mhurhangee/ep-ind-claims huggingface dataset:
An autonomous driving method enabling a vehicle to maintain a driving situation immediately behind a target vehicle, comprising: - A step of detecting and recording distinctive characteristics of the target vehicle by first detecting means (11, 13) - A step of autonomous driving immediately behind said target vehicle performed by autonomous driving means (11, 12, 13), - A step of detecting by second detecting means (11, 13) a situation in which said vehicle is no longer or will no longer be in a driving situation immediately behind said target vehicle, - A step of checking by control means (11, 13) the possibility of carrying out at least one lane change according to a predefined scenario, - Characterised in that it further comprises: a step of carrying out by the autonomous driving means (11, 12, 13) said at least one lane change according to said predefined scenario so as to allow said vehicle to resume the driving situation immediately behind the target vehicle, and a subsequent step of recognition of the target vehicle by the first detection means (11, 13) on the basis of the distinctive characteristics recorded during the step of detecting and recording distinctive characteristics of the target vehicle. - A step of detecting and recording distinctive characteristics of the target vehicle by first detecting means (11, 13) - A step of autonomous driving immediately behind said target vehicle performed by autonomous driving means (11, 12, 13), - A step of detecting by second detecting means (11, 13) a situation in which said vehicle is no longer or will no longer be in a driving situation immediately behind said target vehicle, - A step of checking by control means (11, 13) the possibility of carrying out at least one lane change according to a predefined scenario, - Characterised in that it further comprises: a step of carrying out by the autonomous driving means (11, 12, 13) said at least one lane change according to said predefined scenario so as to allow said vehicle to resume the driving situation immediately behind the target vehicle, and a subsequent step of recognition of the target vehicle by the first detection means (11, 13) on the basis of the distinctive characteristics recorded during the step of detecting and recording distinctive characteristics of the target vehicle. a step of carrying out by the autonomous driving means (11, 12, 13) said at least one lane change according to said predefined scenario so as to allow said vehicle to resume the driving situation immediately behind the target vehicle, and a subsequent step of recognition of the target vehicle by the first detection means (11, 13) on the basis of the distinctive characteristics recorded during the step of detecting and recording distinctive characteristics of the target vehicle.
A memory cell array comprising a first row of M multi-time programming memory cells (c00∼c03), wherein the M multi-time programming memory cells (c00∼c03) in the first row are connected with a first select gate line, a first word line and a first control line, the M multi-time programming memory cells (c00∼c03) in the first row are respectively connected with corresponding M source lines (SL0∼SL3), and the M multi-time programming memory cells (c00∼c03) in the first row are respectively connected with corresponding M bit lines (BL0~BL3), wherein N multi-time programming memory cells (c00∼c01) of the M multi-time programming memory cells (c00∼c03) in the first row are connected with a first inhibit line and a first erase line, and the other multi-time programming memory cells (c02∼c03) of the M multi-time programming memory cells (c00∼c03) in the first row are connected with a second inhibit line and a second erase line.
Terminal for a battery having a hollow body, which has an outer wall and an inner wall, further providing a mounting section, a contacting section and a torque ring between the mounting section and the contacting section, the outer wall preferably has at least one labyrinth ring (131, 132) at the mounting section, forming a labyrinth, characterized in, that the inner wall has at least an upper section which is surrounded by the contacting section, a lower section which is surrounded by the mounting section and which has in a lateral sectional view a concave shape, and an edge between the upper section and the a lower section.
A tire mold comprising: a pair of side plates; a pair of bead rings abutting on the side plates; and a gas venting passage lying between the side plates and the bead rings, where each of the bead rings has: a cavity surface; an outer side surface situated opposite to the cavity surface; and an outer peripheral surface connecting the cavity surface and the outer side surface, the outer peripheral surface has two regions in a direction of a bead ring thickness, one region being referred to as a first outer peripheral surface adjoining the cavity surface and the other region being referred to as a second outer peripheral surface adjoining the outer side surface, a first gap is lying between the first outer peripheral surface and the side plate a second gap is lying between the first outer peripheral surface and the side plate by making an outside diameter of the second outer peripheral surface smaller than an outside diameter of the first outer peripheral surface, a third gap is lying between the outer side surface and the side plate by the presence of a plurality of vent grooves on the outer side surface, and the first to third gaps (E1, E2, E3) function as the gas venting passage characterized in that the first gap E1 being defined by the presence of a knurled groove on the first outer peripheral surface.
A door latch device comprising a casing, a motor (19,44) housed in the casing for controlling an operation mechanism which shifts a door between a lock state and an unlock state, and a switch member housed in the casing and comprising a conductive member electrically conductive to the motor, wherein the switch member has a motor cover in a size for covering the motor from a vehicle interior side, wherein a connection part of the motor (19, 44) is connected to the conductive member on a vehicle-exterior-side side face of the motor cover, and the motor and the connection part are covered with the motor cover from a vehicle interior side, and wherein the motor is housed in the casing below a connector of the switch member (371, 372, 37) connected to an external connector and a motion transmission member connected to an operation lever which is a part of the operation mechanism. a casing, a motor (19,44) housed in the casing for controlling an operation mechanism which shifts a door between a lock state and an unlock state, and a switch member housed in the casing and comprising a conductive member electrically conductive to the motor, wherein the switch member has a motor cover in a size for covering the motor from a vehicle interior side, wherein a connection part of the motor (19, 44) is connected to the conductive member on a vehicle-exterior-side side face of the motor cover, and the motor and the connection part are covered with the motor cover from a vehicle interior side, and wherein the motor is housed in the casing below a connector of the switch member (371, 372, 37) connected to an external connector and a motion transmission member connected to an operation lever which is a part of the operation mechanism.
A method comprising: employing a processor to virtually slice a CAD representation of a hollow 3D object into a plurality of virtual printed layers and: detecting gaps and shell weak spots between sliced layers; analyzing the gaps and shell weak spots between sliced layers to detect the size of the gaps and shell weak spots between the sliced layers, wherein the size of the gap and shell weak spots is determined by determining a spatial relation between an analyzed layer and at least one neighbor layer; generating, based on the size of the detected gaps and shell weak spots, an inner support segment geometry that follows the geometry of the 3D object, wherein the inner support segment is configured to form an integral part of the object inner structure whereby removal of the inner support segment is not required after the 3D object printing is completed. employing a processor to virtually slice a CAD representation of a hollow 3D object into a plurality of virtual printed layers and: detecting gaps and shell weak spots between sliced layers; detecting gaps and shell weak spots between sliced layers; analyzing the gaps and shell weak spots between sliced layers to detect the size of the gaps and shell weak spots between the sliced layers, wherein the size of the gap and shell weak spots is determined by determining a spatial relation between an analyzed layer and at least one neighbor layer; generating, based on the size of the detected gaps and shell weak spots, an inner support segment geometry that follows the geometry of the 3D object, wherein the inner support segment is configured to form an integral part of the object inner structure whereby removal of the inner support segment is not required after the 3D object printing is completed.
Piece of furniture with at least one movable furniture part, for example a drawer, door or flap, with a device for influencing the movement of the movable furniture part, which device has at least one transmitting device equipped with a transmitter and having at least one transmitting interface for wireless signal transmission, and wherein the device has at least one receiving device equipped with a receiver and having at least one receiving interface for signals transmitted wirelessly by the transmitting device, and with communication means facilitating a wireless signal transmission between the transmitting device and the receiving device, wherein a tensionable and unlockable energy storage device is provided, the force of which, when unlocked, is used for influencing the movement of the movable furniture part, and wherein the receiving device has a unidirectionally acting output unit, and with a triggering element, which triggers an unlocking process of the energy storage device in response to a received input signal, characterised in that the receiving device has an energy storage device which discharges in response to a received discharge signal and makes the released energy available for tensioning the energy storage device.
A population of cells enriched for non-hematopoietic STRO-1 + multipotential cells for use in a method of therapeutic weight reduction of a subject or therapeutic treatment or prevention of excessive weight or obesity in a subject, said method comprising administering to the subject the population of cells, wherein the population of cells comprises at least 1% non-hematopoietic STRO-1 + multipotential cells.
A total cereal composition for extrusion processing to form an expanded high fiber cereal product, said composition comprising: waxy starch in an amount from 7 to 10% by weight of the total composition and a cereal mixture comprising a fiber content in an amount from 6 to 10% by weight of the total composition, whole grain cereal present in an amount from 60% to 90% by weight of the total cereal composition, and water sufficient to form the expanded product, wherein the total cereal composition is mixed with water in the form selected from the group consisting of liquid water, steam, and blends thereof, to form a wet, free-flowing mixture that becomes a cooked cereal dough that expands upon extrusion, and wherein the amount of water is between 16% and 22% by weight of the wet, free-flowing mixture. waxy starch in an amount from 7 to 10% by weight of the total composition and a cereal mixture comprising a fiber content in an amount from 6 to 10% by weight of the total composition, whole grain cereal present in an amount from 60% to 90% by weight of the total cereal composition, and water sufficient to form the expanded product, wherein the total cereal composition is mixed with water in the form selected from the group consisting of liquid water, steam, and blends thereof, to form a wet, free-flowing mixture that becomes a cooked cereal dough that expands upon extrusion, and wherein the amount of water is between 16% and 22% by weight of the wet, free-flowing mixture.
A measurement apparatus for measuring a shape of a test surface, comprising: an optical system configured to irradiate a measurement point on the test surface and a reference surface with light, and cause test light reflected by the measurement point and reference light reflected by the reference surface to interfere with each other; a detector configured to detect an optical path length difference between the test light and the reference light by using interfering light of the test light and the reference light; and a processor configured to determine a position of the measurement point based on a plurality of detection results by the detector; wherein a detection result among the plurality of detection results includes an error which cyclically changes in accordance with a change of the optical path length difference, and the processor is configured to determine a cycle of the error, based on a relationship between a change amount of the optical path length of the test light and a change amount of the optical path length difference detected by the detector, in advance, to set n states in which optical path lengths of the test light are different from each other by 1/n (n ≥ 2) of the cycle of the error, and to obtain, as the plurality of detection results, n detection results obtained by causing the detector to detect the optical path length differences in the n states. an optical system configured to irradiate a measurement point on the test surface and a reference surface with light, and cause test light reflected by the measurement point and reference light reflected by the reference surface to interfere with each other; a detector configured to detect an optical path length difference between the test light and the reference light by using interfering light of the test light and the reference light; and a processor configured to determine a position of the measurement point based on a plurality of detection results by the detector; wherein a detection result among the plurality of detection results includes an error which cyclically changes in accordance with a change of the optical path length difference, and the processor is configured to determine a cycle of the error, based on a relationship between a change amount of the optical path length of the test light and a change amount of the optical path length difference detected by the detector, in advance, to set n states in which optical path lengths of the test light are different from each other by 1/n (n ≥ 2) of the cycle of the error, and to obtain, as the plurality of detection results, n detection results obtained by causing the detector to detect the optical path length differences in the n states.
An audio capture apparatus comprising: a microphone array; at least a first beamformer arranged to generate a beamformed audio output signal and at least one noise reference signal; a first transformer for generating a first frequency domain signal from a frequency transform of the beamformed audio output signal, the first frequency domain signal being represented by time frequency tile values; a second transformer for generating a second frequency domain signal from a frequency transform of the at least one noise reference signal, the second frequency domain signal being represented by time frequency tile values; and a difference processor arranged to generate time frequency tile difference measures, a time frequency tile difference measure for a first frequency being indicative of a difference between a first monotonic function of a norm of a time frequency tile value of the first frequency domain signal for the first frequency and a second monotonic function of a norm of a time frequency tile value of the second frequency domain signal for the first frequency; characterized in that said audio apparatus further comprises: a point audio source estimator for generating a point audio source estimate indicative of whether the beamformed audio output signal comprises a point audio source, the point audio source estimator being arranged to generate the point audio source estimate in response to a combined difference value for time frequency tile difference measures for frequencies above a frequency threshold. a microphone array; at least a first beamformer arranged to generate a beamformed audio output signal and at least one noise reference signal; a first transformer for generating a first frequency domain signal from a frequency transform of the beamformed audio output signal, the first frequency domain signal being represented by time frequency tile values; a second transformer for generating a second frequency domain signal from a frequency transform of the at least one noise reference signal, the second frequency domain signal being represented by time frequency tile values; and a difference processor arranged to generate time frequency tile difference measures, a time frequency tile difference measure for a first frequency being indicative of a difference between a first monotonic function of a norm of a time frequency tile value of the first frequency domain signal for the first frequency and a second monotonic function of a norm of a time frequency tile value of the second frequency domain signal for the first frequency; characterized in that said audio apparatus further comprises: a point audio source estimator for generating a point audio source estimate indicative of whether the beamformed audio output signal comprises a point audio source, the point audio source estimator being arranged to generate the point audio source estimate in response to a combined difference value for time frequency tile difference measures for frequencies above a frequency threshold.
Method for calibrating a microphone comprising a transducer element and an ASIC, wherein an output of the transducer element is fed into the ASIC, characterised in that the method comprises the following step: - calibrating a frequency dependency of an output voltage provided by the ASIC in response to a given input signal such that the sensitivity (S mic (f LLF)) of the microphone at a predetermined cutoff frequency (f LLF) shows a predefined reduction (Δ) compared to the sensitivity (S mic (f standard)) of the microphone at a standard frequency (f standard). - calibrating a frequency dependency of an output voltage provided by the ASIC in response to a given input signal such that the sensitivity (S mic (f LLF)) of the microphone at a predetermined cutoff frequency (f LLF) shows a predefined reduction (Δ) compared to the sensitivity (S mic (f standard)) of the microphone at a standard frequency (f standard).
A composition comprising a sodium/zinc mixed ionomer, wherein said sodium/zinc mixed ionomer is the neutralization product of a precursor acid copolymer; and further wherein (a) the precursor acid copolymer comprises copolymerized units of an α-olefin having 2 to 10 carbon atoms and 20 to 30 wt% of copolymerized units of an α,β-ethylenically unsaturated carboxylic acid having 3 to 8 carbon atoms, based on the total weight of the precursor acid copolymer; wherein the precursor acid copolymer has a melt flow rate of 1 0 to 4000 g/10 min, as determined in accordance with ASTM D1238 at 190°C and 2.16 kg; and wherein said precursor acid copolymer, when neutralized to a level of 40% to 90%, based on the total number of the carboxylic acid groups present in the precursor acid copolymer, to comprise carboxylate groups and counterions that consist essentially of sodium ions, produces a sodium ionomer, said sodium ionomer having a freeze enthalpy that is not detectable or that is less than 3.0 j/g, when determined by differential scanning calorimetry in accordance with ASTM D3418; and (b) said sodium/zinc mixed ionomer comprises carboxylate groups and a combination of counterions; said combination of counterions consisting essentially of 1 to 99 equivalent% of sodium cations, and, complementarily, 99 to 1 equivalent% of zinc cations, based on the total number of equivalents of carboxylate groups in the sodium/zinc mixed ionomer. (a) the precursor acid copolymer comprises copolymerized units of an α-olefin having 2 to 10 carbon atoms and 20 to 30 wt% of copolymerized units of an α,β-ethylenically unsaturated carboxylic acid having 3 to 8 carbon atoms, based on the total weight of the precursor acid copolymer; wherein the precursor acid copolymer has a melt flow rate of 1 0 to 4000 g/10 min, as determined in accordance with ASTM D1238 at 190°C and 2.16 kg; and wherein said precursor acid copolymer, when neutralized to a level of 40% to 90%, based on the total number of the carboxylic acid groups present in the precursor acid copolymer, to comprise carboxylate groups and counterions that consist essentially of sodium ions, produces a sodium ionomer, said sodium ionomer having a freeze enthalpy that is not detectable or that is less than 3.0 j/g, when determined by differential scanning calorimetry in accordance with ASTM D3418; and (b) said sodium/zinc mixed ionomer comprises carboxylate groups and a combination of counterions; said combination of counterions consisting essentially of 1 to 99 equivalent% of sodium cations, and, complementarily, 99 to 1 equivalent% of zinc cations, based on the total number of equivalents of carboxylate groups in the sodium/zinc mixed ionomer.
A printer comprising: a casing; a detachable unit provided to the casing, the detachable unit being configured to be detachable from the casing; an adjacent member provided adjacent to the detachable unit; and an engagement member (50A, 50B) attached to the adjacent member, the engagement member (50A, 50B) being configured to be changeable between an engagement position with which the adjacent member is engaged with the casing and a non-engagement position with which the adjacent member is removed from the casing, wherein the engagement member (50A, 50B) engages the detachable unit to the casing together with the adjacent member, at the engagement position; characterized in that the detachable unit is a unit that is exchangeable to provides either a function of peeling a release sheet or provides a function of cutting a continuous print medium; and the adjacent member is a platen roller. a casing; a detachable unit provided to the casing, the detachable unit being configured to be detachable from the casing; an adjacent member provided adjacent to the detachable unit; and an engagement member (50A, 50B) attached to the adjacent member, the engagement member (50A, 50B) being configured to be changeable between an engagement position with which the adjacent member is engaged with the casing and a non-engagement position with which the adjacent member is removed from the casing, wherein the engagement member (50A, 50B) engages the detachable unit to the casing together with the adjacent member, at the engagement position; characterized in that the detachable unit is a unit that is exchangeable to provides either a function of peeling a release sheet or provides a function of cutting a continuous print medium; and the adjacent member is a platen roller.
Vehicle window for radar environment detection, comprising: a window body having an inner side and an outer side, characterized in that the window body comprises a plurality of radar waveguides (41, 41-1 to 41-n) for guiding radar radiation from the inner side to the outer side and/or vice versa, the radar waveguides (41, 41-1 to 41-n) bringing about waveguiding of radar radiation via refractive index variations. a window body having an inner side and an outer side, characterized in that the window body comprises a plurality of radar waveguides (41, 41-1 to 41-n) for guiding radar radiation from the inner side to the outer side and/or vice versa, the radar waveguides (41, 41-1 to 41-n) bringing about waveguiding of radar radiation via refractive index variations.