mhurhangee/ep-ind-claims huggingface dataset:
A method of calibrating a driver assistance system of a vehicle, the method comprising: entering a calibration mode for the driver assistance system; determining with a controller for the driver assistance system a first estimated position and heading of the vehicle at a first location; capturing a first image from at least one camera (410, 410a, 410b, 410c, 410d) outwardly facing from the vehicle and selecting at least one feature in the first image; moving the vehicle to at least a second location and heading and determining a second estimated position and heading of the vehicle; capturing a second image from at least one camera (410, 410a, 410b, 410c, 410d) outwardly facing from the vehicle and selecting at least one feature in the second image, wherein the at least one selected feature in the second image is the same feature as the at least one selected feature in the first image; and calculating with the controller new vehicle motion parameter values based on the first estimated position and heading, second estimated position and heading, first recorded at least one feature data, and second recorded at least one feature data, wherein the vehicle motion parameter values include at least one of: wheelbase, track width, tire diameter, steering offset and steering ratio, and wherein moving the vehicle includes: steering, braking, and accelerating. entering a calibration mode for the driver assistance system; determining with a controller for the driver assistance system a first estimated position and heading of the vehicle at a first location; capturing a first image from at least one camera (410, 410a, 410b, 410c, 410d) outwardly facing from the vehicle and selecting at least one feature in the first image; moving the vehicle to at least a second location and heading and determining a second estimated position and heading of the vehicle; capturing a second image from at least one camera (410, 410a, 410b, 410c, 410d) outwardly facing from the vehicle and selecting at least one feature in the second image, wherein the at least one selected feature in the second image is the same feature as the at least one selected feature in the first image; and calculating with the controller new vehicle motion parameter values based on the first estimated position and heading, second estimated position and heading, first recorded at least one feature data, and second recorded at least one feature data, wherein the vehicle motion parameter values include at least one of: wheelbase, track width, tire diameter, steering offset and steering ratio,
A method of identifying, designing or screening for a compound that can potentially interact with IGF-1R, comprising performing structure-based evaluation of a compound based on the compound's interactions with a structure defined by the atomic coordinates of Appendix I and/or Appendix II, or a subset thereof of both or either; wherein the subset of atomic coordinates define one or more of (i) the central β-sheet of L1, (ii) the central modules of CR, (iii) the AB loop of FnIII-1, (iv) the CC' loop of FnIII-1, (v) the EF loop of FnIII-1 and (vi) FnIII-2, wherein a candidate compound for interacting with IGF-1R is chemically modified as a result of the structure-based evaluation.
A support mechanism for reducing an effect of horizontal force on load measurement, the support mechanism comprising:- a support structure having surfaces (31, 52, 53, 63) at a first end and a second end, a force-sensor coupling element; and a base-coupling element; wherein the first end and the second end of the support structure releasably engages with the force-sensor coupling element at a first interface and the base-coupling element at a second interface, so as to allow the structure to tilt in response to a horizontal force applied to the support mechanism, characterised in that the surface of the support structure at each of the first and second interface has a oblate spheroidal surface; each of the first and second interfaces (630, 660) includes a contact area between a convex surface (52, 63) and a concave surface (31, 53) allowing each convex surface to roll on its respective concave surface when a horizontal force is applied to the support mechanism. a support structure having surfaces (31, 52, 53, 63) at a first end and a second end, a force-sensor coupling element; and a base-coupling element; wherein the first end and the second end of the support structure releasably engages with the force-sensor coupling element at a first interface and the base-coupling element at a second interface, so as to allow the structure to tilt in response to a horizontal force applied to the support mechanism, characterised in that the surface of the support structure at each of the first and second interface has a oblate spheroidal surface; each of the first and second interfaces (630, 660) includes a contact area between a convex surface (52, 63) and a concave surface (31, 53) allowing each convex surface to roll on its respective concave surface when a horizontal force is applied to the support mechanism.
Mobile assembly trolley for transport and positioning of building elements such as plates, beams, poles and blocks, which assembly trolley includes a first frame and wheels or similar on said first frame and including a movable carrying profile and a mostly vertical profile to which the movable carrying profile is rotatably mounted in a first turning joint and a tool holder for securing a tool, which tool holder is rotatably mounted to the movable carrying profile, which carrying profile by a primary displacement design such as a hydraulic cylinder is designed to rotate around the first turning joint by which the tool holder performs a movement in vertical direction and that the tool holder includes a second displacement mechanism including a second displacement design such as a hydraulic cylinder for displacement of the tool holder in horizontal direction wherein the assembly trolley includes a third displacement design such as a hydraulic cylinder designed to tip / turn the tool holder around a horizontal axis system, which third displacement design includes a first movable end which first movable end is connected rotatably to the tool holder and which third displacement design at a part is connected to the movable carrying profile wherein the second displacement mechanism includes a gear construction and the second displacement design such as a hydraulic cylinder for creation of a horizontal displacement of the tool holder and wherein the second displacement design is designed for, by a displacement length L1, to transmit a horizontal displacement to the tool holder by which the tool holder is moved in horizontal direction with a displacement length on L2 where L2 is larger than L1 and wherein the gear construction includes a curved profile composed of at least two profile pieces (16',16") connected in a profile turning joint by which the two profile pieces (16',16") can rotate around the turning joint in relation to each other, which curved profile includes a first end and an opposite second end, and that at least the first end is secured to the displaceable tool holder in a second turning joint, and that the second displacement design includes a first and movable end part, which first end part is rotatably connected to the profile between the profile turning joint and the second turning joint.
An electrode assembly comprising: an electrode stack in which a plurality of first electrodes spaced apart from each other are disposed between two separators; and second electrodes attached to both outer surfaces of the electrode stack at alternate positions of a plurality of positions on which the first electrodes are disposed, characterized in that the second electrode, the separator, the first electrode, the separator and the second electrode are sequentially stacked at one position, the separator, the first electrode and the separator are stacked at the adjacent position, in the electrode stack, an area between the first electrode and the adjacent first electrode is to be folded, the electrode stack comprises a plurality of folding parts that are portions to be folded, the folding part and the adjacent folding part are adapted to be folded in directions opposite to each other in a zigzag manner, and the first electrodes have the same size which is greater than that of the second electrodes. an electrode stack in which a plurality of first electrodes spaced apart from each other are disposed between two separators; and second electrodes attached to both outer surfaces of the electrode stack at alternate positions of a plurality of positions on which the first electrodes are disposed, characterized in that the second electrode, the separator, the first electrode, the separator and the second electrode are sequentially stacked at one position, the separator, the first electrode and the separator are stacked at the adjacent position, in the electrode stack, an area between the first electrode and the adjacent first electrode is to be folded, the electrode stack comprises a plurality of folding parts that are portions to be folded, the folding part and the adjacent folding part are adapted to be folded in directions opposite to each other in a zigzag manner, and the first electrodes have the same size which is greater than that of the second electrodes.
A safe (100, 200) for installation into a Point of Sale terminal or a Self-Service Terminal, the safe comprising: walls; and at least one of the walls including a gap (112, 213) and the gap (112, 213) including a safe protection mechanism (111, 214, 215, 216); characterised in that the safe protection mechanism (111, 214, 215, 216) is one of: woven fabric comprising a warp and weft woven fabric or a weft knitted fabric or a warp knitted fabric; a thin film having two different chemicals (214, 216) separated by the thin film that when mixed together produce a hard foam; and a chemical mixture (214 or 216) under pressure that when pressure is eased and/or air interacts with the chemical mixture (214 or 216) a hard foam is produced. walls; and at least one of the walls including a gap (112, 213) and the gap (112, 213) including a safe protection mechanism (111, 214, 215, 216); characterised in that the safe protection mechanism (111, 214, 215, 216) is one of: woven fabric comprising a warp and weft woven fabric or a weft knitted fabric or a warp knitted fabric; a thin film having two different chemicals (214, 216) separated by the thin film that when mixed together produce a hard foam; and a chemical mixture (214 or 216) under pressure that when pressure is eased and/or air interacts with the chemical mixture (214 or 216) a hard foam is produced. woven fabric comprising a warp and weft woven fabric or a weft knitted fabric or a warp knitted fabric; a thin film having two different chemicals (214, 216) separated by the thin film that when mixed together produce a hard foam; and a chemical mixture (214 or 216) under pressure that when pressure is eased and/or air interacts with the chemical mixture (214 or 216) a hard foam is produced.
A measurement system for refractive index and birefringence changes caused by nonlinear effects, composed of a femtosecond laser, a photonic optical fibre, an optical system including a light-splitting element and two optical channels (KO1, K02) and an interferometric system in a form of a variable wavelength interferometer (VAWI) situated in the optical axis of the measurement beam emerging from the optical system, characterized in that the first optical channel includes a monochromator with a condenser forming the measurement beam and the monochromator at the entrance is connected to the photonic optical fibre and the second optical channel includes a mirror system including a moveable mirror adapted to change the optical path length of the second beam in the second optical channel, while the tested material is placed in the measurement area situated in the crossing of the measurement beam and the second beam delivered via the optical channel, wherein the optical filter adapted to cutoff the second beam laser light is placed between the tested material and the VAWI interferometer, the first optical channel includes a focusing element, particularly in a form of the first lens placed at the input endface of the photonic optical fibre, and the second optical channel includes the second optical fibre outfitted with an optical focusing element at its input endface, particularly in a form of the second lens.
Method for operating a brushless electric motor of a motor vehicle, in particular an electromotive refrigerant compressor, comprising two motor elements (64, 66), which are arranged in sections and each have n phases (A, B, C, U, V, W), by means of a converter corresponding to the number of phases (A, B, C, U, V, W) of the electric motor, wherein each of the motor elements (64, 66) forms a cohesive circumferential section of the electric motor, so that the stators of the respective motor elements (64, 66) are arranged in sections and form the stator of the electric motor, wherein the electric motor has only one single rotor which is associated with the two motor elements (64, 66), in which method - first switching points are determined for the n phases (A, B, C) of one of the motor elements based on a power requirement, - second switching points are determined for the n phases (U, V, W) of the other motor element based on the power requirement, - the second switching points are shifted by a first phase angle, and - the converter is actuated based on the first switching points and the second switching points, wherein the first phase angle is selected in such a way that a resulting flow of current across the converter is lower than a first limit value. - first switching points are determined for the n phases (A, B, C) of one of the motor elements based on a power requirement, - second switching points are determined for the n phases (U, V, W) of the other motor element based on the power requirement, - the second switching points are shifted by a first phase angle, and - the converter is actuated based on the first switching points and the second switching points,
Compounds of the formula in which A represents one of the radicals pyrimidinyl, pyrazolyl or 1,2,4-triazolyl which are substituted by fluorine, chlorine, bromine, cyano, nitro, C 1 -C 4 -alkyl (which is optionally substituted by fluorine and/or chlorine), C 1 -C 3 -alkylthio (which is optionally substituted by fluorine and/or chlorine), or C 1 -C 3 -alkylsulphonyl (which is optionally substituted by fluorine and/or chlorine), or A represents a radical in which X represents halogen, alkyl or haloalkyl, Y represents halogen, alkyl, haloalkyl, haloalkoxy, azido or cyano, B represents oxygen, sulphur or methylene, R 1 represents haloalkyl, haloalkenyl, halocycloalkyl or halocycloalkylalkyl, R 2 represents hydrogen or halogen and R 3 represents hydrogen or alkyl. A represents one of the radicals pyrimidinyl, pyrazolyl or 1,2,4-triazolyl which are substituted by fluorine, chlorine, bromine, cyano, nitro, C 1 -C 4 -alkyl (which is optionally substituted by fluorine and/or chlorine), C 1 -C 3 -alkylthio (which is optionally substituted by fluorine and/or chlorine), or C 1 -C 3 -alkylsulphonyl (which is optionally substituted by fluorine and/or chlorine), or A represents a radical in which X represents halogen, alkyl or haloalkyl, Y represents halogen, alkyl, haloalkyl, haloalkoxy, azido or cyano, X represents halogen, alkyl or haloalkyl, Y represents halogen, alkyl, haloalkyl, haloalkoxy, azido or cyano, B represents oxygen, sulphur or methylene, R 1 represents haloalkyl, haloalkenyl, halocycloalkyl or halocycloalkylalkyl, R 2 represents hydrogen or halogen and R 3 represents hydrogen or alkyl.
Immersion device for immersing wafers, comprising retaining bars for retaining the wafers, at least one variable retaining bar and two end plates bearing said retaining bars for retaining the wafers, each end plate comprising at least one groove for receiving said at least one variable retaining bar that is configured to be positioned at a height that can be adjusted by sliding in the grooves in the two plates, characterized in that said at least one variable retaining bar comprises in each case two opposing rows of teeth for separating the wafers.
A combined power apparatus that combines a Rankine cycle apparatus provided with an expansion machine that expands steam generated to generate power and a binary cycle apparatus that recovers thermal energy contained in the steam expanded by the expansion machine provided in the Rankine cycle apparatus and uses the recovered thermal energy to generate power, the combined power apparatus comprising: a controller for controlling the temperature of steam after being expanded by the expansion machine provided in the Rankine cycle apparatus to 100°C or higher, wherein the controller comprises an adjustment control unit for adjusting the amount of thermal energy recovered from the Rankine cycle apparatus by the binary cycle apparatus so that the temperature of steam after being expanded by the expansion machine provided in the Rankine cycle apparatus becomes 100°C or higher, characterized in that the controller further comprises a measurement unit for measuring the temperature of steam circulating on the outlet side of the expansion machine provided in the Rankine cycle apparatus, and the adjustment control unit is capable of adjusting the amount of thermal energy recovered from the Rankine cycle apparatus by the binary cycle apparatus so that the temperature of steam after being expanded by the expansion machine provided in the Rankine cycle apparatus becomes 100°C or higher, based on the temperature of the steam measured by the measurement unit. a controller for controlling the temperature of steam after being expanded by the expansion machine provided in the Rankine cycle apparatus to 100°C or higher, wherein the controller comprises an adjustment control unit for adjusting the amount of thermal energy recovered from the Rankine cycle apparatus by the binary cycle apparatus so that the temperature of steam after being expanded by the expansion machine provided in the Rankine cycle apparatus becomes 100°C or higher, characterized in that the controller further comprises a measurement unit for measuring the temperature of steam circulating on the outlet side of the expansion machine provided in the Rankine cycle apparatus, and the adjustment control unit is capable of adjusting the amount of thermal energy recovered from the Rankine cycle apparatus by the binary cycle apparatus so that the temperature of steam after being expanded by the expansion machine provided in the Rankine cycle apparatus becomes 100°C or higher, based on the temperature of the steam measured by the measurement unit.
A method for diagnosing multiple sclerosis in a patient, said method comprising the steps of: a) determining in a sample from said patient, the expression level of the miRNA hsa-miR-16-2-3p; b) comparing the pattern of expression level(s) determined in step a) with one or several reference pattern(s) of expression levels; and c) diagnosing multiple sclerosis from the outcome of the comparison in step b). a) determining in a sample from said patient, the expression level of the miRNA hsa-miR-16-2-3p; b) comparing the pattern of expression level(s) determined in step a) with one or several reference pattern(s) of expression levels; and c) diagnosing multiple sclerosis from the outcome of the comparison in step b).
Apparatus for decorating frozen confectionery on sticks, the apparatus comprising: - a coating station for applying coating material onto the frozen confectionery, - a particle dispensing station for applying particles onto the coated frozen confectionery, - a conveyor for moving the frozen confectionery past the coating station and the particle dispensing station, the conveyor comprising gripping means arranged on the conveyor and having a product attached position and an opened position for gripping and releasing the stick of the frozen confectionery, and the conveyor comprising guides for moving the gripping means with the frozen confectionery between a vertical position and a horizontal position, and wherein the apparatus further comprises - a heating station installed at a position between the coating station and the particle dispensing station, and wherein the gripping means are arranged to hold the frozen confectionery in the horizontal position when passing the heating station and the particle dispensing station, and - coating removal means for removing coating material on one side of the frozen confectionery, which coating removal means are at a position after the coating station in the direction of the movement of the conveyor and before the particle dispensing station, wherein the coating removal means comprises airflow means adapted to partially remove coating material from one side of the frozen confectionery. - a coating station for applying coating material onto the frozen confectionery, - a particle dispensing station for applying particles onto the coated frozen confectionery, - a conveyor for moving the frozen confectionery past the coating station and the particle dispensing station, the conveyor comprising gripping means arranged on the conveyor and having a product attached position and an opened position for gripping and releasing the stick of the frozen confectionery, and the conveyor comprising guides for moving the gripping means with the frozen confectionery between a vertical position and a horizontal position, and wherein the apparatus further comprises - a heating station installed at a position between the coating station and the particle dispensing station, and wherein the gripping means are arranged to hold the frozen confectionery in the horizontal position when passing the heating station and the particle dispensing station, and - coating removal means for removing coating material on one side of the frozen confectionery, which coating removal means are at a position after the coating station in the direction of the movement of the conveyor and before the particle dispensing station, wherein the coating removal means comprises airflow means adapted to partially remove coating material from one side of the frozen confectionery.
A dishwasher, comprising: a body defining an accommodating cavity used to accommodate tableware, a wall of the accommodating cavity defining a gas inlet and a gas outlet; an air passage having an air outlet in communication with the gas inlet, and an air inlet in communication with the gas outlet, a catalyst piece having nanometer titanium dioxide and provided in the air passage; and an ultraviolet lamp configured to emit ultraviolet light to the catalyst piece and provided in the air passage, wherein a plurality of catalyst pieces are provided, characterised in that the plurality of catalyst pieces are spaced apart across the air passage along a length direction of the ultraviolet lamp, and a length direction of each catalyst piece is in an air flow direction of the air passage and along the air passage perpendicular to the length direction of the ultraviolet lamp. a body defining an accommodating cavity used to accommodate tableware, a wall of the accommodating cavity defining a gas inlet and a gas outlet; an air passage having an air outlet in communication with the gas inlet, and an air inlet in communication with the gas outlet, a catalyst piece having nanometer titanium dioxide and provided in the air passage; and an ultraviolet lamp configured to emit ultraviolet light to the catalyst piece and provided in the air passage, wherein a plurality of catalyst pieces are provided, characterised in that the plurality of catalyst pieces are spaced apart across the air passage along a length direction of the ultraviolet lamp, and a length direction of each catalyst piece is in an air flow direction of the air passage and along the air passage perpendicular to the length direction of the ultraviolet lamp.