mhurhangee/ep-ind-claims huggingface dataset:
An imaging system comprising: a pixel array sensor comprising, for each pixel, a photo-diode for converting light pulses from a light source into proportional electrical signals, a masked floating diffusion diode acting as integrator accumulating converted pulses of light from the photo-diode, an anti-blooming transistor acting as an optical shutter and a pixel transfer transistor to transfer the electrical signal generated in the photo diode to the floating diffusion diode, a gating unit configured to control the pixel transfer and anti-blooming transistors of the pixel array sensor to accumulate a sequence of multiple exposures per single readout of the pixel; and a pulsed light source, wherein the gating unit is configured to operate such that each pixel gate event is synchronized to each light source pulse, and wherein the gating unit is further configured to simultaneously gate at least two pixel clusters with different timings by independently controlling the transfer gate transistors of the pixels at the at least two pixel clusters on a same said single readout. a pixel array sensor comprising, for each pixel, a photo-diode for converting light pulses from a light source into proportional electrical signals, a masked floating diffusion diode acting as integrator accumulating converted pulses of light from the photo-diode, an anti-blooming transistor acting as an optical shutter and a pixel transfer transistor to transfer the electrical signal generated in the photo diode to the floating diffusion diode, a gating unit configured to control the pixel transfer and anti-blooming transistors of the pixel array sensor to accumulate a sequence of multiple exposures per single readout of the pixel; and a pulsed light source, wherein the gating unit is configured to operate such that each pixel gate event is synchronized to each light source pulse, and wherein the gating unit is further configured to simultaneously gate at least two pixel clusters with different timings by independently controlling the transfer gate transistors of the pixels at the at least two pixel clusters on a same said single readout.
A method for forming a nano-patterned material layer on a structure, comprising: condensing a vapor to an amorphous solid ice condensate layer on a surface of the structure; conducting localized removal of at least one selected nanometric region of the condensate layer by directing a focused electron beam of energy at the selected region, thereby exposing the structure at the selected region; depositing a material layer (42, 43) on top of the solid condensate layer and on the exposed structure at the selected region; and removing the solid condensate layer and regions of the material layer (42, 43) that were deposited on top of the solid condensate layer, leaving a patterned material layer on the structure. condensing a vapor to an amorphous solid ice condensate layer on a surface of the structure; conducting localized removal of at least one selected nanometric region of the condensate layer by directing a focused electron beam of energy at the selected region, thereby exposing the structure at the selected region; depositing a material layer (42, 43) on top of the solid condensate layer and on the exposed structure at the selected region; and removing the solid condensate layer and regions of the material layer (42, 43) that were deposited on top of the solid condensate layer, leaving a patterned material layer on the structure.
Luminous device for a motor vehicle comprising a luminous module and a housing, said luminous module comprising at least one light source, an open housing, a closure element for closing said open housing, said housing comprising an optical element with positioning spurs, an optical element support, an outer lens formed by an outer lens support and a transparent optical piece, said at least one light source being configured to emit light rays which cooperate with the optical element to generate a light beam, said open housing comprising a positioning hole making it possible to accommodate the optical element, said positioning hole comprising a substantially circular cross-section of central axis and a plurality of grooves, the grooves making it possible to immobilize the positioning spurs of the light guide, the open housing comprising an attachment lug for attachment to the housing which comprises an attachment support for the attachment lug, said attachment support being integral to said optical element support or said outer lens support, the luminous device being characterized in that said luminous module is configured to perform a rotational movement about the axis allowing the luminous module to be mounted on the housing and to be attached at the end of rotation to said housing via said attachment lug of said open housing. said luminous module comprising at least one light source, an open housing, a closure element for closing said open housing, said housing comprising an optical element with positioning spurs, an optical element support, an outer lens formed by an outer lens support and a transparent optical piece, said at least one light source being configured to emit light rays which cooperate with the optical element to generate a light beam, said open housing comprising a positioning hole making it possible to accommodate the optical element, said positioning hole comprising a substantially circular cross-section of central axis and a plurality of grooves, the grooves making it possible to immobilize the positioning spurs of the light guide, the open housing comprising an attachment lug for attachment to the housing which comprises an attachment support for the attachment lug, said attachment support being integral to said optical element support or said outer lens support, the luminous device being characterized in that said luminous module is configured to perform a rotational movement about the axis allowing the luminous module to be mounted on the housing and to be attached at the end of rotation to said housing via said attachment lug of said open housing.
Bogie for a rail vehicle with a primary suspension, with a non-suspended level which comprises a wheel, a wheelset shaft and a wheelset bearing, and also with at least one stepladder for climbing into a driver's cab, characterised in that the stepladder is arranged on the non-suspended level of the bogie.
Exhaust gas system having a suspension apparatus for fastening to a vehicle body of a car, the suspension apparatus comprising at least one damping element and at least one holding element, it being possible for the damping element and the holding element to be connected to one another in a positively locking manner and, in the case of a positively locking connection, the holding element penetrating through the damping element, it being possible for a fastening part to be attached on a penetrating part of the holding element, in that at least one first section of a form of the fastening part is of complementary configuration with respect to a second section of a form of the damping element, and the first section and the second section form a positively locking connection in the case of a displacement of the exhaust gas system in the direction of the suspension apparatus as far as contact of the fastening part and the damping element, characterized in that the first section of the form of the fastening part is convex, and the second section of the form of the damping element is concave, in that, in a sectional plane perpendicularly with respect to a displacement of the fastening part in the direction of the damping element, the fastening part and the damping element outline an oval delimitation, and in that there is a contact-free spacing between the fastening part and the damping element.
Apparatus for measuring the girth of an article, the apparatus comprising: a pair of arms (12, 13) which are movable with respect to each other about a pivot, each arm (12, 13) having an end remote from the pivot; a flexible, elongate measuring element associated with said ends of the arms (12, 13) such that the measuring element has one extremity fixed with respect to the end of one arm and is able to move relative to a guide provided at the end of the other arm, the other extremity of the measuring element being secured to a reel which is biased to take up any slack in the measuring element, wherein the other ends of the arms (12, 13) are each attached to respective cooperating housing parts (14, 15) which are rotatable relative to each other and which incorporate the pivot, the reel being coaxial with the pivot and free to rotate relative to both housing parts (14, 15).
An automated system for sampling and sorting at least one seed from a plurality of seeds, the system comprising: a seed loading station for separating at least one seed from a plurality of seeds in a bulk seed hopper; an imaging station for collecting image data of the at least one seed; a seed orientation station for positioning and retaining the at least one seed in a desired orientation based on the collected image data; and a seed sample and sort station for extracting a tissue sample from the at least one seed, sorting each tissue sample to a sample tray and sorting the at least one sampled seed to a seed tray. a seed loading station for separating at least one seed from a plurality of seeds in a bulk seed hopper; an imaging station for collecting image data of the at least one seed; a seed orientation station for positioning and retaining the at least one seed in a desired orientation based on the collected image data; and a seed sample and sort station for extracting a tissue sample from the at least one seed, sorting each tissue sample to a sample tray and sorting the at least one sampled seed to a seed tray.
A system for imaging a subject while correcting scattered radiation, comprising: at least one first source of X ray radiation; a detector for detecting said X ray radiation; an array of radiation shields, said array is positioned between said at least one first source and said detector, wherein parts of the detector area shielded by the shields and are substantially irresponsive to said direct radiation and responsive to said scattered radiation; a controller configured for acquiring X ray data from said detector representing direct radiation from the source that was attenuated by the subject and scattered radiation that was scattered by the subject whilst parts of the detector area are shielded by the shields; and an image processor configured for correcting the data received by parts of the detector area which are not shielded by said shields, wherein the correction is based on scattered radiation data received by parts of the detector area that are shielded by said shields, and wherein said image processor is further configured for determining the data received by said parts of the detector that are shielded by said shields, wherein the determination of the data received by said parts of the detector that are shielded by said shields is based on interpolation of direct radiation data received by said parts of said detector that are not shielded by said shields, characterized in that said detector is pixilated to detector elements and said shields comprised of radiation opaque material blocking substantially all direct radiation from reaching a part of the active area of partially shielded detector elements. at least one first source of X ray radiation; a detector for detecting said X ray radiation; an array of radiation shields, said array is positioned between said at least one first source and said detector, wherein parts of the detector area shielded by the shields and are substantially irresponsive to said direct radiation and responsive to said scattered radiation; a controller configured for acquiring X ray data from said detector representing direct radiation from the source that was attenuated by the subject and scattered radiation that was scattered by the subject whilst parts of the detector area are shielded by the shields; and an image processor configured for correcting the data received by parts of the detector area which are not shielded by said shields, wherein the correction is based on scattered radiation data received by parts of the detector area that are shielded by said shields, and wherein said image processor is further configured for determining the data received by said parts of the detector that are shielded by said shields, wherein the determination of the data received by said parts of the detector that are shielded by said shields is based on interpolation of direct radiation data received by said parts of said detector that are not shielded by said shields, characterized in that said detector is pixilated to detector elements and said shields comprised of radiation opaque material blocking substantially all direct radiation from reaching a part of the active area of partially shielded detector elements.
Decorative layer for a motor vehicle component, said layer comprising two formats (3a, 3b) of coating material associated by a seam by two respective edges (6a, 6b), said seam is in the form of a zigzag stich or cover stitch associating said formats edge to edge, said layer further comprising a decorative strip attached to the obverse side of said formats and along said seam so as to hide it, said layer being characterised in that it further comprises a reinforcing strip extending on the reverse sides (8a, 8b) of said formats and along said seam, said strip being caught in said seam.
Friction clutch having a counterpressure plate, a pressure plate which is rotationally locked with respect to the former and can be prestressed against the former axially by a lever system (3, 3a), friction linings of a clutch disc which is connected fixedly to a transmission input shaft so as to rotate with it, which friction linings are arranged between the counterpressure plate and the pressure plate, and an actuating device (2, 2a, 102b, 102c) which moves the pressure plate along an actuating path on lever elements (9, 9a) which are arranged radially on the inside on the lever system (3, 3a) and are distributed over the circumference, which actuating device (2, 2a, 102b, 102c) has a bearing carrier (18, 18a, 18b, 18c, 18d, 118b, 118c) which is moved by a drive and is arranged coaxially around the transmission input shaft, and has an actuating bearing (15, 15a, 15b, 15c, 15d, 115b, 115c) which is arranged between the bearing carrier (18, 18a, 18b, 18c, 18d, 118b, 118c) and lever elements (9, 9a), the actuating bearing (15, 15a, 15b, 15c, 15d, 115b, 115c) being configured so as to transmit force bidirectionally for the transmission of tensile and compressive forces onto the lever elements (9, 9a), and the lever elements (9, 9a) being received substantially without play in both directions along the actuating path on a bearing ring of the actuating bearing (15, 15a, 15b, 15c, 15d, 115b, 115c), characterized in that the lever elements configure bulges (43a, 44a) in both axial directions in the region of supporting faces (12a, 13a) of a bearing ring which support the lever elements axially.
A method for analyzing biomolecules, comprising: a) incubating a sample with a plurality of multifunctional substrates, wherein each multifunctional substrate comprises a target capture region bearing one or more capture moieties, each of which specifically binds a target biomolecule, and a reagent storage region bearing one or more detection reagents through a releasable means, under conditions that permit binding between the target biomolecule and the capture moieties; b) contacting an immiscible fluid with the plurality of multifunctional substrates in a carrier fluid, thereby forming a plurality of compartments, each comprising an individual multifunctional substrate, and wherein the shape of each compartment is substantially defined by the shape of the multifunctional substrate; c) releasing the one or more detection reagents from the reagent storage region such that the detection reagents bind to the target biomolecule bound to the capture moieties within an individual compartment; and d) analyzing the binding between the detection reagents and the biomolecule bound to the capture moieties, thereby analyzing the presence or amount of the target biomolecule in the sample. a) incubating a sample with a plurality of multifunctional substrates, wherein each multifunctional substrate comprises a target capture region bearing one or more capture moieties, each of which specifically binds a target biomolecule, and a reagent storage region bearing one or more detection reagents through a releasable means, under conditions that permit binding between the target biomolecule and the capture moieties; b) contacting an immiscible fluid with the plurality of multifunctional substrates in a carrier fluid, thereby forming a plurality of compartments, each comprising an individual multifunctional substrate, and wherein the shape of each compartment is substantially defined by the shape of the multifunctional substrate; c) releasing the one or more detection reagents from the reagent storage region such that the detection reagents bind to the target biomolecule bound to the capture moieties within an individual compartment; and d) analyzing the binding between the detection reagents and the biomolecule bound to the capture moieties, thereby analyzing the presence or amount of the target biomolecule in the sample.
Apparatus for welding a tubular lining of a wastewater pipe, comprising a retainer for the butt-jointed longitudinal edges (8, 9), which are to be welded, of a synthetic material panel, which is bent to form a pipe, and comprising a welding device, characterised in that the retainer for the two butt-jointed longitudinal edges (8, 9) of the synthetic material panel comprises a respective clamping device (6, 7) consisting of a stationary clamping strip on the outer side of the pipe and a movable clamping strip, which is connected to an actuating drive, on the inner side of the pipe, in that the stationary clamping strips are located opposite one another in relation to the joint between the two longitudinal edges (8, 9) with a gap left open, in that at least one of the two movable clamping strips forms a stop for one longitudinal edge of the synthetic material panel in a position placed against the associated stationary clamping strip, and in that a guide is provided along the gap between the stationary clamping strips for the welding device.
An apparatus for use in a graphene device manufacturing process, the apparatus comprising: an electrode; a graphene structure including a metal catalyst layer on a substrate, an insulation layer between the substrate and the metal catalyst layer, a protection layer, and a graphene layer between the metal catalyst layer and protection layer; a power unit configured to apply a voltage between the electrode and the metal catalyst layer; and an electrolyte in which the graphene structure is at least partially submerged. an electrode; a graphene structure including a metal catalyst layer on a substrate, an insulation layer between the substrate and the metal catalyst layer, a protection layer, and a graphene layer between the metal catalyst layer and protection layer; a power unit configured to apply a voltage between the electrode and the metal catalyst layer; and an electrolyte in which the graphene structure is at least partially submerged.
Agricultural tractor with integrated suspension system, wherein the tractor is provided with an integrated suspension system designed to regulate the stiffness of the suspensions based on a control signal, characterized by comprising electronic control means configured to detect the operating cycle of a towed baler and to implement a comfort control mode by regulating the stiffness of the suspension system in order to reduce a pitch movement of the tractor and/or an acceleration to the operator's cab induced by the forces and/or accelerations and/or torques transmitted from the baler to the tractor.
A roof anchor configured to be mounted directly on a roof top and for fixing frame structures to a roof, said roof anchor comprising of; • a base structure configured to be mounted directly on a roof top on a roofing surface, said base structure comprising a base and a substantially circular protrusion with a top part having a substantially planar top surface, said protrusion further having a reduced circumference at its lower end defining a gap encircling said protrusion, • a top fitting comprising a guide which is constituted by a substantially planar sheet and folds defining a second set of gaps, said planar sheet spans the length and width of said top fitting and defines a top face wherein said guide constitutes a bracket for receiving equipment or construction elements, said bracket comprising two opposite faces extending perpendicularly from said top face of said sheet, said top fitting further is configured for engagement with said top part of said protrusion and in that that said top fitting is able to rotate in relation to said base structure when said gaps of said guide of said top fitting are in engagement with said top part of said protrusion. • a base structure configured to be mounted directly on a roof top on a roofing surface, said base structure comprising a base and a substantially circular protrusion with a top part having a substantially planar top surface, said protrusion further having a reduced circumference at its lower end defining a gap encircling said protrusion, • a top fitting comprising a guide which is constituted by a substantially planar sheet and folds defining a second set of gaps, said planar sheet spans the length and width of said top fitting and defines a top face
A core end engagement assembly for a rewinding machine, wherein the rewinding machine is configured for winding web material into a log about a core, the core end engagement assembly being adapted and configured to engage an end of the core and transmit rotational movement to the core during winding of the web material about the core, the core end engagement assembly comprising a chuck configured and adapted to engage an end of the core, characterized by the core end engagement assembly having a flexible drive shaft operatively connected with and rotationally driving the chuck.
A pre-sintered ceramic block for a dental restoration, wherein the pre-sintered ceramic block, comprises following components: SiO 2: 55-85%wt, preferably 55-80%wt, more preferably 60-80%wt, most preferably 64-75%wt; Li 2 O: 10-25%wt, preferably 12-25%wt, more preferably 13-17%wt; ZrO 2: 0-10%wt, preferably 0-8%wt, more preferably 0-6%wt, most preferably 0-4%wt; Al 2 O 3: 0.3-8%wt, preferably 0.5-6%wt, more preferably 0.5-5%wt, most preferably 0.5-4%wt; La 2 O 3: 0-7%wt, preferably 0-5%wt, more preferably 0-4.5%wt, most preferably 0-4%wt; ZnO: 0-10%wt, preferably 0-8%wt, more preferably 0-7%wt, most preferably 0.1-5%wt; K 2 O: 0.1-10%wt, preferably 0.1-9%wt, more preferably 0.1-7%wt, most preferably 0.5-4.5%wt; GeO 2: 0.1-7%wt, preferably 0.1-6%wt, more preferably 0.3-5%wt, most preferably 0.5-4%wt; a nucleating agent: 0-10%wt, preferably 0-8%wt, more preferably 0.5-8%wt, most preferably 0.5-5%wt; a colorant: 0-10%wt, preferably 0-8%wt, more preferably 0-6%wt, most preferably 0.1-5%wt; and other additives: 0-15%wt, preferably 0-10%wt, more preferably 0-4%wt; wherein, the nucleating agent is one of or a combination of at least two of P 2 O 5, TiO 2, V 2 O 5, Cr 2 O 3, and Fe 2 O 3; the other additives are one of or a combination of at least two of B 2 O 3, F, Na 2 O, BaO, SrO, CaO, and MgO; wherein the pre-sintered ceramic block does not contain a crystal phase and has a Vickers hardness of 0.5-2 GPa, and is opaque. wherein, the nucleating agent is one of or a combination of at least two of P 2 O 5, TiO 2, V 2 O 5, Cr 2 O 3, and Fe 2 O 3; the other additives are one of or a combination of at least two of B 2 O 3, F, Na 2 O, BaO, SrO, CaO, and MgO; wherein the pre-sintered ceramic block does not contain a crystal phase and has a Vickers hardness of 0.5-2 GPa, and is opaque.