mhurhangee/ep-ind-claims huggingface dataset:
An image capture display terminal, comprising: a control module, a first optimization unit, a second optimization unit, a first image capture module, a second image capture module, and a first node, wherein the control module comprises a first control bus and a first signal interface, the control module is electrically connected to the first image capture module and the second image capture module by using the first control bus, and the control module outputs a control signal to control the first image capture module and the second image capture module to be in a working state in a time-sharing manner; the first signal interface is electrically connected to the first node; the first optimization unit is electrically connected between the first node and the first image capture module; the second optimization unit is electrically connected between the first node and the second image capture module; the first image capture module is configured to capture a first image and output a first image signal; the second image capture module is configured to capture a second image and output a second image signal; the captured first image signal is transmitted to the first signal interface by using the first optimization unit when the first image capture module is in the working state, and the first optimization unit is configured to ensure the smoothness of a curve of the first image signal; and the captured second image signal is transmitted to the first signal interface by using the second optimization unit when the second image capture module is in the working state, and the second optimization unit is configured to ensure the smoothness of a curve of the second image signal. the control module comprises a first control bus and a first signal interface, the control module is electrically connected to the first image capture module and the second image capture module by using the first control bus, and the control module outputs a control signal to control the first image capture module and the second image capture module to be in a working state in a time-sharing manner; the first signal interface is electrically connected to the first node; the first optimization unit is electrically connected between the first node and the first image capture module; the second optimization unit is electrically connected between the first node and the second image capture module; the first image capture module is configured to capture a first image and output a first image signal; the second image capture module is configured to capture a second image and output a second image signal; the captured first image signal is transmitted to the first signal interface by using the first optimization unit when the first image capture module is in the working state, and the first optimization unit is configured to ensure the smoothness of a curve of the first image signal; and the captured second image signal is transmitted to the first signal interface by using the second optimization unit when the second image capture module is in the working state, and the second optimization unit is configured to ensure the smoothness of a curve of the second image signal.
A method of increasing nitrogen use efficiency, biomass under nitrogen-limiting conditions, and/or growth rate of a plant, comprising: (a) expressing within the plant an exogenous polynucleotide comprising a nucleic acid sequence encoding a polypeptide at least 80% identical over the entire amino acid sequence set forth in SEQ ID NO: 563, and (b) further comprising growing the plant expressing said exogenous polynucleotide under nitrogen-limiting conditions, thereby increasing the nitrogen use efficiency, biomass under nitrogen-limiting conditions, and/or growth rate of the plant. (a) expressing within the plant an exogenous polynucleotide comprising a nucleic acid sequence encoding a polypeptide at least 80% identical over the entire amino acid sequence set forth in SEQ ID NO: 563, and (b) further comprising growing the plant expressing said exogenous polynucleotide under nitrogen-limiting conditions,
A method for equalizing a received radio signal in a Wideband Code Division Multiple Access system, comprising the steps of: receiving, in a radio receiver, an uplink digital radio signal spread by uplink scrambling codes; performing a channel estimation on said received digital radio signal for a plurality of channels; and equalizing said received digital radio signal, in an equalizer, into an equalized digital radio signal, by combining a plurality of part signals, deduced from said digital radio signal, with a respective delay and a respective combining weight, characterized in that said step of equalizing comprises provision of said combining weights based on a signal impairment matrix having elements compensated for systematic colouring caused by said scrambling codes, C(), having the properties of: C 2 m 2 C 2 m + 1 2 * = − 4 C 2 m + 1 2 C 2 m 2 * = − 4 where m = 0, 1,..., 2 25 - 2. receiving, in a radio receiver, an uplink digital radio signal spread by uplink scrambling codes; performing a channel estimation on said received digital radio signal for a plurality of channels; and equalizing said received digital radio signal, in an equalizer, into an equalized digital radio signal, by combining a plurality of part signals, deduced from said digital radio signal, with a respective delay and a respective combining weight,
A first electronic device, comprising: a first housing defining a convexly curved first connection surface; and a receiving component (107a, 107b) positioned proximate to the first connection surface and within the first housing, the receiving component (107a, 107b) comprising a coil of wire around a core area and further comprising a coil shield (140a, 140b); and a first magnetic element positioned adjacent to the first connection surface and within the first housing, the first magnetic element comprising a magnet and a magnet shield separated from the sides of the magnet by gaps, wherein the magnet shield is configured to direct a magnetic field of the magnet toward the first connection surface; wherein the coil shield (140a, 140b) is positioned along a surface of the coil of wire opposing the first connection surface and along two sides of the coil of wire transverse to the first connection surface; the first magnetic element is positioned within the core area of the coil of wire; and the magnet shield is positioned along a surface of the magnet opposing the first connection surface, the magnet shield having sides covering sides of the magnet transverse to the first connection surface. a first housing defining a convexly curved first connection surface; and a receiving component (107a, 107b) positioned proximate to the first connection surface and within the first housing, the receiving component (107a, 107b) comprising a coil of wire around a core area and further comprising a coil shield (140a, 140b); and a first magnetic element positioned adjacent to the first connection surface and within the first housing, the first magnetic element comprising a magnet and a magnet shield separated from the sides of the magnet by gaps, wherein the magnet shield is configured to direct a magnetic field of the magnet toward the first connection surface; wherein the coil shield (140a, 140b) is positioned along a surface of the coil of wire opposing the first connection surface and along two sides of the coil of wire transverse to the first connection surface; the first magnetic element is positioned within the core area of the coil of wire; and the magnet shield is positioned along a surface of the magnet opposing the first connection surface, the magnet shield having sides covering sides of the magnet transverse to the first connection surface.
An exhaust gas flow regulator comprising: a plurality of first tubes extending in an extension direction and being spaced apart from each other in a spacing direction perpendicular to the extension direction; a support plate disposed perpendicular to the extension direction of the plurality of first tubes and through which the plurality of first tubes penetrates; and a second tube coupled to one end of the support plate and extending parallel to the plurality of first tubes; wherein the second tube is provided with a guide plate configured to redirect exhaust gases flowing around the second tube toward the plurality of first tubes; characterized in that the guide plate is rotatably connected to the second tube so that a flow direction of the exhaust gases flowing between the second tube and a first tube of the plurality of first tubes adjacent to the second tube is directed toward the first tube. a plurality of first tubes extending in an extension direction and being spaced apart from each other in a spacing direction perpendicular to the extension direction; a support plate disposed perpendicular to the extension direction of the plurality of first tubes and through which the plurality of first tubes penetrates; and a second tube coupled to one end of the support plate and extending parallel to the plurality of first tubes; wherein the second tube is provided with a guide plate configured to redirect exhaust gases flowing around the second tube toward the plurality of first tubes; characterized in that the guide plate is rotatably connected to the second tube so that a flow direction of the exhaust gases flowing between the second tube and a first tube of the plurality of first tubes adjacent to the second tube is directed toward the first tube.
A method for producing a thermoelectric alloy, comprising: providing a starting material, wherein the starting material includes germanium (Ge), tellurium (Te), bismuth (Bi), zinc (Zn), antimony (Sb), selenium (Se), copper (Cu), indium (In), gallium (Ga), silver (Ag), cobalt (Co), iron (Fe) and/or lead (Pb), and purity of each compounds of the starting material is not lower than 4N; performing an oxidation process to the starting material for producing an oxidized material composition, wherein based on the oxidized material composition as 100 atom percent (at%), an oxygen content of the oxidized material composition is 0.001 at% to 10 at%; adding the oxidized material composition and a carburizing agent into a quartz tube, and performing a sealing process, so as to form a sealed quartz tube, wherein a vacuum degree of the sealed quartz tube is not larger than 0.03 mbar; and performing a carburization process to the sealed quartz tube, thereby producing the thermoelectric alloy, wherein the carburization process includes a heating step, and the heating step is heated from 200°C to a melting point of the starting material. providing a starting material, wherein the starting material includes germanium (Ge), tellurium (Te), bismuth (Bi), zinc (Zn), antimony (Sb), selenium (Se), copper (Cu), indium (In), gallium (Ga), silver (Ag), cobalt (Co), iron (Fe) and/or lead (Pb), and purity of each compounds of the starting material is not lower than 4N; performing an oxidation process to the starting material for producing an oxidized material composition, wherein based on the oxidized material composition as 100 atom percent (at%), an oxygen content of the oxidized material composition is 0.001 at% to 10 at%; adding the oxidized material composition and a carburizing agent into a quartz tube, and performing a sealing process, so as to form a sealed quartz tube, wherein a vacuum degree of the sealed quartz tube is not larger than 0.03 mbar; and performing a carburization process to the sealed quartz tube, thereby producing the thermoelectric alloy, wherein the carburization process includes a heating step, and the heating step is heated from 200°C to a melting point of the starting material.
An attachment device for releasable attachment of an element to a component fixed with respect to the vehicle, including a retaining device connected or connectable to a component fixed with respect to the vehicle, a connecting element extending in the axial direction from a first (21 a) to a second end, which in a first state is connected via its first end (21 a) to an attachment section of the retaining device, and a pyrotechnic charge which upon ignition causes at least the second end of the connecting element to no longer be rigidly connected to the attachment section, wherein the retaining device includes a bearing through which the connecting element extends with a section axially spaced from the first end (21 a), characterised in that the bearing includes at least two bearing surfaces (16a, 18a), wherein the two bearing surfaces are spaced differently in the axial direction from the attachment section and are disposed on different sides of the circumferential surface of the connecting element, so the section of the connecting element, which section is separated from the attachment section of the retaining device after ignition of the pyrotechnic charge, can tilt in this bearing.
A vehicle lighting system for a vehicle, the vehicle lighting system comprising; a light guide having a first end and a second end opposite the first end, wherein the first end of the light guide is coupled to a light source; a light dispensing device coupled to the second end of the light guide and configured to receive light from the light source via the light guide and dispense the light received from the light guide to an interior of the vehicle, the light dispensing device comprising; a textile configured to dispense the light from the light guide to the interior of the vehicle; and a reflector configured to reflect the light towards the textile, wherein an interior surface of the reflector faces the textile and the interior surface of the reflector includes a plurality of ridges configured to reflect the light within the light dispensing device that is received from the light guide towards the textile to produce a gradient of the light at the textile, and wherein the gradient of the light at the textile comprises a non-homogenous and non-uniform pattern of light. a light guide having a first end and a second end opposite the first end, wherein the first end of the light guide is coupled to a light source; a light dispensing device coupled to the second end of the light guide and configured to receive light from the light source via the light guide and dispense the light received from the light guide to an interior of the vehicle, the light dispensing device comprising; a textile configured to dispense the light from the light guide to the interior of the vehicle; and a reflector configured to reflect the light towards the textile, wherein an interior surface of the reflector faces the textile and the interior surface of the reflector includes a plurality of ridges configured to reflect the light within the light dispensing device that is received from the light guide towards the textile to produce a gradient of the light at the textile, and wherein the gradient of the light at the textile comprises a non-homogenous and non-uniform pattern of light.
A signal strength measurement method, comprising: receiving, by a relay device, a first message sent by a first remote device, wherein the first message is used by the first remote device to request the relay device to provide a relay service; sending, by the relay device, a second message, wherein the second message is used by the first remote device to discover the relay device; establishing, by a first relay device in the relay device, a connection to the first remote device; and receiving, by the first relay device, a third message sent by the first remote device, wherein the third message is used to request the first relay device to send a fourth message to the first remote device; determining, by the first relay device, the third message carries an identifier of the first relay device; if the third message carries an identifier of the first relay device, determining that the first relay device is to send a fourth message to the remote device, otherwise the fourth message is not sent; sending, by the first relay device, the fourth message to the first remote device, wherein the fourth message is used by the first remote device to measure signal strength of a link between the first remote device and the first relay device. receiving, by a relay device, a first message sent by a first remote device, wherein the first message is used by the first remote device to request the relay device to provide a relay service; sending, by the relay device, a second message, wherein the second message is used by the first remote device to discover the relay device; establishing, by a first relay device in the relay device, a connection to the first remote device; and receiving, by the first relay device, a third message sent by the first remote device, wherein the third message is used to request the first relay device to send a fourth message to the first remote device; determining, by the first relay device, the third message carries an identifier of the first relay device; if the third message carries an identifier of the first relay device, determining that the first relay device is to send a fourth message to the remote device, otherwise the fourth message is not sent; sending, by the first relay device, the fourth message to the first remote device, wherein the fourth message is used by the first remote device to measure signal strength of a link between the first remote device and the first relay device.
A low-activation hydraulic composition, wherein calcium aluminosilicate has a chemical composition comprising, in a total of CaO, Al 2 O 3, SiO 2, MgO and ZrO 2, 25 to 55 parts of CaO, 16 to 45 parts of Al 2 O 3, 23 to 40 parts of SiO 2, 0 to 1 part of MgO and 0 to 4 parts of ZrO 2, with an Eu content being less than 0.08 mg/kg and a Co content being less than 2 mg/kg, and wherein the calcium aluminosilicate has a percentage of glass content of at least 70%.
Electrical control device for a motor vehicle, comprising a mount having: - a lever, a first end of which bears a lever handle and a second end of which bears at least one cam follower, - a first and a second carriage (4, 5) that are movable in the mount, - at least one cam surface having a first guide slot and a second guide slot, characterized in that: - the lever is mounted in a pivotable manner in the first carriage and cooperates with the second carriage such that the rotation of the lever handle causes the second carriage to move in translation in the mount and such that the movement in translation of the lever handle causes the second carriage to move in translation in the mount, and - the first guide slot is oriented in a rectilinear manner and the second guide slot is inscribed in a circular shape, the guide slots (24, 25) intersecting one another, the lever cooperating with the cam surface and the first and the second carriages (4, 5) such that the rotation of the lever causes the second carriage to move in translation in the mount and such that the movement in translation of the lever causes the two carriages (4, 5) to move in translation in the mount. - a lever, a first end of which bears a lever handle and a second end of which bears at least one cam follower, - a first and a second carriage (4, 5) that are movable in the mount, - at least one cam surface having a first guide slot and a second guide slot, - the lever is mounted in a pivotable manner in the first carriage and cooperates with the second carriage such that the rotation of the lever handle causes the second carriage to move in translation in the mount and such that the movement in translation of the lever handle causes the second carriage to move in translation in the mount, and - the first guide slot is oriented in a rectilinear manner and the second guide slot is inscribed in a circular shape, the guide slots (24, 25) intersecting one another, the lever cooperating with the cam surface and the first and the second carriages (4, 5) such that the rotation of the lever causes the second carriage to move in translation in the mount and such that the movement in translation of the lever causes the two carriages (4, 5) to move in translation in the mount.
A vibration presentation device, comprising: a plurality of vibration units (22-1 - 22-6) that vibrate when voltage is applied; and a control unit that controls vibration to be generated in the plurality of vibration units, characterized in that the vibration units (22-1 - 22-6) include electrodes (13, 15) sandwiching a dielectric layer, the electrodes including a flexible, lightweight, and thin material, and are in surface contact with a portion to be presented with vibration; wherein the plurality of vibration units (22-1 - 22-6) are attached to a plurality of portions of a seat belt of an automobile. a plurality of vibration units (22-1 - 22-6) that vibrate when voltage is applied; and a control unit that controls vibration to be generated in the plurality of vibration units, characterized in that the vibration units (22-1 - 22-6) include electrodes (13, 15) sandwiching a dielectric layer, the electrodes including a flexible, lightweight, and thin material, and are in surface contact with a portion to be presented with vibration; wherein the plurality of vibration units (22-1 - 22-6) are attached to a plurality of portions of a seat belt of an automobile.
An engine cleaning composition comprising: a dispersant containing a carboxylic acid and a first amine, wherein the total amount of the carboxylic acid and the first amine contained in the dispersant is 3% to 30% by weight based on the engine cleaning composition; a chelating agent, wherein the amount of the chelating agent contained in the engine cleaning composition is 3% to 30% by weight; a glycol solvent or a glycol ether solvent, wherein the amount of the glycol solvent or the glycol ether solvent contained in the engine cleaning composition is 30% to 80% by weight; and a naphthenic oil, wherein the amount of the naphthenic oil contained in the engine cleaning composition is 10% to 50% by weight, wherein the carboxylic acid is C 18 to C 36 aliphatic polycarboxylic acid, wherein the first amine is an aliphatic amine represented by a general formula: NR 1 R 2 R 3 wherein R 1 represents C 8 to C 18 alkyl; and R 2 and R 3 each independently represent hydrogen or C 1 to C 3 alkyl. a dispersant containing a carboxylic acid and a first amine, wherein the total amount of the carboxylic acid and the first amine contained in the dispersant is 3% to 30% by weight based on the engine cleaning composition; a chelating agent, wherein the amount of the chelating agent contained in the engine cleaning composition is 3% to 30% by weight; a glycol solvent or a glycol ether solvent, wherein the amount of the glycol solvent or the glycol ether solvent contained in the engine cleaning composition is 30% to 80% by weight; and a naphthenic oil, wherein the amount of the naphthenic oil contained in the engine cleaning composition is 10% to 50% by weight, wherein the carboxylic acid is C 18 to C 36 aliphatic polycarboxylic acid, wherein the first amine is an aliphatic amine represented by a general formula: NR 1 R 2 R 3 wherein R 1 represents C 8 to C 18 alkyl; and R 2 and R 3 each independently represent hydrogen or C 1 to C 3 alkyl. R 1 represents C 8 to C 18 alkyl; and R 2 and R 3 each independently represent hydrogen or C 1 to C 3 alkyl.