mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for designing a modeled volume that represents a workpiece, wherein the method comprises: providing a set of dexels that represents the modeled volume, each dexel comprising a set of at least one segment representing the intersection between a line and the modeled volume, wherein the set of dexels is partitioned into groups of neighboring dexels, wherein any pair of dexels in a group are neighboring dexels, wherein two neighboring dexels have a distance between them inferior to a predetermined threshold, and wherein a memory space depending on the maximum number of segments comprised in each of the dexels of the group is allocated to each group, the memory space being on a global memory area of a massive parallel processing unit; providing a sculpting operation on the modeled volume that represents a machining operation under which the workpiece represented by the modeled volume goes, the sculpting operation including adding and/or removing volume from the modeled volume via Boolean operations; and updating the set of dexels in response to the sculpting operation, wherein updating the set of dexels comprises updating groups of neighboring dexels that are impacted by the sculpting operation; wherein the method further comprises adapting the memory space allocated to an updated group when the maximum number of segments comprised in each of the dexels of the updated group is modified, including de-allocating or further allocating memory blocks of the global memory area of the massive parallel processing unit in response to the sculpting operation. providing a set of dexels that represents the modeled volume, each dexel comprising a set of at least one segment representing the intersection between a line and the modeled volume, wherein the set of dexels is partitioned into groups of neighboring dexels, wherein any pair of dexels in a group are neighboring dexels, wherein two neighboring dexels have a distance between them inferior to a predetermined threshold, and wherein a memory space depending on the maximum number of segments comprised in each of the dexels of the group is allocated to each group, the memory space being on a global memory area of a massive parallel processing unit; providing a sculpting operation on the modeled volume that represents a machining operation under which the workpiece represented by the modeled volume goes, the sculpting operation including adding and/or removing volume from the modeled volume via Boolean operations; and updating the set of dexels in response to the sculpting operation, wherein updating the set of dexels comprises updating groups of neighboring dexels that are impacted by the sculpting operation; wherein the method further comprises adapting the memory space allocated to an updated group when the maximum number of segments comprised in each of the dexels of the updated group is modified, including de-allocating or further allocating memory blocks of the global memory area of the massive parallel processing unit in response to the sculpting operation.
Device for lifting and lowering the spare wheel of a vehicle comprising: • an actuator, comprising an activation portion; • at least a flexible cable, operated through the actuator; • a hooking element, fixed at an end of the flexible cable, for anchoring the wheel in a suitable room; • a safety device for signaling to the user the occurred anchoring, in a correct way, of the spare wheel in the suitable room; wherein • said safety device comprises a slot or window, in correspondence to the actuator, in such a way to make the cable visible and a marking, obtained on the cable, for signaling the correct positioning of the wheel inside the suitable room, when it is in correspondence to the window, • the activation portion comprises a protection cup or guard, wherein there is an activation nut, in which it is realized the window of the safety device; characterized in that: • said cup comprises a clutch portion, in a first end of said clutch portion is inserted a guide tube, where the cable can slide, which tube comprises a window too which will coincide with the window of the safety device when said tube is correctly inserted in the clutch portion through a fixing portion. • an actuator, comprising an activation portion; • at least a flexible cable, operated through the actuator; • a hooking element, fixed at an end of the flexible cable, for anchoring the wheel in a suitable room; • a safety device for signaling to the user the occurred anchoring, in a correct way, of the spare wheel in the suitable room; wherein • said safety device comprises a slot or window, in correspondence to the actuator, in such a way to make the cable visible and a marking, obtained on the cable, for signaling the correct positioning of the wheel inside the suitable room, when it is in correspondence to the window, • the activation portion comprises a protection cup or guard, wherein there is an activation nut, in which it is realized the window of the safety device; characterized in that: • said cup comprises a clutch portion, in a first end of said clutch portion is inserted a guide tube, where the cable can slide, which tube comprises a window too which will coincide with the window of the safety device when said tube is correctly inserted in the clutch portion through a fixing portion.
A method of scanning a target object in three dimensions, the method comprising: projecting a color dashed line pattern onto a target object; scanning the target object with the color dashed line pattern projected thereto; and producing a 3D data of the target object by processing the scanning result, wherein the color dashed line pattern includes multiple dashed line patterns (910, 920, 930, 940) each of which is individually used to calculate the 3D data of the target object, characterized in that each one of the multiple dashed line patterns (910, 920, 930, 940) has a unique color different from the other; each dashed line pattern (910, 920, 930, 940) is formed of a plurality of dashed lines (931, 932, 933, 934); each dashed line (931, 932, 933, 934) is formed of a plurality of dashes, and dashed lines (931, 932, 933, 934) included in each dashed line patterns (910, 920, 930, 940) are arranged to have a line gap greater than a dash gap, wherein the line gap is a gap between two adjacent dashed lines (931, 932), and wherein the dash gap is a gap between two adjacent dashes. projecting a color dashed line pattern onto a target object; scanning the target object with the color dashed line pattern projected thereto; and producing a 3D data of the target object by processing the scanning result, wherein the color dashed line pattern includes multiple dashed line patterns (910, 920, 930, 940) each of which is individually used to calculate the 3D data of the target object, characterized in that each one of the multiple dashed line patterns (910, 920, 930, 940) has a unique color different from the other; each dashed line pattern (910, 920, 930, 940) is formed of a plurality of dashed lines (931, 932, 933, 934); each dashed line (931, 932, 933, 934) is formed of a plurality of dashes, and dashed lines (931, 932, 933, 934) included in each dashed line patterns (910, 920, 930, 940) are arranged to have a line gap greater than a dash gap, wherein the line gap is a gap between two adjacent dashed lines (931, 932), and wherein the dash gap is a gap between two adjacent dashes.
Method for warning a driver of a motor vehicle by means of an optical and/or acoustic warning signal, comprising: a) detecting an object using a sensor which captures an angular area open contrary to the direction of travel of the motor vehicle and is assigned to one side of the motor vehicle, b) capturing at least one parameter relevant to the direction of travel by means of a control unit, c) determining whether a traffic situation which demands an immediate warning signal is present by means of a decision algorithm which processes the at least one parameter relevant to the direction of travel as an input, characterized by d) triggering an immediate warning signal if a traffic situation which demands an immediate warning signal is present and otherwise determining a delay period adapted to the traffic situation and triggering the warning signal with the determined delay period if a traffic situation which demands an immediate warning signal is not present. a) detecting an object using a sensor which captures an angular area open contrary to the direction of travel of the motor vehicle and is assigned to one side of the motor vehicle, b) capturing at least one parameter relevant to the direction of travel by means of a control unit, c) determining whether a traffic situation which demands an immediate warning signal is present by means of a decision algorithm which processes the at least one parameter relevant to the direction of travel as an input, d) triggering an immediate warning signal if a traffic situation which demands an immediate warning signal is present and otherwise determining a delay period adapted to the traffic situation and triggering the warning signal with the determined delay period if a traffic situation which demands an immediate warning signal is not present.
A method of fabricating a thin film transistor, comprising: forming a gate electrode on the substrate; forming a gate insulating layer on the gate electrode; forming an amorphous silicon (a-Si) layer on the gate insulating layer; crystallizing the a-Si layer into a polycrystalline silicon (poly-Si) layer using a metal catalyst; patterning the poly-Si layer to form a semiconductor layer; forming a source/drain electrode material layer on the semiconductor layer; and annealing the substrate to getter the metal catalyst in a channel region of the semiconductor layer, into a surface region of the semiconductor layer, which faces the source/drain electrode material layer, characterized in that the annealing of the substrate comprises diffusing a second metal, which is different from the metal catalyst, of the source/drain electrode material layer into the surface region of the semiconductor layer. forming a gate electrode on the substrate; forming a gate insulating layer on the gate electrode; forming an amorphous silicon (a-Si) layer on the gate insulating layer; crystallizing the a-Si layer into a polycrystalline silicon (poly-Si) layer using a metal catalyst; patterning the poly-Si layer to form a semiconductor layer; forming a source/drain electrode material layer on the semiconductor layer; and annealing the substrate to getter the metal catalyst in a channel region of the semiconductor layer, into a surface region of the semiconductor layer, which faces the source/drain electrode material layer, characterized in that the annealing of the substrate comprises diffusing a second metal, which is different from the metal catalyst, of the source/drain electrode material layer into the surface region of the semiconductor layer.
A vertical surface emitting laser, comprising: a distributed Bragg reflector; and quantum wells located in the distributed Bragg reflector; and an electrostatically movable mirror bonded to the distributed Bragg reflector to create an optical cavity and configured to tune the wavelength of the vertical surface emitting laser. a distributed Bragg reflector; and quantum wells located in the distributed Bragg reflector; and an electrostatically movable mirror bonded to the distributed Bragg reflector to create an optical cavity and configured to tune the wavelength of the vertical surface emitting laser.
A bone repair system, the system comprising: a support member comprising a bone mounting part configured to be fixed to a first bone or bone fragment by means of a bone screw so as to mount the support member at the first bone or bone fragment, and a fastening member including a first and a second end portion (210, 220) and an elongate portion extending between the first and the second end portions (210, 220), wherein the first end portion of the fastening member is coupled to the support member, wherein the support member comprises a fastening member fixing part, wherein a coupling between the first end portion of the fastening member and the fastening member fixing part is implemented in form of an articulated joint, wherein the elongate portion is configured to loop around at least one second bone or bone fragment, and wherein the fastening member fixing part of the support member includes fixation means for adjustably securing the second end portion of the fastening member so as to stabilize and/or fix the first and the second bone or bone fragment (400; 410) with respect to each other, wherein the fixation means include a locking element for receiving the second end portion of the fastening member, wherein the locking element is rotatably mounted with respect to the fastening member fixing part to receive the second end portion of the fasting member from different angular positions. a support member comprising a bone mounting part configured to be fixed to a first bone or bone fragment by means of a bone screw so as to mount the support member at the first bone or bone fragment, and a fastening member including a first and a second end portion (210, 220) and an elongate portion extending between the first and the second end portions (210, 220), wherein the first end portion of the fastening member is coupled to the support member, wherein the support member comprises a fastening member fixing part, wherein a coupling between the first end portion of the fastening member and the fastening member fixing part is implemented in form of an articulated joint, wherein the elongate portion is configured to loop around at least one second bone or bone fragment, and wherein the fastening member fixing part of the support member includes fixation means for adjustably securing the second end portion of the fastening member so as to stabilize and/or fix the first and the second bone or bone fragment (400; 410) with respect to each other, wherein the fixation means include a locking element for receiving the second end portion of the fastening member, wherein the locking element is rotatably mounted with respect to the fastening member fixing part to receive the second end portion of the fasting member from different angular positions.
A system for determining gaze-tracking locations, comprising: a device configured to be worn on a wearer's head; one or more illumination sources (13a, 13b, 13c) mounted on the device oriented to illuminate an eye of the wearer; a plurality of eye-tracking cameras (12a, 12b, 12c) mounted on the device and positioned for viewing the eye; and a processor coupled to the eye-tracking cameras for analyzing images of the eye acquired by the eye-tracking cameras to identify one or more glints reflected off the eye from the one or more illumination sources and identify the location of features of the eye relative to the one or more glints to determine locations being viewed by the wearer, wherein the eye-tracking cameras are spaced apart from one another and the processor is coupled to the eye-tracking cameras to track locations of the eye from different viewing angles such that the eye's pupil appears in eye-tracking camera images from at least one of the eye-tracking cameras when the eye moves through its complete normal range of motion. a device configured to be worn on a wearer's head; one or more illumination sources (13a, 13b, 13c) mounted on the device oriented to illuminate an eye of the wearer; a plurality of eye-tracking cameras (12a, 12b, 12c) mounted on the device and positioned for viewing the eye; and a processor coupled to the eye-tracking cameras for analyzing images of the eye acquired by the eye-tracking cameras to identify one or more glints reflected off the eye from the one or more illumination sources and identify the location of features of the eye relative to the one or more glints to determine locations being viewed by the wearer, wherein the eye-tracking cameras are spaced apart from one another and the processor is coupled to the eye-tracking cameras to track locations of the eye from different viewing angles such that the eye's pupil appears in eye-tracking camera images from at least one of the eye-tracking cameras when the eye moves through its complete normal range of motion.
A method in a Radio Node for adapting of Radio Coordination schemes to transport network characteristics of a transport network's characteristics of the connection between neighbouring radio nodes, the method comprises following steps: - Detecting new radio neighbours; - Retrieving transport characteristics values of the connection between radio neighbours; - Validity checking of the active Radio Coordination scheme; - Updating of Radio Coordination scheme, if necessary, based on the retrieved transport characteristics values of the connection between radio neighbours. - Detecting new radio neighbours; - Retrieving transport characteristics values of the connection between radio neighbours; - Validity checking of the active Radio Coordination scheme; - Updating of Radio Coordination scheme, if necessary, based on the retrieved transport characteristics values of the connection between radio neighbours.
A method for making an incision on a bone-in leg (w) of a poultry carcass, wherein the bone-in leg (w), having a bone part and a meat part (m) surrounding the bone part, is suspended from a clamp unit and transferred in a state that the bone-in leg (w) is suspended from the clamp unit, and to an incision making station, the meat part (m) of the bone-in leg (w) is cut longitudinally by an incision knife which is moved relatively along the bone part of the bone-in leg (w) in a state that the bone-in leg (w) is immobilized stopping said clamp unit at said incision making station in a state that the bone-in leg (w) is suspended from the clamp unit, characterized in that the method comprises the steps of: making an incision on said meat part (m) surrounding said bone part after the step of stopping the clamp unit, by lifting the clamp unit clamping the bone-in leg (w) without lifting an incision knife unit that makes an incision on the bone-in leg (w) from a pertinent position such that said meat part (m) is incised corresponding to the lifting of the clamp unit, and transferring said bone-in leg (w) suspended from said clamp unit downward along a traveling path arranged between said incision-making station and a subsequent work station due to weight of the bone-in leg (w) as said traveling path slopes downward in a transferring direction of the clamp unit to the subsequent work station. wherein the bone-in leg (w), having a bone part and a meat part (m) surrounding the bone part, is suspended from a clamp unit and transferred in a state that the bone-in leg (w) is suspended from the clamp unit, and to an incision making station, the meat part (m) of the bone-in leg (w) is cut longitudinally by an incision knife which is moved relatively along the bone part of the bone-in leg (w) in a state that the bone-in leg (w) is immobilized stopping said clamp unit at said incision making station in a state that the bone-in leg (w) is suspended from the clamp unit, making an incision on said meat part (m) surrounding said bone part after the step of stopping the clamp unit, by lifting the clamp unit clamping the bone-in leg (w) without lifting an incision knife unit that makes an incision on the bone-in leg (w) from a pertinent position such that said meat part (m) is incised corresponding to the lifting of the clamp unit, and transferring said bone-in leg (w) suspended from said clamp unit downward along a traveling path arranged between said incision-making station and a subsequent work station due to weight of the bone-in leg (w) as said traveling path slopes downward in a transferring direction of the clamp unit to the subsequent work station.
An inspection device, comprising: a main base; a lateral base, the main base and the lateral base being connected to form a substantially L-shaped base; at least one main magnetic module mounted to the main base for attaching the main base to a first surface of a wheel under a first magnetic force between the at least one main magnetic module and the wheel; a main inspection module mounted to the main base for detecting defects of the wheel; at least one lateral magnetic module mounted to the lateral base for attaching the lateral base to a second surface of the wheel under a second magnetic force between the at least one lateral magnetic module and the wheel; at least one rolling module mounted on the main base for reducing a friction force between the main base and the wheel when the main base moves relative to the wheel; and at least one rotatable member mounted to the lateral base, wherein each rotatable member is adapted to contact with a surface of the wheel and is rotatable to allow the lateral base to move relative to the surface. a main base; a lateral base, the main base and the lateral base being connected to form a substantially L-shaped base; at least one main magnetic module mounted to the main base for attaching the main base to a first surface of a wheel under a first magnetic force between the at least one main magnetic module and the wheel; a main inspection module mounted to the main base for detecting defects of the wheel; at least one lateral magnetic module mounted to the lateral base for attaching the lateral base to a second surface of the wheel under a second magnetic force between the at least one lateral magnetic module and the wheel; at least one rolling module mounted on the main base for reducing a friction force between the main base and the wheel when the main base moves relative to the wheel; and at least one rotatable member mounted to the lateral base, wherein each rotatable member is adapted to contact with a surface of the wheel and is rotatable to allow the lateral base to move relative to the surface.