mhurhangee/ep-ind-claims huggingface dataset:
A wiring substrate, comprising: an electrode comprising Cu or a Cu alloy; and a plated film comprising an electroless nickel-plated layer formed on the electrode, an electroless palladium-plated layer formed on the electroless nickel-plated layer, and an electroless gold-plated layer formed on the electroless palladium-plated layer, characterized in that the electroless nickel-plated layer is formed by co-precipitation of Ni, P, Bi, and S using an electroless nickel plating bath in which nickel sulfate, sodium hypophosphite, lactic acid, bismuth nitrate, and thiourea are dissolved in water, the electroless nickel-plated layer comprises a content of P of 5% by mass or more and less than 10% by mass, a content of Bi of 1 ppm by mass to 1000 ppm by mass, and a content of S of 1 ppm by mass to 2000 ppm by mass, a mass ratio of the content of S to the content of Bi (S/Bi) is more than 1.0, and a total of the content of Bi and the content of S in the electroless nickel-plated layer is 400 ppm by mass or more, wherein each content of P, S, and Bi included in the electroless nickel-plated layer is respectively measured by an X-ray fluorescence analysis thickness meter, a combustion-coulometry method, and an inductively coupled plasma - mass spectroscopy analysis method. an electrode comprising Cu or a Cu alloy; and a plated film comprising an electroless nickel-plated layer formed on the electrode, an electroless palladium-plated layer formed on the electroless nickel-plated layer, and an electroless gold-plated layer formed on the electroless palladium-plated layer, characterized in that the electroless nickel-plated layer is formed by co-precipitation of Ni, P, Bi, and S using an electroless nickel plating bath in which nickel sulfate, sodium hypophosphite, lactic acid, bismuth nitrate, and thiourea are dissolved in water, the electroless nickel-plated layer comprises a content of P of 5% by mass or more and less than 10% by mass, a content of Bi of 1 ppm by mass to 1000 ppm by mass, and a content of S of 1 ppm by mass to 2000 ppm by mass, a mass ratio of the content of S to the content of Bi (S/Bi) is more than 1.0, and a total of the content of Bi and the content of S in the electroless nickel-plated layer is 400 ppm by mass or more, wherein each content of P, S, and Bi included in the electroless nickel-plated layer is respectively measured by an X-ray fluorescence analysis thickness meter, a combustion-coulometry method, and an inductively coupled plasma - mass spectroscopy analysis method.
A liquid crystal display, comprising a glass substrate and a driver chip, wherein the driver chip is disposed on the glass substrate and is configured to drive the liquid crystal display, wherein the liquid crystal display further comprises a testing line, the testing line is formed in the glass substrate and extends close to an edge of the glass substrate, the driver chip comprises an input pin and an output pin, and two ends of the testing line are separately connected to the input pin and the output pin to form a closed loop, wherein the testing line comprises at least two single lines, and the at least two single lines are connected in parallel between the input pin and the output pin; wherein the glass substrate comprises an upper layer plate and a lower layer plate, the upper layer plate comprises a color film, a color film protecting layer, and an upper liquid crystal alignment film that are stacked, the lower layer plate comprises a common electrode layer, a pixel electrode layer, and a lower liquid crystal alignment film that are stacked, one line of the testing line is formed on the upper layer plate and is located at a periphery of the upper liquid crystal alignment film, the liquid crystal display further comprises a conductive sheet, the conductive sheet is formed on the lower layer plate and is located at a periphery of the lower liquid crystal alignment film, the other line of the testing line is formed at an edge of the common electrode layer or is formed at an edge of the pixel electrode layer, said one line of the testing line is electrically connected to the conductive sheet by a conductive adhesive, and the testing line is electrically connected to the driver chip by a wire on the lower layer plate;
A method for controlling the coupling of a drive machine of a motor vehicle to a set of wheels (2, 3) of the vehicle, comprising steps consisting in: - determining a time (t_C1) when a torque setpoint (Croue_cons) to be applied to at least one set of wheels (2, 3) of the vehicle is less than a predetermined coupling threshold; the method being characterized in that it comprises steps consisting in: - calculating a first parameter and/or a second parameter which depend on said time (t_C1); - authorizing the coupling when said first parameter is greater than a first predetermined value and/or when said second parameter is greater than a second predetermined value. - determining a time (t_C1) when a torque setpoint (Croue_cons) to be applied to at least one set of wheels (2, 3) of the vehicle is less than a predetermined coupling threshold; - calculating a first parameter and/or a second parameter which depend on said time (t_C1); - authorizing the coupling when said first parameter is greater than a first predetermined value and/or when said second parameter is greater than a second predetermined value.
Method for adjusting a setting for a means of transport by means of a display unit of a user interface of the means of transport, comprising the steps: - detecting the approach of a user to the user interface, characterized by - differentiating whether a driver of the means of transport approaches the input area of the user interface or whether a co-driver of the means of transport approaches the input area of the user interface, and in response thereto - displaying a first operator control element, in particular a slide control, for controlling the setting for the driver's position, or displaying a third operator control element, in particular a slide control for controlling the setting for the co-driver's position of the means of transport on the display unit. - detecting the approach of a user to the user interface, characterized by - differentiating whether a driver of the means of transport approaches the input area of the user interface or whether a co-driver of the means of transport approaches the input area of the user interface, and in response thereto - displaying a first operator control element, in particular a slide control, for controlling the setting for the driver's position, or displaying a third operator control element, in particular a slide control for controlling the setting for the co-driver's position of the means of transport on the display unit.
A closing device for a disc brake, in particular for a sliding caliper disc brake for closing a brake disc, wherein the disc brake has at least one brake caliper for receiving the closing device and brake linings (8, 8a) for closing the brake disc and the closing device comprises a closing lever having at least one closing lever base (4, 4a), wherein the closing lever base (4, 4a) has a recess (9, 9a) for receiving a bearing shell (6a, 6a) in the direction of the side facing the brake lining (8, 8a) or the side averted from the brake lining (8, 8a), characterized in that pockets (10, 10a, 10b, 10c) are arranged at the sides of the closing lever base (4, 4a) for fixing the bearing shell (6, 6a).
A supercapacitor electrode comprising: a conductive foil substrate layer; and electrode coating layers (24, 26) on opposite sides of the conductive foil substrate layer, wherein each electrode coating layer (24, 26) comprises: active charge supporting particles; from 1 to 10 weight percent thermally produced graphenic carbon particles, wherein the thermally produced graphenic carbon particles are made from a carbon-containing precursor that is heated to a temperature above 3,500°C in a thermal zone to produce the graphenic carbon particles; and a binder. a conductive foil substrate layer; and electrode coating layers (24, 26) on opposite sides of the conductive foil substrate layer, wherein each electrode coating layer (24, 26) comprises: active charge supporting particles; from 1 to 10 weight percent thermally produced graphenic carbon particles, wherein the thermally produced graphenic carbon particles are made from a carbon-containing precursor that is heated to a temperature above 3,500°C in a thermal zone to produce the graphenic carbon particles; and a binder. active charge supporting particles; from 1 to 10 weight percent thermally produced graphenic carbon particles, wherein the thermally produced graphenic carbon particles are made from a carbon-containing precursor that is heated to a temperature above 3,500°C in a thermal zone to produce the graphenic carbon particles; and a binder.
A computer-implemented method for encoding, comprising: executing game logic built on a game engine of a video game at a cloud gaming server to generate a plurality of video frames; executing a scene change logic to predict a scene change in the plurality of video frames, wherein the prediction is based on game state collected during execution of the game logic; identifying, using the scene change logic, a range of video frames in the plurality of video frames that is predicted to include the scene change; generating a scene change hint using the scene change logic, wherein the scene change hint identifies the range of video frames, wherein the range of video frames includes a first video frame; delivering the first video frame to an encoder; sending the scene change hint from the scene change logic to the encoder; encoding the first video frame as an I-frame based on the scene change hint; determining at the encoder that the scene change in the range of videos frames identified by the scene change logic corresponds to a delta between video frames that does not meet or exceed a threshold; terminating encoding of the first video frame as an I-frame; and encoding the first video frame as a P-frame. executing game logic built on a game engine of a video game at a cloud gaming server to generate a plurality of video frames; executing a scene change logic to predict a scene change in the plurality of video frames, wherein the prediction is based on game state collected during execution of the game logic; identifying, using the scene change logic, a range of video frames in the plurality of video frames that is predicted to include the scene change; generating a scene change hint using the scene change logic, wherein the scene change hint identifies the range of video frames, wherein the range of video frames includes a first video frame; delivering the first video frame to an encoder; sending the scene change hint from the scene change logic to the encoder; encoding the first video frame as an I-frame based on the scene change hint; determining at the encoder that the scene change in the range of videos frames identified by the scene change logic corresponds to a delta between video frames that does not meet or exceed a threshold; terminating encoding of the first video frame as an I-frame; and encoding the first video frame as a P-frame.
A liner assembly for lining the junction between a main pipe and a lateral pipe comprising: a main liner member comprising an absorbent and flexible material, and having a main liner member opening therein; a lateral liner tube comprising an absorbent material and extending from the main liner member about the main liner member opening; a collar comprising an absorbent material, the collar disposed at least partially on the main liner member adjacent the main liner member opening and the lateral liner tube; wherein the collar is impregnated with a liquid hydrophobic or hydrophilic material capable of curing and hardening that expands in the presence of water, characterized in that the lateral liner tube and collar are adapted so that the lateral liner tube is inverted outwardly into the lateral pipe when a pressurized fluid is applied thereto for compression of the collar such that all, or nearly all, of the liquid hydrophobic or hydrophilic material leaves the collar and at least a portion is forced towards a damaged pipe junction. a main liner member comprising an absorbent and flexible material, and having a main liner member opening therein; a lateral liner tube comprising an absorbent material and extending from the main liner member about the main liner member opening; a collar comprising an absorbent material, the collar disposed at least partially on the main liner member adjacent the main liner member opening and the lateral liner tube; wherein the collar is impregnated with a liquid hydrophobic or hydrophilic material capable of curing and hardening that expands in the presence of water, characterized in that the lateral liner tube and collar are adapted so that the lateral liner tube is inverted outwardly into the lateral pipe when a pressurized fluid is applied thereto for compression of the collar such that all, or nearly all, of the liquid hydrophobic or hydrophilic material leaves the collar and at least a portion is forced towards a damaged pipe junction.
Method for operating a sound output device and a lighting system device of a motor vehicle, wherein the lighting system device has one or more headlights and/or indicator lights; the method having the following steps carried out by a voice-analysis and control device: - receiving a voice signal from a voice capture device (16, S4), wherein the received voice signal describes a voice message captured by the voice capture device of a person located in an external environment of the motor vehicle, - using the received voice signal: ascertaining a voice message content of the captured voice message and a thematic context of the captured voice message, - in dependence on the ascertained thematic context and the ascertained voice message content: providing a voice output signal, which describes a context-related response text to the captured voice message; - transmitting the provided voice output signal to the sound output device for outputting the provided voice output signal to the external environment of the motor vehicle (10, S18), - specifying the lighting system device of the motor vehicle (10, S22), and - transmitting a provided light pattern signal, which describes a light pattern, to the specified lighting system device(32, S23) for outputting the light pattern by the one or more headlights and/or indicator lights; characterised in that the light pattern signal is provided in dependence on the ascertained voice message content and/or on the ascertained thematic context. - receiving a voice signal from a voice capture device (16, S4), wherein the received voice signal describes a voice message captured by the voice capture device of a person located in an external environment of the motor vehicle, - using the received voice signal: ascertaining a voice message content of the captured voice message and a thematic context of the captured voice message, - in dependence on the ascertained thematic context and the ascertained voice message content: providing a voice output signal, which describes a context-related response text to the captured voice message; - transmitting the provided voice output signal to the sound output device for outputting the provided voice output signal to the external environment of the motor vehicle (10, S18), - specifying the lighting system device of the motor vehicle (10, S22), and - transmitting a provided light pattern signal, which describes a light pattern, to the specified lighting system device(32, S23) for outputting the light pattern by the one or more headlights and/or indicator lights;
A cooling device for a beverage dispensing system, the cooling device comprising: (a) an insulation body, wherein the insulation body is sealed; characterized by (b) a slurry of granulate material and a liquid, the slurry contained within the insulation body, wherein the slurry comprises about 60% to about 80% granules (v/v) and about 20% to about 40% liquid (v/v), wherein the granulate material comprises granulate metal material wherein the granules have an effective average diameter of about 0.4 mm to about 1.2 mm; (c) one or more circulation lines (14, 16) passing through the insulation body and in contact with the slurry. (a) an insulation body, wherein the insulation body is sealed; characterized by (b) a slurry of granulate material and a liquid, the slurry contained within the insulation body, wherein the slurry comprises about 60% to about 80% granules (v/v) and about 20% to about 40% liquid (v/v), wherein the granulate material comprises granulate metal material wherein the granules have an effective average diameter of about 0.4 mm to about 1.2 mm; (c) one or more circulation lines (14, 16) passing through the insulation body and in contact with the slurry.
A drive apparatus for a vehicle auxiliary device, the apparatus comprising: a first drive source; a second drive source different from the first drive source; and at least one auxiliary device driven by either the first drive source or the second drive source; the apparatus being characterized in that: rollers (4,5,6) are linked to each of a rotary shaft belonging to the first drive source, a rotary shaft belonging to the second drive source, and a rotary shaft belonging to the auxiliary device; idler rollers (7,8,9) are disposed at positions in gaps (14a, 14b, 14c) formed between the plurality of rollers linked to each of the rotary shafts; and a roller pair selection mechanism is provided that selects a power-transmitting roller pair from among the plurality of rollers by moving an idler roller in a roller contact direction, thereby interposing the idler roller therebetween. a first drive source; a second drive source different from the first drive source; and at least one auxiliary device driven by either the first drive source or the second drive source; the apparatus being characterized in that: rollers (4,5,6) are linked to each of a rotary shaft belonging to the first drive source, a rotary shaft belonging to the second drive source, and a rotary shaft belonging to the auxiliary device; idler rollers (7,8,9) are disposed at positions in gaps (14a, 14b, 14c) formed between the plurality of rollers linked to each of the rotary shafts; and a roller pair selection mechanism is provided that selects a power-transmitting roller pair from among the plurality of rollers by moving an idler roller in a roller contact direction, thereby interposing the idler roller therebetween. rollers (4,5,6) are linked to each of a rotary shaft belonging to the first drive source, a rotary shaft belonging to the second drive source, and a rotary shaft belonging to the auxiliary device; idler rollers (7,8,9) are disposed at positions in gaps (14a, 14b, 14c) formed between the plurality of rollers linked to each of the rotary shafts; and a roller pair selection mechanism is provided that selects a power-transmitting roller pair from among the plurality of rollers by moving an idler roller in a roller contact direction, thereby interposing the idler roller therebetween.
Circuitry (10, 10′, 10ʺ, 10′′′) for feeding an antenna structure, comprising: a first input (10e1) for LHCP signals, a second input (10e2) for RHCP signals; four antenna outputs (10a1, 10a2, 10a3, 10a4); a first quadrature hybrid; second and third quadrature hybrids (14, 16), and at least two delay lines (7, 7'); wherein the first quadrature hybrid is coupled, on the input side, to the first and second inputs (10e1, 10e2) and is coupled, on the output side, to the second and third quadrature hybrids (14, 16), wherein the second quadrature hybrid is coupled, on the output side, to two of the four antenna outputs (10a1, 10a2, 10a3, 10a4), and wherein the third quadrature hybrid is coupled, on the output side, to two further ones of the four antenna outputs (10a1, 10a2, 10a3, 10a4); wherein the at least two delay lines (7, 7') are arranged at at least two of the four antenna outputs (10a1, 10a2, 10a3, 10a4), wherein the circuitry (10, 10′, 10ʺ, 10′′′) comprises fourth and fifth quadrature hybrids (18, 20) connected in series, the fourth quadrature hybrid being connected, on the input side, to the second quadrature hybrid and to the third quadrature hybrid. a first input (10e1) for LHCP signals, a second input (10e2) for RHCP signals; four antenna outputs (10a1, 10a2, 10a3, 10a4); a first quadrature hybrid; second and third quadrature hybrids (14, 16), and at least two delay lines (7, 7'); wherein the first quadrature hybrid is coupled, on the input side, to the first and second inputs (10e1, 10e2) and is coupled, on the output side, to the second and third quadrature hybrids (14, 16), wherein the second quadrature hybrid is coupled, on the output side, to two of the four antenna outputs (10a1, 10a2, 10a3, 10a4), and wherein the third quadrature hybrid is coupled, on the output side, to two further ones of the four antenna outputs (10a1, 10a2, 10a3, 10a4); wherein the at least two delay lines (7, 7') are arranged at at least two of the four antenna outputs (10a1, 10a2, 10a3, 10a4), wherein the circuitry (10, 10′, 10ʺ, 10′′′) comprises fourth and fifth quadrature hybrids (18, 20) connected in series, the fourth quadrature hybrid being connected, on the input side, to the second quadrature hybrid and to the third quadrature hybrid.
An LED driving circuit comprising: a rectifier having a positive power supply output and a negative power supply output; a first circuit which is connected to said rectifier, and which includes a first LED array, a first current detection unit for detecting current flowing through said first LED array, and a first current control unit for controlling current flowing from said first LED array to said negative power supply output in accordance with said current detected by said first current detection unit; and a second circuit which is connected to said rectifier, and which includes a second LED array, a second current detection unit for detecting current flowing through said second LED array, and a second current control unit for controlling current flowing from said positive power supply output to said second LED array in accordance with said current detected by said second current detection unit, and wherein: a current path connecting said first LED array and said second LED array in parallel relative to said rectifier and a current path connecting said first LED array and said second LED array in series relative to said rectifier are formed in accordance with an output voltage of said rectifier. a rectifier having a positive power supply output and a negative power supply output; a first circuit which is connected to said rectifier, and which includes a first LED array, a first current detection unit for detecting current flowing through said first LED array, and a first current control unit for controlling current flowing from said first LED array to said negative power supply output in accordance with said current detected by said first current detection unit; and a second circuit which is connected to said rectifier, and which includes a second LED array, a second current detection unit for detecting current flowing through said second LED array, and a second current control unit for controlling current flowing from said positive power supply output to said second LED array in accordance with said current detected by said second current detection unit, and wherein: a current path connecting said first LED array and said second LED array in parallel relative to said rectifier and a current path connecting said first LED array and said second LED array in series relative to said rectifier are formed in accordance with an output voltage of said rectifier.