mhurhangee/ep-ind-claims huggingface dataset:
Construction kit for a utility vehicle driver cabin having front wheel steering, having at least the following two versions: - narrow version; and - wide version, formed with at least the following components which surround an inner space: - a front wall; - a rear wall; - two flat side walls (5, 6) which are adjacent to the rear wall; and - two doors (3, 4) having a first connection (8, 10) with respect to the front wall and a second connection (9, 11) with respect to the side walls (5, 6); wherein the two doors (3, 4) are orientated in the narrow version at a smaller internal angle with respect to the front wall than in the wide version; wherein the narrow version has a narrow rear wall and the wide version has a rear wall which is wider in comparison with the narrow version, both versions have the same front wall and characterized in that the doors are curved and in that the two flat side walls (5, 6) are orientated perpendicularly relative to the front wall and rear wall. - narrow version; and - wide version, - a front wall; - a rear wall; - two flat side walls (5, 6) which are adjacent to the rear wall; and - two doors (3, 4) having a first connection (8, 10) with respect to the front wall and a second connection (9, 11) with respect to the side walls (5, 6);
Method for operating a driver assistance system of a vehicle, designed for at least partially automated vehicle driving, which driver assistance system performs an evaluation procedure based on the environmental data describing the environment of the motor vehicle to determine automatic driving interventions and/or the output of information to the driver, characterised in that for at least one section of a distance travelled by the motor vehicle, which differs from the rest of the distance and/or from the existing environmental data already present for the section as regards at least one property of the section relevant to the evaluation procedure, section-specific adaptation information is received by means of vehicle-to-infrastructure communication, a check is made on receipt of adaptation information as to whether the driver assistance system is capable within its system boundaries of driving the vehicle, in the event of it not being capable of driving the vehicle a request for the driver to assume control is output and/or the driver assistance system is deactivated, and if not the adaptation information is used for adapting the environmental data and/or evaluation procedure to the section property for the section such a way that the vehicle driving function is continued within the section, taking into account the particular section properties.
Compressed air processing device for a commercial vehicle with an electromechanical brake system which is actuated corresponding to an electrical tractor brake signal (5, 6) with a) a control unit for controlling functions of the compressed air processing system, b) an input port for a brake signal which at least correlates to the electrical tractor brake signal (5, 6) and c) an output port (46, 47; 13e; 109) which can be connected to a trailer and to which a signal generated by a control unit of the compressed air processing device can be supplied, the signal depending on the brake signal supplied via the electrical input port of the control unit. a) a control unit for controlling functions of the compressed air processing system, b) an input port for a brake signal which at least correlates to the electrical tractor brake signal (5, 6) and c) an output port (46, 47; 13e; 109) which can be connected to a trailer and to which a signal generated by a control unit of the compressed air processing device can be supplied, the signal depending on the brake signal supplied via the electrical input port of the control unit.
Methane production method, comprising: - a step of producing biogas by a digester; - a step of separating a carbon dioxide flow from a flow supplied at least in part by the flow of biogas coming from the biogas production step; - a step of supplying the carbon dioxide flow to a methanation reactor; - a step of producing synthetic gas by a methanation reactor from at least the carbon dioxide flow supplied to the reactor and a flow rich in hydrogen; - a step of separating the synthetic gas into, firstly, a fraction rich in hydrogen and, secondly, a fraction rich in methane and carbon dioxide; and - a step of recirculating the fraction rich in hydrogen to supply said fraction to the methanation reactor. - a step of producing biogas by a digester; - a step of separating a carbon dioxide flow from a flow supplied at least in part by the flow of biogas coming from the biogas production step; - a step of supplying the carbon dioxide flow to a methanation reactor; - a step of producing synthetic gas by a methanation reactor from at least the carbon dioxide flow supplied to the reactor and a flow rich in hydrogen; - a step of separating the synthetic gas into, firstly, a fraction rich in hydrogen and, secondly, a fraction rich in methane and carbon dioxide; and - a step of recirculating the fraction rich in hydrogen to supply said fraction to the methanation reactor.
Joining apparatus for joining at least two components (210, 220), without prepunching, by means of a joining element which is driven into the components (210, 220) to be joined in an axial joining direction by way of a percussion-type joining impulse, having a C-shaped frame which has two opposing frame limbs (112, 114), between which the components (210, 220) to be joined are positioned, and having a setting tool and a die, which are arranged opposite one another on the frame limbs (112, 114), wherein the die is conditionally decoupled from the die-side frame limb, characterized in that the die is connected to a mass body arranged on the other side of the die-side frame limb, wherein this mass body is mounted so as to yield in the joining direction of the joining element with respect to the die-side frame limb, so that it can absorb the residual joining impulse that acts on the die during joining.
Electrical energy storage device for a vehicle, comprising at least one casing in which are housed at least one electrical energy storage cell and at least one heat exchanger configured to operate a heat exchange between a cooling fluid adapted to circulate in the at least one heat exchanger and the electrical energy storage cell(s), characterized in that the heat exchanger comprises at least one cooling fluid release member configured to release the cooling fluid into the casing and in that the cooling fluid release member comprises at least one obturation device configured to rupture, at least partially, at a temperature higher than 150°C and/or at a pressure higher than 200 Bars and comprises at least one head and at least one body, the body comprising at least a first part by which it is made integral, by screwing, with the heat exchanger and at least a second modular part attached to the first part and in which the obturation device is arranged.
A method for alerting drivers and/or autonomous vehicles of high risk scenarios, the method comprising: obtaining positional data of a vehicle, the positional data indicating a geographical position and a heading of the vehicle; obtaining environmental data of the vehicle, the environmental data indicating a state of the surrounding environment of the vehicle; determining, by means of a trained model, an accident intensity for an upcoming road portion for the vehicle, the trained model being configured to determine an accident intensity associated with the upcoming road portion based on the obtained environmental data and the obtained positional data; wherein the accident intensity is an intensity in a Poisson sense, and wherein the trained model is formed based on accident data from an accident database comprising environmental conditions information about a plurality of critical scenarios at a time each critical scenario occurs and data indicative of frequencies of occurrences of similar situations, in terms of the environmental conditions, as the critical scenarios, wherein the data indicative of frequencies of similar situations defines a number of attempts associated with each critical scenario; if the determined accident intensity exceeds a threshold, transmitting a signal indicating an approaching high risk scenario to a Human-Machine-Interface, HMI, of the vehicle and/or to a control system of the vehicle. obtaining positional data of a vehicle, the positional data indicating a geographical position and a heading of the vehicle; obtaining environmental data of the vehicle, the environmental data indicating a state of the surrounding environment of the vehicle; determining, by means of a trained model, an accident intensity for an upcoming road portion for the vehicle, the trained model being configured to determine an accident intensity associated with the upcoming road portion based on the obtained environmental data and the obtained positional data; wherein the accident intensity is an intensity in a Poisson sense, and wherein the trained model is formed based on accident data from an accident database comprising environmental conditions information about a plurality of critical scenarios at a time each critical scenario occurs and data indicative of frequencies of occurrences of similar situations, in terms of the environmental conditions, as the critical scenarios, wherein the data indicative of frequencies of similar situations defines a number of attempts associated with each critical scenario; if the determined accident intensity exceeds a threshold, transmitting a signal indicating an approaching high risk scenario to a Human-Machine-Interface, HMI, of the vehicle and/or to a control system of the vehicle.
A eukaryotic expression vector comprising a first polynucleotide encoding a functional membrane-bound folate receptor and a second polynucleotide encoding a product of interest, wherein the product of interest is a pharmaceutically or therapeutically active or a diagnostic polypeptide.
A method for a computing device with a video encoder (340, 500, 2300, 2400) or image encoder, the method comprising: deciding whether a current block (760, 860) in a current picture is to be encoded using intra block copy, BC, prediction in skip mode, including performing hash-based block matching to determine a reference region in the current picture, comparing a quantization parameter, QP, value for the current block to a QP value for the reference region and checking that, as a condition of the current block being encoded using intra BC prediction in skip mode, the QP value for the current block is greater than or equal to the QP value for the reference region; and encoding the current block using intra BC prediction with a block vector, BV, value for the current block, the BV (761, 861) value for the current block (760, 860) indicating a displacement to the reference region (780, 880); and outputting in a bitstream encoded data, wherein the bitstream lacks residual data for the current block. deciding whether a current block (760, 860) in a current picture is to be encoded using intra block copy, BC, prediction in skip mode, including performing hash-based block matching to determine a reference region in the current picture, comparing a quantization parameter, QP, value for the current block to a QP value for the reference region and checking that, as a condition of the current block being encoded using intra BC prediction in skip mode, the QP value for the current block is greater than or equal to the QP value for the reference region; and encoding the current block using intra BC prediction with a block vector, BV, value for the current block, the BV (761, 861) value for the current block (760, 860) indicating a displacement to the reference region (780, 880); and outputting in a bitstream encoded data, wherein the bitstream lacks residual data for the current block.
A method to produce a transparent piece for protecting an optical component, which piece comprises at least one wall that is optically clear and that has planar surfaces, and a rim going round a first surface (1.1) of said wall, wherein a space is formed inside the outer dimensions (x, y, z) of said piece such that the space is limited to said first surface (1.1) and to the inner surface (2.1) of the rim, and which method includes producing one or more pieces as follows: a. a first sheet and a second sheet are placed against each other, wherein at least that one of said sheets (10,11) which is used to form the wall/walls is optically clear, b. the surfaces (10.2, 11.1) of said sheets that are against each other are welded together using a focused laser beam at the level of their common boundary surface, c. said welding comprises forming a circumferential weld, either with a continuous weld or with crossing welds, for each piece to be produced, said method being characterized by the following steps: d. each circumferential weld has a projection line in a thickness direction (w) of said sheets (10,11), wherein a machining is performed inside each projection line to form a peripheral gap that extends through that one of said sheets (10,11) which is used to form the rim / rims of the piece / -s, e. the gap formed at each mentioned machining location separates a part from the machined sheet, the size of said part being substantially equal to the size of said space, f. part / parts are removed from said sheet, wherein a piece is formed or a preform that includes several pieces attached to each other, g. in case of said preform, pieces are separated from it by cutting along cutting points that are located between the circumferential welds of these pieces. a. a first sheet and a second sheet are placed against each other, wherein at least that one of said sheets (10,11) which is used to form the wall/walls is optically clear, b. the surfaces (10.2, 11.1) of said sheets that are against each other are welded together using a focused laser beam at the level of their common boundary surface, c. said welding comprises forming a circumferential weld, either with a continuous weld or with crossing welds, for each piece to be produced, d. each circumferential weld has a projection line in a thickness direction (w) of said sheets (10,11), wherein a machining is performed inside each projection line to form a peripheral gap that extends through that one of said sheets (10,11) which is used to form the rim / rims of the piece / -s, e. the gap formed at each mentioned machining location separates a part from the machined sheet, the size of said part being substantially equal to the size of said space, f. part / parts are removed from said sheet, wherein a piece is formed or a preform that includes several pieces attached to each other, g. in case of said preform, pieces are separated from it by cutting along cutting points that are located between the circumferential welds of these pieces.
An article of footwear (100; 1010) including a sole structure (110; 1015; 1800; 1900; 2000) fixedly attached to an upper defining an internal cavity configured to receive a foot of a wearer, the sole structure (110; 1015; 1800; 1900; 2000) comprising: an exposed outer member (115; 805; 1505; 1605; 1705; 1805; 1905; 2005) configured to contact the ground, the exposed outer member (115; 805; 1505; 1605; 1705; 1805; 1905; 2005) including a first aperture (120; 805; 1506; 1606; 1706; 1825); a sensory feedback member (125; 800; 1020, 1040, 1045; 1200; 1300; 1400; 1500; 1600; 1700; 1840; 1920; 2015) disposed at least partially within the first aperture (120; 805; 1506; 1606; 1706; 1825) in the outer member (115; 805; 1505; 1605; 1705; 1805; 1905; 2005), the sensory feedback member (125; 800; 1020, 1040, 1045; 1200; 1300; 1400; 1500; 1600; 1700; 1840; 1920; 2015) including a first end and a second end; wherein the first end of the sensory feedback member (125; 800; 1020, 1040, 1045; 1200; 1300; 1400; 1500; 1600; 1700; 1840; 1920; 2015) includes a projection (205; 815; 1515; 1615; 1715; 1830; 1925; 2020) extending through the first aperture (120; 805; 1506; 1606; 1706; 1825) and configured to contact the ground; and characterized in that the second end of the sensory feedback member (125; 800; 1020, 1040, 1045; 1200; 1300; 1400; 1500; 1600; 1700; 1840; 1920; 2015) includes a plurality of flexible bristles (215; 820; 1035; 1210; 1310; 1410; 1840; 1930; 2025) extending through a portion of the sole structure (110; 1015; 1800; 1900; 2000) and exposed to the internal cavity. an exposed outer member (115; 805; 1505; 1605; 1705; 1805; 1905; 2005) configured to contact the ground, the exposed outer member (115; 805; 1505; 1605; 1705; 1805; 1905; 2005) including a first aperture (120; 805; 1506; 1606; 1706; 1825); a sensory feedback member (125; 800; 1020, 1040, 1045; 1200; 1300; 1400; 1500; 1600; 1700; 1840; 1920; 2015) disposed at least partially within the first aperture (120; 805; 1506; 1606; 1706; 1825) in the outer member (115; 805; 1505; 1605; 1705; 1805; 1905; 2005), the sensory feedback member (125; 800; 1020, 1040, 1045; 1200; 1300; 1400; 1500; 1600; 1700; 1840; 1920; 2015) including a first end and a second end; wherein the first end of the sensory feedback member (125; 800; 1020, 1040, 1045; 1200; 1300; 1400; 1500; 1600; 1700; 1840; 1920; 2015) includes a projection (205; 815; 1515; 1615; 1715; 1830; 1925; 2020) extending through the first aperture (120; 805; 1506; 1606; 1706; 1825) and configured to contact the ground; and characterized in that the second end of the sensory feedback member (125; 800; 1020, 1040, 1045; 1200; 1300; 1400; 1500; 1600; 1700; 1840; 1920; 2015) includes a plurality of flexible bristles (215; 820; 1035; 1210; 1310; 1410; 1840; 1930; 2025) extending through a portion of the sole structure (110; 1015; 1800; 1900; 2000) and exposed to the internal cavity.
A system comprising; a user interface configured to receive text input by a user; a text prediction engine comprising a plurality of language models and configured to receive the input text from the user interface and to generate concurrently text predictions using the plurality of language models (3, 4, 6, 7); and wherein the text prediction engine is further configured to provide text predictions to the user interface for display and user selection.
A heat exchanger comprising a first section through which a first medium can flow, and a second section through which a second medium can flow, wherein during operation a heat exchange takes place between the first and the second medium, - wherein the first section comprises an inlet chamber and first tubes connected to the inlet chamber, and an outlet chamber and second tubes connected to the outlet chamber, - wherein the first tubes are each closed at the ends facing away from the inlet chamber, and - wherein each second tube is at least partly arranged inside one of the first tubes, and the end of each second tube that faces away from the outlet chamber is open to the interior of the respective first tube, - wherein the second section comprises an inlet means and an outlet means, - wherein the inlet means opens into a heat exchanger chamber and the heat exchanger chamber at least partly surrounds the first tubes of the first section, - and wherein the heat exchanger chamber is connected to the outlet means. characterized in that the inlet means comprises a shut-off device for shutting off the fluid flow of the second medium into the heat exchanger chamber, and that a bypass device connects the inlet means and the outlet means to lead the fluid flow of the second medium at least partly past the heat exchanger chamber, wherein the shut-off device is arranged downstream of the bypass device in the flow direction of the second medium. - wherein the first section comprises an inlet chamber and first tubes connected to the inlet chamber, and an outlet chamber and second tubes connected to the outlet chamber, - wherein the first tubes are each closed at the ends facing away from the inlet chamber, and - wherein each second tube is at least partly arranged inside one of the first tubes, and the end of each second tube that faces away from the outlet chamber is open to the interior of the respective first tube, - wherein the second section comprises an inlet means and an outlet means, - wherein the inlet means opens into a heat exchanger chamber and the heat exchanger chamber at least partly surrounds the first tubes of the first section, - and wherein the heat exchanger chamber is connected to the outlet means.
A method comprising: receiving first data, n(t), indicative of a first audio signal, f(t), detected by a microphone of a network device while the network device was positioned within a predetermined physical range of a microphone of a playback device; receiving second data, m(t), indicative of a second audio signal, s(t), detected by the microphone of the playback device, wherein the predetermined physical range is such that the first audio signal f(t) detected by the microphone of the network device and the second audio signal s(t) detected by the microphone of the playback device are substantially the same; based on the first and second data and a known acoustic characteristic h p (t) of the microphone of the playback device, determining an acoustic characteristic h n (t) of the microphone of the network device according to m t ⊗ h p − 1 t = n t ⊗ h n − 1 t; taking the inverse of the determined acoustic characteristic h n (t) represented as h n -1 (t) as a microphone calibration algorithm for the microphone of the network device; and then applying the microphone calibration algorithm to the microphone of the network device when processing audio signals outputted by the microphone of the network device. receiving first data, n(t), indicative of a first audio signal, f(t), detected by a microphone of a network device while the network device was positioned within a predetermined physical range of a microphone of a playback device; receiving second data, m(t), indicative of a second audio signal, s(t), detected by the microphone of the playback device, wherein the predetermined physical range is such that the first audio signal f(t) detected by the microphone of the network device and the second audio signal s(t) detected by the microphone of the playback device are substantially the same; based on the first and second data and a known acoustic characteristic h p (t) of the microphone of the playback device, determining an acoustic characteristic h n (t) of the microphone of the network device according to m t ⊗ h p − 1 t = n t ⊗ h n − 1 t; taking the inverse of the determined acoustic characteristic h n (t) represented as h n -1 (t) as a microphone calibration algorithm for the microphone of the network device; and then applying the microphone calibration algorithm to the microphone of the network device when processing audio signals outputted by the microphone of the network device.
A waste curing device to cure waste generated by an additive manufacturing system, the waste curing device comprising: a container for receiving said waste; a movable cover positioned above said container; a static cover positioned above said container; one or more waste nozzles configured to deliver waste into said container; and one or more curing sources configured to provide curing radiation to cure said waste in said container; wherein said movable cover is configured to move relative to said static cover to provide an open position for said waste nozzles to deliver waste into said container; and subsequently to a closed position, to shield said waste nozzles from said curing radiation. a container for receiving said waste; a movable cover positioned above said container; a static cover positioned above said container; one or more waste nozzles configured to deliver waste into said container; and one or more curing sources configured to provide curing radiation to cure said waste in said container; wherein said movable cover is configured to move relative to said static cover to provide an open position for said waste nozzles to deliver waste into said container; and subsequently to a closed position, to shield said waste nozzles from said curing radiation.