mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method comprising: receiving a geographic location of a vehicle; identifying a roadway condition based on the geographic location and the direction of travel of the vehicle, wherein a roadway condition is a scenario at a fixed location along the roadway that requires the vehicle to adjust its velocity; receiving a reaction profile of an operator of the vehicle, wherein the reaction profile comprises a reaction time of the vehicle operator which refers to the time it takes from when an operator is notified or alerted of a roadway condition before reacting to the notification or alert, and wherein the reaction profile of the operator is received from an apparatus carried by the operator upon entering the vehicle; calculating an optimal warning distance from the location of the roadway condition based on a braking distance of the vehicle and the reaction time of the vehicle operator; and generating an alert to the roadway condition when the vehicle is located at the optimal warning distance from the location of the roadway condition, wherein the alert is for (i) a navigation system of the vehicle wherein the vehicle is an autonomous vehicle, or (ii) the operator of the vehicle. receiving a geographic location of a vehicle; identifying a roadway condition based on the geographic location and the direction of travel of the vehicle, wherein a roadway condition is a scenario at a fixed location along the roadway that requires the vehicle to adjust its velocity; receiving a reaction profile of an operator of the vehicle, wherein the reaction profile comprises a reaction time of the vehicle operator which refers to the time it takes from when an operator is notified or alerted of a roadway condition before reacting to the notification or alert, and wherein the reaction profile of the operator is received from an apparatus carried by the operator upon entering the vehicle; calculating an optimal warning distance from the location of the roadway condition based on a braking distance of the vehicle and the reaction time of the vehicle operator; and generating an alert to the roadway condition when the vehicle is located at the optimal warning distance from the location of the roadway condition, wherein the alert is for (i) a navigation system of the vehicle wherein the vehicle is an autonomous vehicle, or (ii) the operator of the vehicle.
A rotary processing body for a food processor, including: a conical upper part having a bottom end; and a lower part that extends from and that is coaxially disposed below said conical upper part, said conical upper part being formed with a blade protruding therefrom, said lower part having an annular radial wall and an upright surrounding wall, characterized in that said annular radial wall radiates outwardly from said bottom end of said conical upper part, and is formed with spaced apart first processing ribs that protrude therefrom, said upright surrounding wall extending downwardly from said outwardly radiating annular radial wall, cooperating with said annular radial wall to define an annular corner therebetween, and being formed with spaced apart second processing ribs that protrude therefrom. a conical upper part having a bottom end; and a lower part that extends from and that is coaxially disposed below said conical upper part, said conical upper part being formed with a blade protruding therefrom, said lower part having an annular radial wall and an upright surrounding wall, characterized in that said annular radial wall radiates outwardly from said bottom end of said conical upper part, and is formed with spaced apart first processing ribs that protrude therefrom, said upright surrounding wall extending downwardly from said outwardly radiating annular radial wall, cooperating with said annular radial wall to define an annular corner therebetween, and being formed with spaced apart second processing ribs that protrude therefrom.
An oral treatment device comprising: a head for use in treating an oral cavity of a user; an inertial measurement unit, IMU, configured to generate signals dependent on position and/or movement of the head of the oral treatment device relative to the oral cavity of the user; intraoral image sensor equipment configured to generate image data representing at least a portion of the oral cavity of the user; and a controller configured to: process the generated signals and the generated image data using a trained classification algorithm to determine an intraoral location of the head of the oral treatment device; and control the oral treatment device to perform an action based on the determined intraoral location, wherein the controller is further configured to: process the generated signals and the generated image data to identify, from a plurality of teeth, a tooth that is adjacent to the head of the oral treatment device, and control the oral treatment device to perform the action based on the identified tooth. a head for use in treating an oral cavity of a user; an inertial measurement unit, IMU, configured to generate signals dependent on position and/or movement of the head of the oral treatment device relative to the oral cavity of the user; intraoral image sensor equipment configured to generate image data representing at least a portion of the oral cavity of the user; and a controller configured to: process the generated signals and the generated image data using a trained classification algorithm to determine an intraoral location of the head of the oral treatment device; and control the oral treatment device to perform an action based on the determined intraoral location, wherein the controller is further configured to: process the generated signals and the generated image data to identify, from a plurality of teeth, a tooth that is adjacent to the head of the oral treatment device, and control the oral treatment device to perform the action based on the identified tooth. process the generated signals and the generated image data using a trained classification algorithm to determine an intraoral location of the head of the oral treatment device; and control the oral treatment device to perform an action based on the determined intraoral location, wherein the controller is further configured to: process the generated signals and the generated image data to identify, from a plurality of teeth, a tooth that is adjacent to the head of the oral treatment device, and control the oral treatment device to perform the action based on the identified tooth. process the generated signals and the generated image data to identify, from a plurality of teeth, a tooth that is adjacent to the head of the oral treatment device, and control the oral treatment device to perform the action based on the identified tooth.
Device for the detachable fastening of a drying agent cartridge to a housing of a compressed-air treatment installation of a vehicle, in particular of a utility vehicle, characterized by at least one fastening plate, having a first section, which is crimped to an end region of a crimped plate of a cartridge base and to an end region of a cartridge cover to form a connecting seam, and a second section (9; 29; 39; 49), which projects outward from the connecting seam.
Method for mapping positions of animals in an animal accommodation, comprising the steps of: i) equipping animals with a transmitter, wherein the transmitter is adapted to transmit a signal comprising an identifier and a position indication of the animal, ii) receiving the transmitted signals from the animals with a receiver (513,514), iii) determining the identifier and a position of an animal from the received signal, and iv) storing in a database the identifier, the position associated therewith and an indication of the time at which they were determined, wherein the determined position of an identified animal is used as animal recognition for a mixing and dosing device, said mixing and dosing device comprising a plurality of feed hoppers (11,12,13,14,15) for different types of feed, wherein each of the plurality of hoppers (11,12,13,14,15) has an infeed end and an outfeed end disposed thereunder, wherein a dosing device (91,92,93,94) is disposed in each hopper (11,12,13,14,15) at its outfeed end, further comprising a control device adapted to control each of the dosing devices (91,92,93,94) in order to dose feed from the associated hopper (11,12,13,14,15), a pivotable distributing hopper disposed under the plurality of outfeed ends, outfeed ports placed under the distributing hopper for connection to fodder conduits debouching in different feed troughs (321,322,323,324,325, 461-468, 561, 513, 561, 562), further comprising one or more actuators (76, 77) for pivoting the distributing hopper, wherein the control device is further adapted to control the actuators (76, 77) so as to position the distributing hopper with its downstream end substantially above a selected one of the outfeed ports, said mixing and dosing device further comprising a plurality of feed troughs (321,322,323,324,325, 461-468, 561, 513, 561, 562), wherein each of the feed troughs (321,322,323,324,325, 461-468, 561, 513, 561, 562) is connected to an outfeed port, wherein the control device is adapted to determine ratios in which the different types of feed are dosed from the different hoppers (11,12,13,14,15) on the basis of the animal or animal group associated with the feed trough (321,322,323,324,325, 461-468, 561, 513, 561, 562), said mixing and dosing device being further provided with animal identification means for identifying animals or animal groups at the feed trough (321,322,323,324,325, 461-468, 561, 513, 561, 562), wherein the control device is adapted to determine ratios in which the different types of feed are dosed from the different hoppers (11,12,13,14,15) on the basis of the animal or animal group recognized at the feed trough (321,322,323,324,325, 461-468, 561, 513, 561, 562). i) equipping animals with a transmitter, wherein the transmitter is adapted to transmit a signal comprising an identifier and a position indication of the animal, ii) receiving the transmitted signals from the animals with a receiver (513,514), iii) determining the identifier and a position of an animal from the received signal, and iv) storing in a database the identifier, the position associated therewith and an indication of the time at which they were determined,
A massage device comprising at least one massage section having a substantially cylindrical elastic rubber outer casing, comprising at least one electric motor drive disposed in the massage device and rotationally fixedly supported therein, and comprising a device for deforming the elastic rubber outer casing and disposed in the massage section and rotationally fixedly supported therein, characterized in that the device for producing deformations comprises a plurality of eccentric wheels rotationally driven by means of the electric motor drive, said wheels each comprising at least one freely rotating roller supported on at least one eccentric bearing pin, wherein the roller acts on the inner side of the rubber elastic outer casing for radially displacing the same relative to the massage section, and that the elastic rubber outer casing is connected to the roller at least when the rubber elastic outer casing is deformed.
Process of production of roll and membrane of submicrometric thickness of Ga 2 O 3 characterized by comprising the steps of: a) implanting ions in a semiconductor monocrystal of Ga 2 O 3, with a cleavage plane parallel to the surface, at a temperature below 500 °C, making an ion beam strike along a non-parallel direction to the referred cleavage plane, with an energy in the range of 10-4000 keV, a flux in the range of 1×10 12 -1×10 14 ions/cm 2.s and a fluence in the range of 1×10 13 -1×10 16 ions/cm 2, with formation of at least one roll; b) subjecting the at least one roll formed in step a) to a thermal treatment at a temperature equal to or higher than 500°C. a) implanting ions in a semiconductor monocrystal of Ga 2 O 3, with a cleavage plane parallel to the surface, at a temperature below 500 °C, making an ion beam strike along a non-parallel direction to the referred cleavage plane, with an energy in the range of 10-4000 keV, a flux in the range of 1×10 12 -1×10 14 ions/cm 2.s and a fluence in the range of 1×10 13 -1×10 16 ions/cm 2, with formation of at least one roll; b) subjecting the at least one roll formed in step a) to a thermal treatment at a temperature equal to or higher than 500°C.
Light source for a sensor unit of a position measuring device, comprising - an electrically conductive substrate having a first surface (1.1) and further surfaces (1.2 to 1.6), wherein at least two of the further surfaces (1.2 to 1.6) are arranged in a manner inclined or offset relative to the first surface (1.1), - a semiconductor layer structure applied on the first surface (1.1), - an electrically conductive layer (3; 30), which contacts the substrate at the two of the further surfaces (1.2 to 1.6), - a first electrical connection and a second electrical connection, wherein the first electrical connection is connected to the electrically conductive layer (3; 30) and the second electrical connection is connected to the semiconductor layer structure, such that, upon an electrical voltage difference being applied to the connections (4, 5), light is emittable with an orthogonal direction component with respect to the first surface (1.1) by means of the semiconductor layer structure at a first side of the light source, wherein both connections (4, 5) are arranged at the first side of the light source. - an electrically conductive substrate having a first surface (1.1) and further surfaces (1.2 to 1.6), wherein at least two of the further surfaces (1.2 to 1.6) are arranged in a manner inclined or offset relative to the first surface (1.1), - a semiconductor layer structure applied on the first surface (1.1), - an electrically conductive layer (3; 30), which contacts the substrate at the two of the further surfaces (1.2 to 1.6), - a first electrical connection and a second electrical connection, wherein the first electrical connection is connected to the electrically conductive layer (3; 30) and the second electrical connection is connected to the semiconductor layer structure, such that, upon an electrical voltage difference being applied to the connections (4, 5), light is emittable with an orthogonal direction component with respect to the first surface (1.1) by means of the semiconductor layer structure at a first side of the light source, wherein both connections (4, 5) are arranged at the first side of the light source.
Emulsion comprising a) polyolefin(s) in an amount of from 2 to 75 mass%, b) polymer(s) P x in an amount of from 0.05 to 40 mass%, wherein the polymer(s) P X is/are selected from the group consisting of compounds of formula 1 b, the integers being defined as R = H, methyl, R' = H, methyl, n = 1 to 200, X = O-, OH, OR, NH 2, NHR #, NR 2 # and their salts, Y = O-, OH, OR, NH 2, NHR #, NR 2 # and their salts, R # = alkyl, aryl, c) oil(s) O x in an amount of from 0 to 25 mass%, d) surfactant(s) S x in an amount of from 0 to 25 mass%, e) additive(s) A x in an amount of from 0 to 20 mass%, and f) water in an amount of from 10 to 97.95 mass%, based on the total mass of the emulsion. a) polyolefin(s) in an amount of from 2 to 75 mass%, b) polymer(s) P x in an amount of from 0.05 to 40 mass%, wherein the polymer(s) P X is/are selected from the group consisting of compounds of formula 1 b, the integers being defined as R = H, methyl, R' = H, methyl, n = 1 to 200, X = O-, OH, OR, NH 2, NHR #, NR 2 # and their salts, Y = O-, OH, OR, NH 2, NHR #, NR 2 # and their salts, R # = alkyl, aryl, R = H, methyl, R' = H, methyl, n = 1 to 200, X = O-, OH, OR, NH 2, NHR #, NR 2 # and their salts, Y = O-, OH, OR, NH 2, NHR #, NR 2 # and their salts, R # = alkyl, aryl, c) oil(s) O x in an amount of from 0 to 25 mass%, d) surfactant(s) S x in an amount of from 0 to 25 mass%, e) additive(s) A x in an amount of from 0 to 20 mass%, and f) water in an amount of from 10 to 97.95 mass%, based on the total mass of the emulsion.
An endoscope comprising: a distal end optical system that is movable forward and backward in an optical axis direction; a shaft that has a shaft axis, is configured to rotate in a rotation direction about the shaft axis, and moves the distal end optical system in the optical axis direction in a case in which the shaft rotates in the rotation direction; an operation member; a slider that moves forward and backward in a direction of the shaft axis according to an operation of the operation member; a power conversion transmission mechanism that rotates the shaft by the forward and backward movement of the slider; an insertion part; and a hand operating part that is connected to a base end side of the insertion part, wherein the distal end optical system is provided on a distal end side of the insertion part; and the operation member is provided on the hand operating part, characterized in that the slider and the power conversion transmission mechanism are provided on the hand operating part; and the shaft is provided from the hand operating part to the insertion part. a distal end optical system that is movable forward and backward in an optical axis direction; a shaft that has a shaft axis, is configured to rotate in a rotation direction about the shaft axis, and moves the distal end optical system in the optical axis direction in a case in which the shaft rotates in the rotation direction; an operation member; a slider that moves forward and backward in a direction of the shaft axis according to an operation of the operation member; a power conversion transmission mechanism that rotates the shaft by the forward and backward movement of the slider; an insertion part; and a hand operating part that is connected to a base end side of the insertion part, wherein the distal end optical system is provided on a distal end side of the insertion part; and the operation member is provided on the hand operating part, characterized in that the slider and the power conversion transmission mechanism are provided on the hand operating part; and the shaft is provided from the hand operating part to the insertion part.
A deposition method of a multilayered structure composed of a III group nitride compound semiconductor on a substrate, characterized in that: the multilayered structure comprises at least a buffer layer and an underlying layer from the substrate side, the buffer layer and the underlying layer on the buffer layer are laminated by a sputtering method, the buffer layer is formed of an aggregate of a columnar crystal of AlN, the underlying layer is formed of crystalline GaN, a deposition temperature of the underlying layer is adjusted to a temperature higher than a deposition temperature of the buffer layer so that the underlying layer grows by using crystal nucleus generated on the buffer layer as seeds while forming a dislocation loop on the buffer layer, wherein a thickness of the buffer layer is from 5 nm to 500 nm, and wherein the multilayer structure further comprises an n-contact layer, a light-emissive layer and a p-contact layer from the substrate side, the method further comprising the steps of: forming a buffer layer and at least a portion of a p-contact layer by a sputtering method, and forming a light-emissive layer by a MOCVD method. the multilayered structure comprises at least a buffer layer and an underlying layer from the substrate side, the buffer layer and the underlying layer on the buffer layer are laminated by a sputtering method, the buffer layer is formed of an aggregate of a columnar crystal of AlN, the underlying layer is formed of crystalline GaN, a deposition temperature of the underlying layer is adjusted to a temperature higher than a deposition temperature of the buffer layer so that the underlying layer grows by using crystal nucleus generated on the buffer layer as seeds while forming a dislocation loop on the buffer layer, wherein a thickness of the buffer layer is from 5 nm to 500 nm, and wherein the multilayer structure further comprises an n-contact layer, a light-emissive layer and a p-contact layer from the substrate side, the method further comprising the steps of: forming a buffer layer and at least a portion of a p-contact layer by a sputtering method, and forming a light-emissive layer by a MOCVD method. forming a buffer layer and at least a portion of a p-contact layer by a sputtering method, and forming a light-emissive layer by a MOCVD method.
A method for monitoring a yarn tension of a running yarn in a yarn treatment process, in which the yarn tension of the yarn is progressively measured, in which measurement signals of the yarn tension are compared to at least one limiting value of a permissible yarn tension and in which in the event of an impermissible tolerance deviation of the measurement signals, a short-term signal profile of the yarn tension is acquired as a fault graph, characterized in that the fault graph of the yarn tension is analyzed using a machine learning program, and in that the fault graph is assigned to a known fault graph category or a new fault graph category.
A security tag assembly structured to discourage unauthorized removal of merchandise from a given area, said security tag assembly comprising: an attachment member (14, 336, 436) and a base collectively disposable in an operative position relative to the merchandise, a connector member (22, 438) secured to said base and structured to interconnect said attachment member (14, 336, 436) and said base in said operative position, said attachment member (14, 336, 436) having a cooperative interconnection structuring that includes a channel disposed on the interior thereof, a locking assembly (36, 450) disposed within said attachment member (14, 336, 436) and structured to be disposable into and out of a movement restricting engagement with said connector member (22, 438), said locking assembly (36, 450) comprising at least one locking member (38, 454), wherein said locking member (38, 454) is disposable in an at least partially surrounding and engaging relation with said connector member (22, 438), characterized in that said locking assembly (36, 450) further comprises at least one positioning member disposed in an at least partially abutting relation with said locking member (38, 454), at least while said locking assembly (36, 450) is disposed in said movement restricting engagement with said connector member (22, 438). an attachment member (14, 336, 436) and a base collectively disposable in an operative position relative to the merchandise, a connector member (22, 438) secured to said base and structured to interconnect said attachment member (14, 336, 436) and said base in said operative position, said attachment member (14, 336, 436) having a cooperative interconnection structuring that includes a channel disposed on the interior thereof, a locking assembly (36, 450) disposed within said attachment member (14, 336, 436) and structured to be disposable into and out of a movement restricting engagement with said connector member (22, 438), said locking assembly (36, 450) comprising at least one locking member (38, 454), wherein said locking member (38, 454) is disposable in an at least partially surrounding and engaging relation with said connector member (22, 438), characterized in that said locking assembly (36, 450) further comprises at least one positioning member disposed in an at least partially abutting relation with said locking member (38, 454), at least while said locking assembly (36, 450) is disposed in said movement restricting engagement with said connector member (22, 438).