidification of the nearest edge of the blade casting; b/ in case of chord from 50 mm to 70 mm - two supersonic streams are used, which are directed to the mold in the area of the solidification of the pressure face and in the area of the solidification of the suction face of the blade casting, respectively; c/ in case of chord above 70 mm - three supersonic streams are used, which are directed to the mold in the area of the solidification of the nearest edge, in the area of the solidification of the pressure face and in the area of the solidification of the suction face of the blade casting, respectively. a/ in case of the chord up to 50 mm - one supersonic stream is used, which is directed to the mold in the area of the solidification of the nearest edge of the blade casting; b/ in case of chord from 50 mm to 70 mm - two supersonic streams are used, which are directed to the mold in the area of the solidification of the pressure face and in the area of the solidification of the suction face of the blade casting, respectively; c/ in case of chord above 70 mm - three supersonic streams are used, which are directed to the mold in the area of the solidification of the nearest edge, in the area of the solidification of the pressure face and in the area of the solidification of the suction face of the blade casting, respectively.
An electronic equipment , comprising: a battery ; a function circuitry configured to carry out a function, wherein the function is streaming a video file using power drawn from the battery ; a power assessment circuit configured to assess power requirements of the function circuitry in relation to the function of streaming the video file based on time duration information and encoding method provided with the streaming video file and based on an estimated power consumption rate information associated with the function circuitry when streaming video files; a battery monitor circuit that is configured to monitor power available from the battery ; a battery advisor circuit , operatively coupled to the power assessment circuit and the battery monitor circuit , that is configured to provide a recommendation indicative of whether the power available from the battery is sufficient for the function circuitry to carry out the function of streaming the video file. a battery ; a function circuitry configured to carry out a function, wherein the function is streaming a video file using power drawn from the battery ; a power assessment circuit configured to assess power requirements of the function circuitry in relation to the function of streaming the video file based on time duration information and encoding method provided with the streaming video file and based on an estimated power consumption rate information associated with the function circuitry when streaming video files; a battery monitor circuit that is configured to monitor power available from the battery ; a battery advisor circuit , operatively coupled to the power assessment circuit and the battery monitor circuit , that is configured to provide a recommendation indicative of whether the power available from the battery is sufficient for the function circuitry to carry out the function of streaming the video file.
A light emitting device , comprising: an excitation light source which outputs excitation light; a light emitting section which emits light by receiving the excitation light; an optical guide member which guides the excitation light from the excitation light source to the light emitting section ; and the optical guide member (104, 2004, 304, 404, 504. 604) includes an optical guide section which has an exit end surface including at least one side (a, a1, a2); characterized in that , the light emitting device further comprises: an optical member which forms, on a front surface of the light emitting section , an image of the excitation light guided by the optical guide member, wherein the excitation light is radiated to the front surface obliquely, and the optical member forms an image of a linear edge portion (a', a1', a2'), which corresponds to one of the at least one side (a, a1, a2), in the image of the excitation light, wherein the linear edge portion (a', al', a2') extends in a direction orthogonal to a direction of the excitation light entering the light emitting section. an excitation light source which outputs excitation light; a light emitting section which emits light by receiving the excitation light; an optical guide member which guides the excitation light from the excitation light source to the light emitting section ; and the optical guide member (104, 2004, 304, 404, 504. 604) includes an optical guide section which has an exit end surface including at least one side (a, a1, a2); characterized in that , the light emitting device further comprises: an optical member which forms, on a front surface of the light emitting section , an image of the excitation light guided by the optical guide member, wherein the excitation light is radiated to the front surface obliquely, and the optical member forms an image of a linear edge portion (a', a1', a2'), which corresponds to one of the at least one side (a, a1, a2), in the image of the excitation light, wherein the linear edge portion (a', al', a2') extends in a direction orthogonal to a direction of the excitation light entering the light emitting section. an optical member which forms, on a front surface of the light emitting section , an image of the excitation light guided by the optical guide member, wherein the excitation light is radiated to the front surface obliquely, and the optical member forms an image of a linear edge portion (a', a1', a2'), which corresponds to one of the at least one side (a, a1, a2), in the image of the excitation light, wherein the linear edge portion (a', al', a2') extends in a direction orthogonal to a direction of the excitation light entering the light emitting section.
A refrigeration appliance comprising: an assembly comprising an insulated cabinet comprising five closed faces and an open face providing access to an interior of the cabinet, a refrigeration system, and a door operatively rotationally connected to the insulated cabinet to selectively open or close the open face of the insulated cabinet, wherein the insulated cabinet comprises a wrapper formed from sheet metal, the cabinet at least in part being formed by folding sheet metal to form at least part of the wrapper, the five closed faces being rigidly joined, or continuous, in the case of folding, along their coincident edges to form at least part of the wrapper, characterised in that the assembly also includes a torsionally stiff structure comprising a sheet metal box that accommodates the refrigeration system or refrigeration system components, for example, at least a compressor, fixed to or comprising a closed bottom face or a closed top face of the wrapper, and the torsionally stiff structure stopping or restraining the closed cabinet face to which it is attached, or which it includes, from twisting and thereby substantially increasing torsional stiffness of the assembly beyond that of the insulated cabinet alone so that the insulated cabinet has an increased ability to resist twisting. an assembly comprising an insulated cabinet comprising five closed faces and an open face providing access to an interior of the cabinet, a refrigeration system, and a door operatively rotationally connected to the insulated cabinet to selectively open or close the open face of the insulated cabinet, wherein the insulated cabinet comprises a wrapper formed from sheet metal, the cabinet at least in part being formed by folding sheet metal to form at least part of the wrapper, the five closed faces being rigidly joined, or continuous, in the case of folding, along their coincident edges to form at least part of the wrapper, characterised in that the assembly also includes a torsionally stiff structure comprising a sheet metal box that accommodates the refrigeration system or refrigeration system components, for example, at least a compressor, fixed to or comprising a closed bottom face or a closed top face of the wrapper, and the torsionally stiff structure stopping or restraining the closed cabinet face to which it is attached, or which it includes, from twisting and thereby substantially increasing torsional stiffness of the assembly beyond that of the insulated cabinet alone so that the insulated cabinet has an increased ability to resist twisting.
A method for producing two or more vacuum glass panels , the method comprising: removing, from a first glass body including a first glass plate and a heat reflective film disposed on a first surface of the first glass plate, part of the heat reflective film to form a portion having a frame shape without the heat reflective film; removing the heat reflective film partially from a portion around the center of the first glass body; disposing a first glass adhesive in the portion having the frame shape and formed in the first glass body by partially removing the heat reflective film; disposing a second glass adhesive in the portion surrounded by the first glass adhesive and formed in the first glass body by partially removing the heat reflective film; disposing a second glass body including a second glass plate to face the first glass body; evacuating a space between the first glass body and the second glass body; bonding the first glass body and the second glass body with the first glass adhesive and the second glass adhesive to form an integrated panel including a vacuum space ; cutting the integrated panel at a location where the vacuum space is not broken to obtain two or more vacuum glass panels; and in the two or more vacuum glass panels, the first glass adhesive and pieces of the second glass adhesive are integrated to form the frame member of each vacuum glass panel. removing, from a first glass body including a first glass plate and a heat reflective film disposed on a first surface of the first glass plate, part of the heat reflective film to form a portion having a frame shape without the heat reflective film; removing the heat reflective film partially from a portion around the center of the first glass body; disposing a first glass adhesive in the portion having the frame shape and formed in the first glass body by partially removing the heat reflective film; disposing a second glass adhesive in the portion surrounded by the first glass adhesive and formed in the first glass body by partially removing the heat reflective film; disposing a second glass body including a second glass plate to face the first glass body; evacuating a space between the first glass body and the second glass body; bonding the first glass body and the second glass body with the first glass adhesive and the second glass adhesive to form an integrated panel including a vacuum space ; cutting the integrated panel at a location where the vacuum space is not broken to obtain two or more vacuum glass panels; and in the two or more vacuum glass panels, the first glass adhesive and pieces of the second glass adhesive are integrated to form the frame member of each vacuum glass panel.
An antibody or a functional fragment thereof capable of binding to human tumor necrosis factor alpha (TNFα), wherein said antibody or functional fragment comprises (i) a V L domain having the amino acid sequence as shown in SEQ ID NO:54, and (ii) a V H domain having the amino acid sequence as shown in SEQ ID NO:13.
An adaptable lattice structure for an Unmanned Aerial System, UAS, comprising: a plurality of lattice voxels , wherein each lattice voxel comprises: a plurality of same shape elements , wherein the same shape elements are squares; wherein each same shape element comprises a plurality of connector elements , wherein the plurality of connector elements is configured to temporarily couple a first same shape element to at least a second same shape element ; wherein the plurality of same shape elements is configured to be temporarily coupled so as to form a tetradecahedron ; wherein at least one of the connector elements on a first lattice voxel is configured to temporarily couple the first lattice voxel to a second lattice voxel ; and wherein at least one of the plurality of lattice voxels is configured to be temporarily coupled to an adaptable system for operation of the UAS, wherein the adaptable system comprises at least one of: - a cargo; and - a payload. a plurality of same shape elements , wherein the same shape elements are squares; wherein each same shape element comprises a plurality of connector elements , wherein the plurality of connector elements is configured to temporarily couple a first same shape element to at least a second same shape element ; wherein the plurality of same shape elements is configured to be temporarily coupled so as to form a tetradecahedron ; wherein at least one of the connector elements on a first lattice voxel is configured to temporarily couple the first lattice voxel to a second lattice voxel ; and wherein at least one of the plurality of lattice voxels is configured to be temporarily coupled to an adaptable system for operation of the UAS, wherein the adaptable system comprises at least one of: - a cargo; and - a payload. - a cargo; and - a payload.
A three-dimensional object created by Fused Deposition Modeling, FDM, of a modeling material from polyaryletherketones (PAEK), polyphenylsulfides, polyamide-imide, polyethersulfon, polyetherimide, polysulfon, polyphenylsulfon, polycarbonates (PC), poly(acrylonitrile butadiene styrene) (ABS), polymethylmethacrylate (PMMA), polyethyleneterephtalate (PET), polystryrene (PS), acrylonitrilstyrene acrylate, polypropylene (PP), polylactic acid (PLA), polyvinylalcohol (PVA), polyethylene (PE), polyoxymethylene, polyurethane (PU), copolymers of polyvinylalcohol and butenediolvinylalcohol and mixtures thereof, optionally filled with inorganic or organic fillers, characterized in that the object has a porosity of less than 5 vol%, as determined according to the porosity test procedure 'Porosity test' as defined in the description.