mhurhangee/ep-ind-claims huggingface dataset:
Chassis suspension of a utility vehicle, the chassis suspension having a bearing block which can be arranged on a frame of the utility vehicle, a chassis part which is held pivotably by a bearing pin in the bearing block, wherein the bearing pin is held in elongated holes in legs of the bearing block arranged at a distance from one another, a device for adjusting the position in space of the bearing pin in the elongated hole, having at least one eccentric element which has a passage opening through which one end of the bearing pin is guided, and the shape and dimensions of which create a rotationally-movable seat of the bearing pin in the eccentric element without play, between the eccentric element and the adjacent leg of the bearing block, a rotational connection is formed, by means of which the eccentric element is rotatably mounted about a pivot pin, arranged laterally offset to the passage opening, in a pivot bearing, the eccentric element has a non-round peripheral contour, the bearing pin is held in its position in space in the position of use in the elongated hole by adjustable clamping elements (24, 26) supported on the legs of the bearing block, in the intermediate space between the legs of the bearing block, a spacer sleeve is fitted onto the bearing pin, the eccentric element is designed as a plate, the non-round peripheral contour of the at least one eccentric element is polygonal, and the eccentric element is movable when the clamping elements (24, 26) are not yet tightened, characterized in that, the at least one eccentric element, in the position of use, is located between the adjacent clamping element (24, 26) and the adjacent leg of the bearing block, the plate has a planar contact surface on its side, facing away from the bearing block, for the clamping element (24, 26) arranged there, a tool can be fitted onto the corners of the peripheral contour in a form-fitting manner, and the eccentric element is movable about the pivot pin by means of the tool fitted onto the eccentric element.
A cleat assembly for a shoe comprising: an anchor for anchoring to the shoe; a cleat; a first biasing member circumscribing the anchor and engaged with the cleat; and a second biasing member biasing the first biasing member, wherein the cleat circumscribes the anchor, the first biasing member, and the second biasing member. an anchor for anchoring to the shoe; a cleat; a first biasing member circumscribing the anchor and engaged with the cleat; and a second biasing member biasing the first biasing member, wherein the cleat circumscribes the anchor, the first biasing member, and the second biasing member.
A method of laser hardening of a surface of a workpiece, the workpiece comprising at least one surface area to be hardened, the method comprising: projecting a laser beam from a laser source onto said surface area, so as to produce a laser spot on said surface area; generating a relative movement between the surface of the workpiece and the laser source, thereby allowing the laser spot to subsequently be projected onto different portions of said surface area; during said relative movement, repetitively scanning the laser beam across the respective portion of said surface area in two dimensions, following a scanning pattern so as to produce a two-dimensional effective laser spot on said surface area, said effective laser spot having an energy distribution, wherein due to the relative movement, said effective laser spot travels along said surface area; wherein said scanning pattern comprises at least three segments (a, b, c), and wherein said scanning of the laser beam is carried out so that said laser beam follows at least one of said segments (b) more frequently than it follows at least another one of said segments (a, c). projecting a laser beam from a laser source onto said surface area, so as to produce a laser spot on said surface area; generating a relative movement between the surface of the workpiece and the laser source, thereby allowing the laser spot to subsequently be projected onto different portions of said surface area; during said relative movement, repetitively scanning the laser beam across the respective portion of said surface area in two dimensions, following a scanning pattern so as to produce a two-dimensional effective laser spot on said surface area, said effective laser spot having an energy distribution, wherein due to the relative movement, said effective laser spot travels along said surface area; wherein said scanning pattern comprises at least three segments (a, b, c), and wherein said scanning of the laser beam is carried out so that said laser beam follows at least one of said segments (b) more frequently than it follows at least another one of said segments (a, c).
A standing lamp, comprising: a stand comprising a base and column; first and second luminaire modules, each comprising a plurality of light emitting elements (LEEs) distributed along a first direction (y), a light guide (130; 330) extending along the first direction, the light guide comprising an input end and an output end, and two opposing side surfaces extending from the input end to the output end in a second direction (z) orthogonal to the first direction, one or more optical couplers configured to couple light from the LEEs into the input end of the light guide, an optical extractor (140; 340) optically coupled to the output end of the light guide to receive light guided by the side surfaces of the light guide in the second direction, the optical extractor comprising a redirecting surface (143; 342; 343; 344) that is positioned to reflect at least some light from the light guide into a first angular range, and a housing configured to house at least the LEEs and to support the light guide; and a mount operatively coupling the first and second luminaire modules with the stand; wherein the optical extractor of each luminaire module further comprises an output surface (346; 348) with a curved cross-section in a plane (x-z) orthogonal to the first direction (y), the output surface arranged and configured to transmit the light in the first angular range to the ambient environment. a stand comprising a base and column; first and second luminaire modules, each comprising a plurality of light emitting elements (LEEs) distributed along a first direction (y), a light guide (130; 330) extending along the first direction, the light guide comprising an input end and an output end, and two opposing side surfaces extending from the input end to the output end in a second direction (z) orthogonal to the first direction, one or more optical couplers configured to couple light from the LEEs into the input end of the light guide, an optical extractor (140; 340) optically coupled to the output end of the light guide to receive light guided by the side surfaces of the light guide in the second direction, the optical extractor comprising a redirecting surface (143; 342; 343; 344) that is positioned to reflect at least some light from the light guide into a first angular range, and a housing configured to house at least the LEEs and to support the light guide; and a mount operatively coupling the first and second luminaire modules with the stand; wherein the optical extractor of each luminaire module further comprises an output surface (346; 348) with a curved cross-section in a plane (x-z) orthogonal to the first direction (y), the output surface arranged and configured to transmit the light in the first angular range to the ambient environment.
A capacitor comprising: a first winding member comprising a first conductive layer and first dielectric layer overlying the first conductive layer; a second winding member comprising a second conductive layer and a second dielectric layer overlying the second conductive layer, the first winding member interleaved, partially or entirely, with the second winding layer; a dielectric shell for radially surrounding the first winding member and the second winding member; and the first winding member electrically connected to a first conductive end; a second winding member electrically connected to a second conductive end, the second conductive end opposite the first conductive end, the first conductive end forming a first lead, the second conductive end forming a second lead, wherein the first conductive end has a peripheral mounting lip that extends inward toward and engages the dielectric shell and wherein the second conductive end has a peripheral mounting lip that extends inward toward and engages the dielectric shell; and wherein, the first conductive end has a first plurality of axially extending holes and wherein the second conductive end has a second plurality of axially extending holes, the first and second plurality of axially extending holes being configured to allow solder to flow into an electrical terminal gap region to electrically connect the first and second winding members to the first and second conductive ends respectively. a first winding member comprising a first conductive layer and first dielectric layer overlying the first conductive layer; a second winding member comprising a second conductive layer and a second dielectric layer overlying the second conductive layer, the first winding member interleaved, partially or entirely, with the second winding layer; a dielectric shell for radially surrounding the first winding member and the second winding member; and the first winding member electrically connected to a first conductive end; a second winding member electrically connected to a second conductive end, the second conductive end opposite the first conductive end, the first conductive end forming a first lead, the second conductive end forming a second lead, wherein the first conductive end has a peripheral mounting lip that extends inward toward and engages the dielectric shell and wherein the second conductive end has a peripheral mounting lip that extends inward toward and engages the dielectric shell; and wherein,
A method for monitoring a traffic stream circulating on a road, wherein video images of said traffic stream are recorded by means of a camera and further data measured from vehicles being part of said traffic are collected by means of a further measurement member, said camera and said further measurement member being located at a common location offset with respect to a central axis of said road, said further measurement member having a field of view extending around a further measurement member central axis and said camera having a camera field of view extending around a camera central axis, and wherein said further measurement member is set up in such a manner that its field of view is situated within the field of view of the camera, said further measurement member is oriented with respect to the camera so that their central axis of their field of view make a predetermined angle with respect to each other, and wherein further measurement member coordinates of moving objects in a selected section of said image are determined by said further measurement member, said further measurement member coordinates being transformed into further coordinates of an image reference frame and an identifier being displayed within said image portion at said further coordinates, characterised in that the further measurement member is formed by a radar, and wherein said method comprises a calibration of said video images by setting camera parameters, in particular a focal distance of a camera lens of said camera, and scene parameters, in particular a height at which said camera is positioned with respect to said road, said calibration further comprising a selection of an image of said video images and a determination within said selected image of a horizon in an environment in which said road extends followed by drawing in said selected image of a substantially horizontal line at said horizon, based on said horizontal line, said camera parameters and said scene parameters a reference frame for pixels composing said selected image being determined, an orientation angle indicating an angle between an axis extending along said road and a central axis of a radar beam emitted by said radar being determined by sampling subsequent positions on said road reached by a vehicle of said traffic stream travelling on said road, a line extending substantially vertically within a further selected image of said video images being drawn and coordinates for said line within said reference frame being determined, said line being thereafter rotated within said further selected image over an angle corresponding to said orientation angle.
Method for manufacturing a plurality of arresters as a composite structure, comprising the steps of: - providing a ceramic carrier having a plurality of holes, - providing two electrode bodies, - assembling the ceramic carrier and the two electrode bodies under a gas atmosphere into a base body, wherein the ceramic carrier is situated between the electrode bodies, - soldering the electrode bodies to the ceramic carrier, characterized in that each of the electrode bodies extends across a plurality of the holes of the ceramic carrier, and in that the method comprises the step of: - separating the base body into a plurality of gas-filled arresters and in the process severing the electrode bodies and the ceramic carrier. - providing a ceramic carrier having a plurality of holes, - providing two electrode bodies, - assembling the ceramic carrier and the two electrode bodies under a gas atmosphere into a base body, wherein the ceramic carrier is situated between the electrode bodies, - soldering the electrode bodies to the ceramic carrier, - separating the base body into a plurality of gas-filled arresters and in the process severing the electrode bodies and the ceramic carrier.
A device for immobilising the head of a patient in an installation for carrying out radiotherapy, wherein the device comprises a thermoplastic mask shaped according to the contour of the patient's head and a mouthpiece, wherein the mouthpiece has a central part from which a spout protrudes in the oral direction and from which a holding structure protrudes in the aboral direction, and wherein an air channel is provided which passes through the mouthpiece from the mouth-side end of the spout to the aboral side of the central part, characterised in that a region of the mask is shaped according to the contour of the holding structure.
A solid state lamp testing system, for testing a solid state light under test, comprising: (a) an hemisphere comprising an hemispheric integrating surface and a flat side; (b) a receptacle adapted to receive a solid state light under test or to receive a solid state reference lamp (SSRL) in place of said solid state light under test at the time of calibration; (c) a solid state auxiliary lamp attached to the hemisphere, (d) wherein the solid state auxiliary lamp is first calibrated as a working standard by comparison to the solid state reference lamp (SSRL) and thereafter used as a reference for the measurement of the solid state light under test; (e) a light detector port detecting the light emitted by the solid state auxiliary lamp and the solid state light under test or the solid state reference lamp when installed in the receptacle; (f) wherein the solid state auxiliary lamp comprises: (g) a lamp head comprising: a plurality of LED modules (29a-c); a thermoelectric cooler coupled to the LED modules; and a drive unit; (h) wherein the drive unit comprises: a plurality of current sources (32a-32b), each of the current sources coupled to a corresponding LED module; and a processor coupled to the current sources and configured to control each current source to control the light output of each current source's corresponding LED module. (a) an hemisphere comprising an hemispheric integrating surface and a flat side; (b) a receptacle adapted to receive a solid state light under test or to receive a solid state reference lamp (SSRL) in place of said solid state light under test at the time of calibration; (c) a solid state auxiliary lamp attached to the hemisphere, (d) wherein the solid state auxiliary lamp is first calibrated as a working standard by comparison to the solid state reference lamp (SSRL) and thereafter used as a reference for the measurement of the solid state light under test; (e) a light detector port detecting the light emitted by the solid state auxiliary lamp and the solid state light under test or the solid state reference lamp when installed in the receptacle; (f) wherein the solid state auxiliary lamp comprises: (g) a lamp head comprising: a plurality of LED modules (29a-c); a thermoelectric cooler coupled to the LED modules; and a drive unit; a plurality of LED modules (29a-c); a thermoelectric cooler coupled to the LED modules; and a drive unit; (h) wherein the drive unit comprises: a plurality of current sources (32a-32b), each of the current sources coupled to a corresponding LED module; and a processor coupled to the current sources and configured to control each current source to control the light output of each current source's corresponding LED module. a plurality of current sources (32a-32b), each of the current sources coupled to a corresponding LED module; and a processor coupled to the current sources and configured to control each current source to control the light output of each current source's corresponding LED module.
A hematology system for determining a platelet count in a biological sample, the system comprising a first module configured to determine a platelet clump count and a white blood cell count wherein the system further comprises: a second module configured to determine an observed platelet count and a white blood cell concentration; and a data processing module in connectivity with the first module and the second module, wherein the data processing module comprises a processor and a tangible computer readable medium, the computer readable medium programmed with a computer application that, when executed by the processor, causes the processor to determine the platelet count based on the sum of the observed platelet count and a lost platelet count, wherein the lost platelet count comprises a multiplication product of a first factor and a second factor, the first factor based on an estimation of the total number of platelet cells occurring in the platelet clumps and the white blood cell count, and the second factor being the white blood cell concentration.
A testing device for testing a photovoltaic device, particularly a solar cell, having an electrical contact area on its flat surface, the testing device comprising: a support base for supporting the photovoltaic device, the support base having a support surface for receiving the photovoltaic device, a measurement device (20, I, V), at least one electrical contacting means for temporarily establishing an electrical contact between the measurement device (20, I, V) and the electrical contact area of the photovoltaic device, characterized in that the electrical contacting means comprises at least one flexible wire being electrically conductive and arranged as to receive the photovoltaic device between the support surface and itself, and that the testing device comprises forcing means (10, 11, 12, 19; 14) for forcing at least a portion of the flexible wire to abuttingly adapt along its longitudinal extension against the electrical contact area of the photovoltaic device when the photovoltaic device is received by the support surface, wherein flexible wire is capable of adapting its run or form to the contour of the shape of the contact area of the photovoltaic device, and wherein flexible wire extends freely at least in its contacting section, which in the contacting position of the flexible wire abuts against the electrical contact area of the photovoltaic device, and wherein the flexible wire is tensioned, wherein preferably the tension in the wire is higher than 30 N, preferably approximately 50 N, when not touching a cell or the support base. a support base for supporting the photovoltaic device, the support base having a support surface for receiving the photovoltaic device, a measurement device (20, I, V), at least one electrical contacting means for temporarily establishing an electrical contact between the measurement device (20, I, V) and the electrical contact area of the photovoltaic device, characterized in that the electrical contacting means comprises at least one flexible wire being electrically conductive and arranged as to receive the photovoltaic device between the support surface and itself, and that the testing device comprises forcing means (10, 11, 12, 19; 14) for forcing at least a portion of the flexible wire to abuttingly adapt along its longitudinal extension against the electrical contact area of the photovoltaic device when the photovoltaic device is received by the support surface, wherein flexible wire is capable of adapting its run or form to the contour of the shape of the contact area of the photovoltaic device, and wherein flexible wire extends freely at least in its contacting section, which in the contacting position of the flexible wire abuts against the electrical contact area of the photovoltaic device, and wherein the flexible wire is tensioned, wherein preferably the tension in the wire is higher than 30 N, preferably approximately 50 N, when not touching a cell or the support base.
Method for determining the aerodynamique moment of resistance M aéro-EM of a wheel by calculating the variation with respect to time, of the product of the rotational speed of the said wheel set in rotation about an axis and of the inertia of the said wheel about the said axis, the said wheel being equipped with a device for picking off and recording the numerical values of its rotational speed, characterized in that the said wheel is protected by a removable cap, in that the said wheel, set in contact with and initially at a time t 0 driven by, a rolling road is taken out of contact with the said road at a time t 1 subsequent to t 0, while at the same time continuing to be subjected to a flow of air which makes it possible to reproduce the effects of a crosswind having a main direction at an angle of between -40° and +40° with respect to that of the wheel, and in that the measurements of the rotational speed ω(t) of the said wheel, picked up as a function of time, are input into the following mathematical formula: I EM dω t / dt = M aero − EM t + M f t where - I EM represents the value of the moment of inertia of the wheel about the said axis of rotation, - ω(t) represents the instantaneous rotational speed of the said wheel, - M f (t) represents the value of the moment of friction of the hub of the wheel, and - M aero-EM (t) represents the instantaneous aerodynamic moment of the said wheel. - I EM represents the value of the moment of inertia of the wheel about the said axis of rotation, - ω(t) represents the instantaneous rotational speed of the said wheel, - M f (t) represents the value of the moment of friction of the hub of the wheel, and - M aero-EM (t) represents the instantaneous aerodynamic moment of the said wheel.
Tyre having a radial carcass reinforcement, consisting of at least one layer of metal reinforcing elements, said tyre comprising a crown reinforcement, which is itself covered radially with a tread, said tread being joined to two beads via two sidewalls, characterized in that the metal reinforcing elements of at least one layer of the carcass reinforcement are non-hooped cords (21, 31, 41) having, in the permeability test, a flow rate of less than 20 cm 3 /min, in that, in a radial plane, at least over part of the meridian profile of the tyre, the thickness of the rubber compound between the inner surface of the cavity of the tyre and that point of a metal reinforcing element of the carcass reinforcement which is closest to said inner surface of the cavity is less than or equal to 3.5 mm and in that, in a radial plane, the ratio between the thicknesses (E, D) of rubber compound between the inner surface of the cavity of the tyre and that point (12, 17) of a metal reinforcing element of the carcass reinforcement which is closest to said inner surface of the cavity of two distinct parts (7b, 7c) of the tyre is greater than 1.15.