mhurhangee/ep-ind-claims huggingface dataset:
Multi-voltage on-board electrical system for a vehicle, having - a first electrical subsystem which is designed to be operated at a first operating voltage and which comprises a transceiver which is connected to ground by means of a first ground connection, wherein the transceiver is designed to provide a first control signal; - a second electrical subsystem which is designed to be operated at a second operating voltage and which comprises a control unit which is connected to the same ground by means of a second ground connection; and - a first control signal path which couples a first signal output of the transceiver to a first signal input of the control unit and which is designed and arranged to transmit the first control signal from the first signal output to the first signal input; characterized in that the first control signal path comprises a first circuit module by means of which the first control signal path is firstly connected to the first ground connection and/or to the second ground connection and is secondly supplied with the first operating voltage and/or with the second operating voltage, wherein the first circuit module is designed to assume a blocking state in which the transmission of the first control signal from the first signal output to the first signal input via the first control signal path is suppressed. - a first electrical subsystem which is designed to be operated at a first operating voltage and which comprises a transceiver which is connected to ground by means of a first ground connection, wherein the transceiver is designed to provide a first control signal; - a second electrical subsystem which is designed to be operated at a second operating voltage and which comprises a control unit which is connected to the same ground by means of a second ground connection; and - a first control signal path which couples a first signal output of the transceiver to a first signal input of the control unit and which is designed and arranged to transmit the first control signal from the first signal output to the first signal input;
A thermal insulation device comprising; an outer plate (110, 185); an inner plate (115, 180) nesting adjacent the outer plate (110, 185) with a gap between the outer and inner plates (110, 115, 180, 185); wherein the outer and innerplates (110, 115, 180, 185) comprise a substantially planar portion and sides; a porous material arranged in the gap between the outer and inner plates (110, 115, 180, 185); a sealing layer arranged between sides of the outer and inner plates (110, 115, 180, 185) such that the porous material is sealed from ambient at a pressure less than ambient; a further outer plate (110, 185); a further inner plate (115, 180) nesting adjacent the further outer plate (110, 185) with a gap between the further outer and inner plates (110, 115, 180, 185); wherein the further outer and innerplates (110, 115, 180, 185) comprise a substantially planar portion and sides; a porous material arranged in the gap between the further outer and inner plates (110, 115, 180, 185); a sealing layer arranged between sides of the further outer and inner plates (110, 115, 180, 185) such that the porous material is sealed from ambient at a pressure less than ambient; characterized in that the first and second plates (110, 115, 180, 185) are mated with the further first and second plates (110,115, 180, 185) by the outer plates (110, 185) being sealed together and the inner plates (115, 180) being sealing together to form an enclosure with a chamber to enclose a device within the chamber that is thermally insulated from ambient by the enclosure. comprising; an outer plate (110, 185); an inner plate (115, 180) nesting adjacent the outer plate (110, 185) with a gap between the outer and inner plates (110, 115, 180, 185); wherein the outer and innerplates (110, 115, 180, 185) comprise a substantially planar portion and sides; a porous material arranged in the gap between the outer and inner plates (110, 115, 180, 185); a sealing layer arranged between sides of the outer and inner plates (110, 115, 180, 185) such that the porous material is sealed from ambient at a pressure less than ambient; a further outer plate (110, 185); a further inner plate (115, 180) nesting adjacent the further outer plate (110, 185) with a gap between the further outer and inner plates (110, 115, 180, 185); wherein the further outer and innerplates (110, 115, 180, 185) comprise a substantially planar portion and sides; a porous material arranged in the gap between the further outer and inner plates (110, 115, 180, 185); a sealing layer arranged between sides of the further outer and inner plates (110, 115, 180, 185) such that the porous material is sealed from ambient at a pressure less than ambient; characterized in that the first and second plates (110, 115, 180, 185) are mated with the further first and second plates (110,115, 180, 185) by the outer plates (110, 185) being sealed together and the inner plates (115, 180) being sealing together to form an enclosure with a chamber to enclose a device within the chamber that is thermally insulated from ambient by the enclosure.
A method for producing hydrogen by using different metals, comprising: providing a metal of lower reduction potential as an anode metal, said anode metal comprising magnesium alloy scrap, and a metal of higher reduction potential as a cathode metal, said cathode metal comprising stainless steel and said cathode metal being shaped as a plate, mesh, gill net, or powder; combining said anode metal and said cathode metal by smashing and extruding the anode metal, and then rolling the cathode metal to be tightly attached to the smashed anode metal, and immersing said combined metals in an electrolyte, whereby hydrogen and side-products are generated from a reaction of electrochemistry caused by reduction potential difference between the different metals. providing a metal of lower reduction potential as an anode metal, said anode metal comprising magnesium alloy scrap, and a metal of higher reduction potential as a cathode metal, said cathode metal comprising stainless steel and said cathode metal being shaped as a plate, mesh, gill net, or powder; combining said anode metal and said cathode metal by smashing and extruding the anode metal, and then rolling the cathode metal to be tightly attached to the smashed anode metal, and immersing said combined metals in an electrolyte, whereby hydrogen and side-products are generated from a reaction of electrochemistry caused by reduction potential difference between the different metals.
Composition for dry-cleaning textile articles, characterized in that it is anhydrous and in that it comprises, as active cleaning agent: - dipropylene glycol monomethyl ether, - an amphiphilic solvent A chosen from the group consisting of dipropylene glycol mono-n-propyl ether, dipropylene glycol mono-n-butyl ether, dipropylene glycol mono-tert-butyl ether or mixtures thereof, - and at least one dibasic ester B having a Kb index of greater than 30 and corresponding to the following general formula: R-O-C(=O)-(CH 2) n -C(=O)-O-R' in which n is an integer between 1 and 9, R and R' are identical or different, each representing independently an alkyl group having from 1 to 6 carbon atoms or an alkenyl group having from 2 to 6 carbon atoms, said dibasic ester B bearing, where appropriate, at least one methyl group on the -(CH 2) n - chain. - dipropylene glycol monomethyl ether, - an amphiphilic solvent A chosen from the group consisting of dipropylene glycol mono-n-propyl ether, dipropylene glycol mono-n-butyl ether, dipropylene glycol mono-tert-butyl ether or mixtures thereof, - and at least one dibasic ester B having a Kb index of greater than 30 and corresponding to the following general formula: R-O-C(=O)-(CH 2) n -C(=O)-O-R' in which n is an integer between 1 and 9, R and R' are identical or different, each representing independently an alkyl group having from 1 to 6 carbon atoms or an alkenyl group having from 2 to 6 carbon atoms, said dibasic ester B bearing, where appropriate, at least one methyl group on the -(CH 2) n - chain.
Plasmacytoid dendritic cell (pDC) or composition comprising a plasmacytoid dendritic cell and a pharmaceutically acceptable carrier or diluent for use in preventing or treating a disease or condition of the eye in a subject, wherein said pDC or composition is administered to an eye of the subject by intravitreal or sub-retinal injection or by topical administration using a tissue adhesive.
A web of RFID straps, comprising: a wide web having longitudinally extending columns and transversely extending rows of RFID straps, each strap having an RFID chip and a pair of contacts having a conductive side, wherein the rows contain at least two RFID straps, characterized by: an adhesive coating on the wide web, the adhesive coating being against the conductive side of the contacts and contain electrically conductive particles, and a release liner against the adhesive coating to provide a composite strap web. a wide web having longitudinally extending columns and transversely extending rows of RFID straps, each strap having an RFID chip and a pair of contacts having a conductive side, wherein the rows contain at least two RFID straps, an adhesive coating on the wide web, the adhesive coating being against the conductive side of the contacts and contain electrically conductive particles, and a release liner against the adhesive coating to provide a composite strap web.
A method in a wireless device, the method comprising: receiving a control channel that includes control information that indicates a set of time and frequency resources allocated for the wireless device to receive a data transmission, wherein the set comprises (i) a first subset of the indicated set of time and frequency resources allocated for the data transmission overlaps with time and frequency resources in one or more control regions and (ii) a second subset of time and frequency resources from one or more control resource regions excluded for the data transmission; and receiving the data transmission in the first subset of time and frequency resources allocated for data transmission. receiving a control channel that includes control information that indicates a set of time and frequency resources allocated for the wireless device to receive a data transmission, wherein the set comprises (i) a first subset of the indicated set of time and frequency resources allocated for the data transmission overlaps with time and frequency resources in one or more control regions and (ii) a second subset of time and frequency resources from one or more control resource regions excluded for the data transmission; and receiving the data transmission in the first subset of time and frequency resources allocated for data transmission.
An insulation element pre-fabricated in a specified format for the insulation of uppermost storey ceilings, comprising an insulating plate made of an insulating material and at least one load distribution plate laminated onto a main surface of the latter, the load distribution plate having a three-layer light building board with an upper covering layer, a lower covering layer and a connecting layer disposed between the covering layers and that has cavities, the insulating material comprising polystyrene rigid foam, polystyrene extruder foam, mineral wool, polyurethane rigid foam and/or wood fibre insulating materials, and the overall thickness of the insulation element being between 55 and 255 mm, and the thickness of the insulating plate being 40 to 240 mm, characterised in that at least one covering layer has a chipboard.
A battery replacement robot with a mobile storage rack, comprising a mechanical part and an electric control part, wherein: the mechanical part comprises a horizontal mobile unit which is movable in X, Y and Z coordinate axis directions in a rectangular coordinate system, a bearing unit and a carrier unit; a middle portion of the carrier unit is hollow, and a battery box replacement device is installed in a middle of the hollow portion of the carrier unit; and a console is arranged on the horizontal mobile unit, wherein the battery box replacement device comprises a horizontal rotary table; a battery box storage rack is provided on at least one side of the horizontal mobile unit, the electric control part controls the battery box replacement device to take all full-charged battery boxes at once and controls the horizontal rotary table to rotate; place the battery boxes on the battery box storage rack; move the battery boxes to a standby position of a battery replacement; remove a discharged battery box from a vehicle and control the horizontal rotary table to rotate, place the discharged battery box on the battery box storage rack; take one full-charged battery box from the battery box storage rack; install the full-charged battery box in a corresponding position; and repeat the above steps to replace all battery boxes. the mechanical part comprises a horizontal mobile unit which is movable in X, Y and Z coordinate axis directions in a rectangular coordinate system, a bearing unit and a carrier unit; a middle portion of the carrier unit is hollow, and a battery box replacement device is installed in a middle of the hollow portion of the carrier unit; and a console is arranged on the horizontal mobile unit, wherein the battery box replacement device comprises a horizontal rotary table; a battery box storage rack is provided on at least one side of the horizontal mobile unit, the electric control part controls the battery box replacement device to take all full-charged battery boxes at once and controls the horizontal rotary table to rotate; place the battery boxes on the battery box storage rack; move the battery boxes to a standby position of a battery replacement; remove a discharged battery box from a vehicle and control the horizontal rotary table to rotate, place the discharged battery box on the battery box storage rack; take one full-charged battery box from the battery box storage rack; install the full-charged battery box in a corresponding position; and repeat the above steps to replace all battery boxes.
A fluorescent substance represented by the following formula: (Sr 1-x Eu x) 3-y Al 3+z Si 13-z O 2+u N 21-w in which x, y, z, u and w are numbers satisfying the conditions of 0<x<1, - 0.1≤y≤0.3, -3≤z≤1 and -3<u-w≤1.5, respectively; giving an X-ray diffraction pattern in which a diffraction peak positioned at 2θ of 15.2 to 15.5° has a half-width of not more than 0.14°; and emitting luminescence having a peak in the wavelength range of 490 to 580 nm under excitation by light in the wavelength range of 250 to 500 nm.
An inverter controller for controlling an inverter which converts a direct current into an alternating current of a predetermined frequency for driving a magnetron, the inverter controller comprising: a temperature detection section for detecting a temperature of a switching element of the inverter; a first sub-control circuit for reducing an output power of the inverter from a predetermined value to a reduced value lower than the predetermined value when the detected temperature exceeds a predefined threshold, and for increasing the output power of the inverter from the reduced value to the predetermined value when the detected temperature falls below the predefined threshold; and a second sub-control circuit for preventing moding in the magnetron by suppressing an increase in the output power of the inverter for a predetermined time after the detected temperature has fallen below the predefined threshold, when the output power of the inverter was reduced by the first sub-control circuit. a temperature detection section for detecting a temperature of a switching element of the inverter; a first sub-control circuit for reducing an output power of the inverter from a predetermined value to a reduced value lower than the predetermined value when the detected temperature exceeds a predefined threshold, and for increasing the output power of the inverter from the reduced value to the predetermined value when the detected temperature falls below the predefined threshold; and a second sub-control circuit for preventing moding in the magnetron by suppressing an increase in the output power of the inverter for a predetermined time after the detected temperature has fallen below the predefined threshold, when the output power of the inverter was reduced by the first sub-control circuit.
A substrate comprising a first surface comprising silane or a silane derivative covalently bound to a functionalized molecule through reaction of the functionalized molecule with a first plurality of unsaturated moieties selected from cycloalkenes, heteronorbornenes, or optionally substituted variants or combinations thereof covalently attached to said silane or silane derivative.
Sensor device for detecting a change in a magnetic field which is caused by an object approaching the sensor device in a direction of movement of the sensor device or moving past the sensor device in the direction of movement, - wherein the sensor device has two sensor units (10, 20), - wherein each of the sensor units (10, 20) comprises two receiver coils (12, 13; 22, 23) and an alternating-current-fed transmitter coil (11; 21) arranged between the receiver coils (12, 13; 22, 23) with respect to the direction of movement, - wherein the longitudinal axes (12a, 13a; 22a, 23a) of the receiver coils (12, 13; 22, 23) of both sensor units (10, 20) are oriented essentially perpendicular to the direction of movement, - wherein the longitudinal axes (11a; 21a) of the transmitter coils (11; 21) of both sensor units (10, 20) are oriented essentially parallel to the direction of movement, - wherein the transmitter coils (11; 21) of the two sensor units (10, 20) are oriented one behind the other with respect to the direction of movement, - and wherein the sensor device is embodied such that the transmitter coils (11; 21) of the two sensor units (10, 20) generate magnetic fluxes (60, 70) which are opposed to one another. - wherein the sensor device has two sensor units (10, 20), - wherein each of the sensor units (10, 20) comprises two receiver coils (12, 13; 22, 23) and an alternating-current-fed transmitter coil (11; 21) arranged between the receiver coils (12, 13; 22, 23) with respect to the direction of movement, - wherein the longitudinal axes (12a, 13a; 22a, 23a) of the receiver coils (12, 13; 22, 23) of both sensor units (10, 20) are oriented essentially perpendicular to the direction of movement, - wherein the longitudinal axes (11a; 21a) of the transmitter coils (11; 21) of both sensor units (10, 20) are oriented essentially parallel to the direction of movement, - wherein the transmitter coils (11; 21) of the two sensor units (10, 20) are oriented one behind the other with respect to the direction of movement, - and wherein the sensor device is embodied such that the transmitter coils (11; 21) of the two sensor units (10, 20) generate magnetic fluxes (60, 70) which are opposed to one another.
A humanized scFv against IL-1 beta comprising a variable light chain sequence as set forth in SEQ ID No: 8 and a variable heavy chain sequence as set forth in SEQ ID No: 12, wherein the variable light chain sequence, VL, and the variable heavy chain sequence, VH, are connected by a linker with an orientation of N-terminus - VL - linker - VH - C-terminus and wherein the linker comprises 10 to 25 amino acids comprising two to five (GGGGS) repeats. wherein the variable light chain sequence, VL, and the variable heavy chain sequence, VH, are connected by a linker with an orientation of N-terminus - VL - linker - VH - C-terminus and wherein the linker comprises 10 to 25 amino acids comprising two to five (GGGGS) repeats.
A palladium complex of formula: wherein: Pd ⊕ is a cationic palladium atom; the or each R 12 is independently selected from the group consisting of substituted and unsubstituted straight-chain alkyl, substituted and unsubstituted branched-chain alkyl, substituted and unsubstituted cycloalkyl, substituted and unsubstituted aryl, and substituted and unsubstituted heteroaryl wherein the heteroatoms are independently selected from sulfur, nitrogen and oxygen; m is 0, 1, 2, 3, 4 or 5; E is P; X ⊖ is a non-coordinated anionic ligand; and the monodentate tertiary phosphine ligand is selected from the group consisting of: Pd ⊕ is a cationic palladium atom; the or each R 12 is independently selected from the group consisting of substituted and unsubstituted straight-chain alkyl, substituted and unsubstituted branched-chain alkyl, substituted and unsubstituted cycloalkyl, substituted and unsubstituted aryl, and substituted and unsubstituted heteroaryl wherein the heteroatoms are independently selected from sulfur, nitrogen and oxygen; m is 0, 1, 2, 3, 4 or 5; E is P; X ⊖ is a non-coordinated anionic ligand; and the monodentate tertiary phosphine ligand is selected from the group consisting of:
An arc welding device that comprises: a welding power source for supplying power between a welding wire fed to a welding torch and a base metal with a groove; a welding robot for moving and weaving the welding torch along the groove, that causes a tip end portion of the welding wire to progress into a recessed molten part formed on the base metal to weld the base metal; and an arc sensor for detecting an amount of offset of a central position for welding from a position of the groove based on welding current, and characterised in that the arc welding device comprises: a transition control unit that temporarily makes a transition to a non-buried state where the tip end portion of the welding wire does not progress into the recessed molten part for a predetermined time period that allows the tip end portion of the welding wire to traverse the groove by weaving of the welding torch; an acquisition unit that acquires, from the arc sensor, a detection result of the amount of the offset at least in the non-buried state; and a correction control unit that corrects a position of the welding torch relative to the groove based on the detection result by the arc sensor in the non-buried state. a welding power source for supplying power between a welding wire fed to a welding torch and a base metal with a groove; a welding robot for moving and weaving the welding torch along the groove, that causes a tip end portion of the welding wire to progress into a recessed molten part formed on the base metal to weld the base metal; and an arc sensor for detecting an amount of offset of a central position for welding from a position of the groove based on welding current, and characterised in that the arc welding device comprises: a transition control unit that temporarily makes a transition to a non-buried state where the tip end portion of the welding wire does not progress into the recessed molten part for a predetermined time period that allows the tip end portion of the welding wire to traverse the groove by weaving of the welding torch; an acquisition unit that acquires, from the arc sensor, a detection result of the amount of the offset at least in the non-buried state; and a correction control unit that corrects a position of the welding torch relative to the groove based on the detection result by the arc sensor in the non-buried state. a transition control unit that temporarily makes a transition to a non-buried state where the tip end portion of the welding wire does not progress into the recessed molten part for a predetermined time period that allows the tip end portion of the welding wire to traverse the groove by weaving of the welding torch; an acquisition unit that acquires, from the arc sensor, a detection result of the amount of the offset at least in the non-buried state; and a correction control unit that corrects a position of the welding torch relative to the groove based on the detection result by the arc sensor in the non-buried state.