mhurhangee/ep-ind-claims huggingface dataset:
Method for producing a component comprising a real wood surface which is printed by means of an inkjet printing method in such a way that its appearance corresponds to that of a template having a grain and pore structure corresponding to a predetermined desired type of wood, and a predetermined colour, comprising the following steps: - providing the template, - inputting template data showing the appearance of the surface of the template into an EDP system, - providing the component with a timber surface of which the pore structure is similar to that of the predetermined desired type of wood, and - printing the timber surface by means of an inkjet printing method according to the template data in such a way that the three-dimensional surface structure of the timber surface determined by the pore structure is retained at least in part, wherein a data set for printing a larger surface is produced from a basic data set for printing a surface of a predetermined size by mirroring the basic data set and juxtaposing the mirrored basic data sets, wherein the basic data set is in each case mirrored and combined with the mirrored basic data sets in such a way that smooth grain transitions are achieved at each of the edges. - providing the template, - inputting template data showing the appearance of the surface of the template into an EDP system, - providing the component with a timber surface of which the pore structure is similar to that of the predetermined desired type of wood, and - printing the timber surface by means of an inkjet printing method according to the template data in such a way that the three-dimensional surface structure of the timber surface determined by the pore structure is retained at least in part,
Method for producing all-solid batteries, said batteries including at least one layer containing anode materials, anode layer, at least one layer containing solid electrolyte materials, electrolyte layer, and at least one layer containing cathode materials, cathode layer, forming an elementary cell, each of said three layers being deposited by electrophoresis, method wherein are stacked face-to-face two layers obtained by electrophoresis in order to obtain an all-solid multilayer battery consisting of an assembly of a plurality of elementary cells connected with one another in parallel, said method being characterized in that, prior to the face-to-face stacking of said layers obtained by electrophoresis, a layer of Ms bonding material is deposited on the face of at least one of said two layers obtained by electrophoresis, which will be stacked face-to-face.
An insulated electrical cable comprising - at least two electrical conductors of metal, each surrounded by an electrically insulating layer and being arranged such that a space is formed between the insulated cable conductors; - an electrical shield (5, 6, 11) that surrounds the conductors outside of the insulating layer; and - a moisture barrier that surrounds the electrical shield, wherein profiles are arranged in the space that is formed between the insulated cable conductors, wherein the electrical shield comprises shield wires of aluminium, the moisture barrier comprises an aluminium foil and characterized in that the shield wires are arranged in electrical contact with the aluminium foil arrange to surround the electrical shield, and wherein one or several tear-strips are arranged under the aluminium foil. - at least two electrical conductors of metal, each surrounded by an electrically insulating layer and being arranged such that a space is formed between the insulated cable conductors; - an electrical shield (5, 6, 11) that surrounds the conductors outside of the insulating layer; and - a moisture barrier that surrounds the electrical shield, wherein profiles are arranged in the space that is formed between the insulated cable conductors, wherein the electrical shield comprises shield wires of aluminium, the moisture barrier comprises an aluminium foil and characterized in that the shield wires are arranged in electrical contact with the aluminium foil arrange to surround the electrical shield, and wherein one or several tear-strips are arranged under the aluminium foil.
A method of forming a printer, comprising: receiving a circuit board support, a circuit board comprising a configurable memory and a printhead, wherein the configurable memory is configurable to store a definition of a waveform, and the circuit board support is configured to have the circuit board and the printhead mounted thereon; loading one or more waveforms onto a master memory; after loading the one or more waveforms onto the master memory, enclosing an assembly comprising the circuit board support, master memory, circuit board and printhead within a housing so that the master memory is able to communicate with the configurable memory and the configurable memory is able to communicate with the printhead. receiving a circuit board support, a circuit board comprising a configurable memory and a printhead, wherein the configurable memory is configurable to store a definition of a waveform, and the circuit board support is configured to have the circuit board and the printhead mounted thereon; loading one or more waveforms onto a master memory; after loading the one or more waveforms onto the master memory, enclosing an assembly comprising the circuit board support, master memory, circuit board and printhead within a housing so that the master memory is able to communicate with the configurable memory and the configurable memory is able to communicate with the printhead.
A method of operating an aircraft fuel management system for an aircraft having at least one fuel tank (4a, 4b, 6a, 6b, 7, 8), each fuel tank having an associated fuel quantity indicator arranged to provide an indication of the amount of fuel in the associated fuel tank, the method comprising automatically calculating a value for the amount of fuel on board (FOB_FailedFQI) the aircraft to be utilised by the fuel management system in the event of a failure of at least one of the fuel quantity indicators, the amount of fuel on board being calculated as a value for the initial amount of fuel on board (FOBinit) minus the amount of fuel used, wherein the value for the initial amount of fuel on board (FOBinit) is determined at the time when all the aircraft engines are running as the sum of an assigned value of fuel for each fuel tank having an associated failed fuel quantity indicator plus the sum of fuel in each of the remaining fuel tanks provided by each associated fuel quantity indicator, wherein the assigned value of fuel in at least one of the tanks with an associated failed fuel quantity indicator is in the range of zero to the maximum capacity of the tank, wherein the assigned value is automatically set equal to the amount of fuel in another fuel tank in the system that has a working fuel quantity indicator.
A conjugate having factor VIII procoagulant activity comprising a functional factor VIII polypeptide which is mutated such that at least one non-cysteine residue is replaced with a cysteine residue such that a mutant cysteine residue exists, wherein the functional factor VIII polypeptide is covalently attached to a biocompatible polymer at the mutant cysteine residue, wherein the biocompatible polymer is covalently attached to the polypeptide at one of the factor VIII amino acid positions 81, 129, 377, 378, 468, 487, 491, 504, 556, 570, 1648, 1795, 1796, 1803, 1804, 1808, 1810, 1812, 1813, 1815, 1864, 1911, 2091, 2118 and 2284.
A circulation system, which contains a fuel cell with a cooling circuit, a metal hydride store and a heat exchange circuit, comprising: (a) a heat exchange circuit comprising one or more pipes which contain a working medium; (b) a first heat exchanger which is integrated into the heat exchange circuit and is heat-coupled to a cooling circuit of a fuel cell; (c) a compressor integrated into the heat exchange circuit downstream of the first heat exchanger; (d) a second heat exchanger which is integrated into the heat exchange circuit downstream of the compressor and is heat-coupled to a metal hydride store; (e) an expander integrated into the heat transfer medium circuit downstream of the second heat exchanger; (f) a return conduit from the expander to the first heat exchanger. (a) a heat exchange circuit comprising one or more pipes which contain a working medium; (b) a first heat exchanger which is integrated into the heat exchange circuit and is heat-coupled to a cooling circuit of a fuel cell; (c) a compressor integrated into the heat exchange circuit downstream of the first heat exchanger; (d) a second heat exchanger which is integrated into the heat exchange circuit downstream of the compressor and is heat-coupled to a metal hydride store; (e) an expander integrated into the heat transfer medium circuit downstream of the second heat exchanger; (f) a return conduit from the expander to the first heat exchanger.
Method for detecting a gastrointestinal neoplasm in a subject comprising: a) obtaining DNA from a biological sample of said subject; and b) determining the level, presence, or frequency of methylation of nucleic acid polymers corresponding to GLDC and one or more genes selected from the group consisting of CDO1, DCLK1, ZSCAN18 and ZNF331. a) obtaining DNA from a biological sample of said subject; and b) determining the level, presence, or frequency of methylation of nucleic acid polymers corresponding to GLDC and one or more genes selected from the group consisting of CDO1, DCLK1, ZSCAN18 and ZNF331.
A needle (103,309) comprising: an elongate member (203,317) having a distal end (202,310) and comprising a lumen (222,308) configured to accept a radiofrequency probe; a tip (201,211,311,321) coupled to the distal end of the elongate member (203,317), the tip comprising a point (301, 312); and a plurality of filaments (206a,206b,319a,319b,701, 801a,801b,801c,801d,901a, 901b,901c,1001a,1001b) movable between a first position at least partially in the elongate member (203,317) and a second position at least partially out of the elongate member (203,317), wherein the lumen (222, 308) is further configured such that, when the radiofrequency probe is accepted in the lumen (222,308) of the elongate member (203,317), a distal end of the radiofrequency probe is proximate the tip (201,211,311,321) such that radiofrequency energy transmitted through the radiofrequency probe is conducted by the tip (201,211,311,321) and the plurality of filaments (206a,206b,319a,319b,701,801a,801b,801c,801d,901a,901b,901c, 1001a,1001b), and wherein the plurality of filaments (206a,206b,319a,319b,701,801a,801b, 801c,801d,901a,901b,901c,1001a,1001b) and the tip (201,211,311,321) are configured to transmit the radiofrequency energy from the radiofrequency probe to operate as a monopolar electrode. an elongate member (203,317) having a distal end (202,310) and comprising a lumen (222,308) configured to accept a radiofrequency probe; a tip (201,211,311,321) coupled to the distal end of the elongate member (203,317), the tip comprising a point (301, 312); and a plurality of filaments (206a,206b,319a,319b,701, 801a,801b,801c,801d,901a, 901b,901c,1001a,1001b) movable between a first position at least partially in the elongate member (203,317) and a second position at least partially out of the elongate member (203,317), wherein the lumen (222, 308) is further configured such that, when the radiofrequency probe is accepted in the lumen (222,308) of the elongate member (203,317), a distal end of the radiofrequency probe is proximate the tip (201,211,311,321) such that radiofrequency energy transmitted through the radiofrequency probe is conducted by the tip (201,211,311,321) and the plurality of filaments (206a,206b,319a,319b,701,801a,801b,801c,801d,901a,901b,901c, 1001a,1001b), and wherein the plurality of filaments (206a,206b,319a,319b,701,801a,801b, 801c,801d,901a,901b,901c,1001a,1001b) and the tip (201,211,311,321) are configured to transmit the radiofrequency energy from the radiofrequency probe to operate as a monopolar electrode.
A building height calculation method, comprising: acquiring an original picture comprising an image of a building, wherein there is a wide-angle distortion in the original picture; projecting the original picture to a surface of a preset sphere to form a projected picture, by attaching the original picture as a texture to the surface of the preset sphere, such that the lower edge of the building image in the original picture is basically consistent with the lower edge of the projected picture; setting a spherical center of the preset sphere as a photographing viewport; mapping the projected picture into the photographing viewport by using the imaging principle of a camera, to eliminate the wide-angle distortion of the original picture; performing an edge detection on the image of the building in the mapped projected picture to acquire a pixel height of the image of the building; determining a projection angle corresponding to the image of the building based on the pixel height of the image of the building; and determining a height of the building based on the projection angle and a distance between the building and a capturing position of the original picture. acquiring an original picture comprising an image of a building, wherein there is a wide-angle distortion in the original picture; projecting the original picture to a surface of a preset sphere to form a projected picture, by attaching the original picture as a texture to the surface of the preset sphere, such that the lower edge of the building image in the original picture is basically consistent with the lower edge of the projected picture; setting a spherical center of the preset sphere as a photographing viewport; mapping the projected picture into the photographing viewport by using the imaging principle of a camera, to eliminate the wide-angle distortion of the original picture; performing an edge detection on the image of the building in the mapped projected picture to acquire a pixel height of the image of the building; determining a projection angle corresponding to the image of the building based on the pixel height of the image of the building; and determining a height of the building based on the projection angle and a distance between the building and a capturing position of the original picture.
A method for recognising faulty spark formation of an externally ignited internal combustion engine with one or more cylinders, characterised in that a spark combustion duration is detected for an external ignition event of a cylinder in a combustion cycle, and faulty spark formation in the cylinder is recognised when the spark combustion duration or a variable derived therefrom is the same as or greater than a first reference value, wherein the spark combustion duration is detected for each external ignition event of a cylinder or each cylinder and is evaluated in order to recognise ceramic damage of the spark plug.
An apparatus comprising a loudspeaker and processing apparatus configured to process an alternating current electrical output signal from the loudspeaker to detect a user input signal wherein the user input signal is caused by a force applied by a user to the loudspeaker and wherein the alternating current electrical output signal is generated by movement of a permanent magnet relative to a voice coil of the loudspeaker in response to the force applied by the user, the loudspeaker comprising the voice coil, a resilient member, a coupling member, a mass, and a membrane, wherein the permanent magnet is coupled, for oscillation in a space, to the mass and the resilient member via the coupling member and wherein the membrane is coupled to the voice coil.
A vehicle control device installed in a vehicle, the device comprising: a battery; a high-voltage battery that has a voltage higher than a voltage of the battery; and a fuel injection device that injects fuel into an internal combustion engine, wherein the vehicle control device includes a control unit that determines whether to supply a drive current to the fuel injection device by the battery or supply a drive current to the fuel injection device by the high-voltage battery, and controls the fuel injection device, wherein the vehicle is provided with a switch that switches between supplying a drive current to the fuel injection device by the battery and supplying a drive current to the fuel injection device by the high-voltage battery on the downstream of a booster circuit that boosts the voltage of the battery, and the control unit controls the switch to control the fuel injection device by supplying a drive current to the fuel injection device by the battery or supplying a drive current to the fuel injection device by the high-voltage battery. a battery; a high-voltage battery that has a voltage higher than a voltage of the battery; and a fuel injection device that injects fuel into an internal combustion engine, wherein the vehicle control device includes a control unit that determines whether to supply a drive current to the fuel injection device by the battery or supply a drive current to the fuel injection device by the high-voltage battery, and controls the fuel injection device,
A lighting device to be operated in combination with a hand-operated tool or a medical device, comprising: - a structure comprising a conformable elongated member adapted to wrap around the hand-operated tool or medical tool; - a light source attached to the structure thereby defining a connection between the light source and the structure; - a power source for providing electrical power to the light source; and - a skin overmolded onto the structure, the power source, the connection and part of the light source near the connection, wherein the skin comprises an adherent material such that when the conformable elongated member is wrapped around the hand-operated tool or medical tool, the lighting device is secured to the hand-operated tool or medical tool; wherein the conformable elongated member is capable of adopting various shapes in order to orient lighting from the light source in a selected direction. - a structure comprising a conformable elongated member adapted to wrap around the hand-operated tool or medical tool; - a light source attached to the structure thereby defining a connection between the light source and the structure; - a power source for providing electrical power to the light source; and - a skin overmolded onto the structure, the power source, the connection and part of the light source near the connection, wherein the skin comprises an adherent material such that when the conformable elongated member is wrapped around the hand-operated tool or medical tool, the lighting device is secured to the hand-operated tool or medical tool;
A composition comprising a peptide consisting of an amino acid sequence selected from the group consisting of amino acids 32-40, 80-88, 99-107, 122-130, 153-161, 180-188, 21-30, 79-88, 121-130, 173-182, 243-252, 244-252, 277-286, 108-116, 140-148, 307-315, 140-149, 307-316, 118-126, 150-158, 294-302, 310-318, 109-118 and 150-159 of SEQ ID NO:3 or; an analogue of the peptide in which a residue in a primary and/or secondary anchor position shown in Table IV is substituted with another amino acid specified for that position in Table IV in order to increase the binding affinity, binding half-life and/or cross-reactivity of the peptide.
A method of developing a tooth profile for respective teeth of a flex spline and a circular gear of a harmonic actuator, method comprising: generating a lobe-to-lobe segment of a flex spline curve having a pitch diametode of the flex spline; generating a lobe-to-lobe segment of a circular gear curve having a pitch diameter of the circular gear; aligning corresponding ends of lobe-to-lobe segments of the flex spline curve and the circular gear curve; defining locations of centroids of each of the teeth of the flex spline and the circular gear along the lobe-to-lobe segments of the flex spline curve and the circular gear curve, respectively; and finding mid-points for mapping into the tooth profile between the locations of corresponding pairs of the centroids of each of the teeth of the flex spline and the circular gear. generating a lobe-to-lobe segment of a flex spline curve having a pitch diametode of the flex spline; generating a lobe-to-lobe segment of a circular gear curve having a pitch diameter of the circular gear; aligning corresponding ends of lobe-to-lobe segments of the flex spline curve and the circular gear curve; defining locations of centroids of each of the teeth of the flex spline and the circular gear along the lobe-to-lobe segments of the flex spline curve and the circular gear curve, respectively; and finding mid-points for mapping into the tooth profile between the locations of corresponding pairs of the centroids of each of the teeth of the flex spline and the circular gear.
A security apparatus (100, 300) for a portable electronic device, the security apparatus (100, 300) comprising: a lock body (108, 308); an actuator assembly (116, 316) supported by the lock body (108, 308), the actuator assembly (116, 316) having an engagement feature (168, 172, 368, 372) configured to rotate between a first position and a second position; and a lock tip (112A, 112B, 112C) including a pocket, removably coupled to the lock body (108, 308), the lock tip (112A, 112B, 112C) configured to selectively engage the portable electronic device, wherein the lock tip (112A, 112B, 112C) is movable by the actuator assembly (116, 316) between a locked position, in which the lock tip (112A, 112B, 112C) is secured to the portable electronic device, and an unlocked position, in which the lock tip (112A, 112B, 112C) is unsecured from the portable electronic device; wherein rotating the engagement feature (168, 172, 368, 372) from the second position to the first position rotates the engagement feature (168, 172, 368, 372) into the pocket to lock the lock tip (112A, 112B, 112C) to the lock body (108, 308) and concurrently lock the lock tip (112A, 112B, 112C) to the portable electronic device, and wherein rotating the engagement feature (168, 172, 368, 372) from the first position to the second position rotates the engagement feature (168, 172, 368, 372) out of the pocket to unlock the lock tip (112A, 112B, 112C) from the lock body (108, 308) and concurrently unlock the lock tip (112A, 112B, 112C) from the portable electronic device. a lock body (108, 308); an actuator assembly (116, 316) supported by the lock body (108, 308), the actuator assembly (116, 316) having an engagement feature (168, 172, 368, 372) configured to rotate between a first position and a second position; and a lock tip (112A, 112B, 112C) including a pocket, removably coupled to the lock body (108, 308), the lock tip (112A, 112B, 112C) configured to selectively engage the portable electronic device, wherein the lock tip (112A, 112B, 112C) is movable by the actuator assembly (116, 316) between a locked position, in which the lock tip (112A, 112B, 112C) is secured to the portable electronic device, and an unlocked position, in which the lock tip (112A, 112B, 112C) is unsecured from the portable electronic device; wherein rotating the engagement feature (168, 172, 368, 372) from the second position to the first position rotates the engagement feature (168, 172, 368, 372) into the pocket to lock the lock tip (112A, 112B, 112C) to the lock body (108, 308) and concurrently lock the lock tip (112A, 112B, 112C) to the portable electronic device, and wherein rotating the engagement feature (168, 172, 368, 372) from the first position to the second position rotates the engagement feature (168, 172, 368, 372) out of the pocket to unlock the lock tip (112A, 112B, 112C) from the lock body (108, 308) and concurrently unlock the lock tip (112A, 112B, 112C) from the portable electronic device.