mhurhangee/ep-ind-claims huggingface dataset:
A method for vehicle, wherein the method is suitable for determining information related to a lane change of a target vehicle, wherein the information related to the lane change of the target vehicle indicates, whether the target vehicle is expected to perform a lane change, the method comprising: Obtaining information related to an environment of the target vehicle, wherein the information related to the environment relates to a plurality of features of the environment of the target vehicle, wherein the plurality of features are partitioned into two or more groups of features; Determining two or more weighting factors for the two or more groups of features, wherein an attention mechanism is used for determining the two or more weighting factors, the attention mechanism being a mechanism for determining a selective focus on a subset of features of the plurality of features, with the attention mechanism using at least one of attention over previous time steps and attention over different groups of features; and Determining the information related to the lane change of the target vehicle based on the information related to the environment of the target vehicle using a machine-learning network, wherein a weighting of the plurality of features of the environment of the target vehicle within the machine-learning network is based on the two or more weighting factors for the two or more groups of features. Obtaining information related to an environment of the target vehicle, wherein the information related to the environment relates to a plurality of features of the environment of the target vehicle, wherein the plurality of features are partitioned into two or more groups of features; Determining two or more weighting factors for the two or more groups of features, wherein an attention mechanism is used for determining the two or more weighting factors, the attention mechanism being a mechanism for determining a selective focus on a subset of features of the plurality of features, with the attention mechanism using at least one of attention over previous time steps and attention over different groups of features; and Determining the information related to the lane change of the target vehicle based on the information related to the environment of the target vehicle using a machine-learning network, wherein a weighting of the plurality of features of the environment of the target vehicle within the machine-learning network is based on the two or more weighting factors for the two or more groups of features.
Process for permanent shaping hair characterized in that it is optionally washed or wetted or shampooed and a composition comprising at least one reducing agent is applied and rinsed off from hair after a processing time of 1 to 30 min and at a temperature of 20 to 45°C and a composition comprising at least one oxidizing agent is applied and processed for 1 to 20 min at a temperature range of 20 to 45°C and rinsed off from hair wherein at least one of the two compositions comprises a cross linked copolymer of vinylpyrrolidone, vinylimidazol, 3-methyl-1-vinylimidazolium chloride and methacrylic acid.
A telescopic rail comprising a first rail element with two running surfaces (12, 13), a second rail element with two running surfaces (12, 13), at least one rolling body cage for positioning a plurality of rolling bodies, and a plurality of rolling bodies which are received at the rolling body cage, wherein portions of the rolling body cage with the rolling bodies are arranged between the running surfaces (12, 13) of the first and second rail elements in such a way that the first rail element and the second rail element are linearly displaceable relative to each other in an extension direction, wherein the rolling body cage establishes a position of each rolling body in the extension direction relative to the rolling body cage, characterised in that the rolling body cage is secured to the first rail element so that the rolling bodies perform a sliding movement with respect to the running surfaces (12, 13) of the first rail element and the rolling bodies perform a sliding movement with respect to the running surfaces (12, 13) of the second rail element or roll on the running surfaces (12, 13) of the second rail element. a first rail element with two running surfaces (12, 13), a second rail element with two running surfaces (12, 13), at least one rolling body cage for positioning a plurality of rolling bodies, and a plurality of rolling bodies which are received at the rolling body cage, wherein portions of the rolling body cage with the rolling bodies are arranged between the running surfaces (12, 13) of the first and second rail elements in such a way that the first rail element and the second rail element are linearly displaceable relative to each other in an extension direction, wherein the rolling body cage establishes a position of each rolling body in the extension direction relative to the rolling body cage, characterised in that the rolling body cage is secured to the first rail element so that the rolling bodies perform a sliding movement with respect to the running surfaces (12, 13) of the first rail element and the rolling bodies perform a sliding movement with respect to the running surfaces (12, 13) of the second rail element or roll on the running surfaces (12, 13) of the second rail element.
A method for marking an article, comprising: providing the article including a substrate, the substrate including a surface and a surface material; and forming a design on the surface of the substrate by applying a marking material to the surface; wherein applying the marking material includes an additive manufacturing technique; wherein the surface includes a first surface and a second surface, the second surface defining a depression relative to the first surface; and wherein forming the design on the surface of the substrate comprises applying the marking material to the second surface, the marking material forming a marking surface, the marking surface being substantially flush with the first surface, wherein the article is a gas turbine component, a steam turbine component, an aviation jet engine component, an internal combustion engine component, a turbine shroud, a turbine blade, a turbine nozzle, a turbine wheel, a near flow pass seal, a compressor blade, a combustion sub-system component, a fuel nozzle, a combustion can, a liner, a transition piece, a cap, or combination thereof. providing the article including a substrate, the substrate including a surface and a surface material; and forming a design on the surface of the substrate by applying a marking material to the surface; wherein applying the marking material includes an additive manufacturing technique; wherein the surface includes a first surface and a second surface, the second surface defining a depression relative to the first surface; and wherein forming the design on the surface of the substrate comprises applying the marking material to the second surface, the marking material forming a marking surface, the marking surface being substantially flush with the first surface, wherein the article is a gas turbine component, a steam turbine component, an aviation jet engine component, an internal combustion engine component, a turbine shroud, a turbine blade, a turbine nozzle, a turbine wheel, a near flow pass seal, a compressor blade, a combustion sub-system component, a fuel nozzle, a combustion can, a liner, a transition piece, a cap, or combination thereof.
A catheter comprising: an elongated body including: an inner liner extending between a proximal end and a distal end, the inner liner comprising an inner liner surface that defines an inner lumen of the elongated body, wherein the inner liner includes a proximal section including the proximal end and a distal section including the distal end, wherein the distal section of the inner liner includes a liner wall defining a plurality of cuts, each cut extending only partially through the liner wall, and wherein each cut of the plurality of cuts extends from an outer surface of the liner wall radially inward towards the lumen; and an outer jacket positioned over the inner liner, wherein the outer jacket extends over the plurality of cuts, and wherein the inner liner is formed from a more lubricous material than the outer jacket. an elongated body including: an inner liner extending between a proximal end and a distal end, the inner liner comprising an inner liner surface that defines an inner lumen of the elongated body, wherein the inner liner includes a proximal section including the proximal end and a distal section including the distal end, wherein the distal section of the inner liner includes a liner wall defining a plurality of cuts, each cut extending only partially through the liner wall, and wherein each cut of the plurality of cuts extends from an outer surface of the liner wall radially inward towards the lumen; and an outer jacket positioned over the inner liner, wherein the outer jacket extends over the plurality of cuts, and wherein the inner liner is formed from a more lubricous material than the outer jacket.
A reciprocating compressor, comprising: a shell provided with a discharge pipe provided with a second insertion hole; a cylinder provided inside the shell and having a compression chamber; a discharge hose configured to discharge refrigerant compressed in the compression chamber; a connector coupled to the discharge hose and the discharge pipe and provided with a first insertion hole into which the discharge hose is inserted, wherein at least a portion of the connector is inserted into the second insertion hole; at least one cutout formed in the connector; and a clamp inserted into the at least one cutout and configured to support the connector and the discharge pipe, characterized in that the connector includes: an upper step and a lower step defining the cutout and a penetration hole formed in at least a portion of the connector between the upper step and the lower step; and in that the discharge pipe includes a clamp support located next to the penetration hole, and the clamp is located between the upper step and the lower step and configured to support the clamp support. a shell provided with a discharge pipe provided with a second insertion hole; a cylinder provided inside the shell and having a compression chamber; a discharge hose configured to discharge refrigerant compressed in the compression chamber; a connector coupled to the discharge hose and the discharge pipe and provided with a first insertion hole into which the discharge hose is inserted, wherein at least a portion of the connector is inserted into the second insertion hole; at least one cutout formed in the connector; and a clamp inserted into the at least one cutout and configured to support the connector and the discharge pipe, an upper step and a lower step defining the cutout and a penetration hole formed in at least a portion of the connector between the upper step and the lower step; and in that the discharge pipe includes a clamp support located next to the penetration hole, and the clamp is located between the upper step and the lower step and configured to support the clamp support.
A gas turbine engine, wherein the gas turbine engine defines a longitudinal direction, a radial direction, and a circumferential direction, and an axial centerline extended along the longitudinal direction, and an upstream end and a downstream end along the longitudinal direction, the gas turbine engine comprising: an annular stationary turbine frame centered around the axial centerline; an engine shaft extended generally along the longitudinal direction; an input shaft extended generally along the longitudinal direction; a gear assembly comprising a first gear coupled to the input shaft, a second gear coupled to the turbine frame; the gas turbine engine being characterised by an inner spool coupling the first gear and the second gear, wherein the inner spool defines a gear axis extended therethrough, and wherein the inner spool, the first gear, and the second gear are together rotatable about the gear axis, and wherein the gear axis is rotatable about the axial centerline of the engine; and a housing coupled to the inner spool and the engine shaft. an annular stationary turbine frame centered around the axial centerline; an engine shaft extended generally along the longitudinal direction; an input shaft extended generally along the longitudinal direction; a gear assembly comprising a first gear coupled to the input shaft, a second gear coupled to the turbine frame; the gas turbine engine being characterised by an inner spool coupling the first gear and the second gear, wherein the inner spool defines a gear axis extended therethrough, and wherein the inner spool, the first gear, and the second gear are together rotatable about the gear axis, and wherein the gear axis is rotatable about the axial centerline of the engine; and a housing coupled to the inner spool and the engine shaft.
A polymeric article comprising successive polymer layers comprising: (a) a first polymer layer comprising an oriented polymeric material; (b) a second polymer layer comprising a polymeric material; and (c) a third polymer layer comprising an oriented polymeric material, wherein the second polymer layer has a lower melting temperature than those of the first and third polymer layers; wherein the layers all comprise the same chemical composition and grade polymer selected from the group consisting of polyethylene, polypropylene, polyoxymethylene, and mixtures thereof. (a) a first polymer layer comprising an oriented polymeric material; (b) a second polymer layer comprising a polymeric material; and (c) a third polymer layer comprising an oriented polymeric material,
A coupling device comprising: a receiving portion that receives a radio frequency signal conveying data from a transmitting device, wherein the radio frequency signal has a carrier frequency below 3GHz; and an electromagnetic coupler, that electromagnetically couples the radio frequency signal to a transmission medium as a guided electromagnetic wave that is bound by an outer surface of the transmission medium, wherein the electromagnetic coupler comprises a cavity resonator that responds to the radio frequency signal by generating a magnetic field that induces the guided electromagnetic wave on the transmission medium via electromagnetic coupling and wherein the cavity resonator is constructed from a section of a rectangular waveguide that has a cut-off frequency of a desired guided wave mode within a range of frequencies between 3.01 to 3.50 GHz. a receiving portion that receives a radio frequency signal conveying data from a transmitting device, wherein the radio frequency signal has a carrier frequency below 3GHz; and an electromagnetic coupler, that electromagnetically couples the radio frequency signal to a transmission medium as a guided electromagnetic wave that is bound by an outer surface of the transmission medium, wherein the electromagnetic coupler comprises a cavity resonator that responds to the radio frequency signal by generating a magnetic field that induces the guided electromagnetic wave on the transmission medium via electromagnetic coupling and wherein the cavity resonator is constructed from a section of a rectangular waveguide that has a cut-off frequency of a desired guided wave mode within a range of frequencies between 3.01 to 3.50 GHz.
An array antenna, wherein the array antenna comprises a first metal layer, a first dielectric layer, a second metal layer, a second dielectric layer and a third metal layer that are sequentially laminated, wherein multiple metal through holes are disposed on the second dielectric layer, and the multiple metal through holes form a feeding section, the first metal layer comprises multiple subarrays, each subarray comprises multiple radiating arrays and one power splitter, the power splitter comprises a central area and multiple branches extending from the central area, the multiple radiating arrays are respectively connected to the multiple branches; multiple coupling slots are disposed on the second metal layer, the feeding section is configured to feed a signal to the central areas of the power splitters via the multiple coupling slots, wherein the power splitters are configured to transmit the signal to the multiple radiating arrays via using the multiple branches, wherein the feeding section comprises multiple feeding units, and projections of the multiple coupling slots on the second dielectric layer respectively fall within ranges of the multiple feeding units.
A hands-free dual clamp device, comprising: two clamping units (2, 3), each of the clamping units (2, 3) comprising an upper clamping body (21, 31), a lower clamping body (22, 32), a mating portion (23, 33) disposed on one end of the upper clamping body (21, 31), and a shaft module, one end of the lower clamping body (22, 32) pivotally connected to the one end of the upper clamping body (21, 31), the shaft module spirally inserted through the upper and lower clamping bodies (21, 31, 22, 32) and being rotatable, so as to enable the upper and lower clamping bodies (21, 31, 22, 32) to be adjustable at angles with respect to each other and cooperatively form a clamping space for clamping an external object (6, 7); and a connecting module comprising at least a connecting unit having two opposite end portions (501, 502), one of the end portions provided with a first connecting element, the other end portion provided with a second connecting element, wherein each of the first and second connecting element (51, 52) has threads to be screwingly connected to a corresponding one of the mating portions (23, 33) on the upper clamping bodies (21, 31), the first connecting element connected to the mating portion of one of the clamping units, and the second connecting element connected to the mating portion of the other one of the clamping units, so that the two clamping units (2, 3) are linked together with the connecting module. two clamping units (2, 3), each of the clamping units (2, 3) comprising an upper clamping body (21, 31), a lower clamping body (22, 32), a mating portion (23, 33) disposed on one end of the upper clamping body (21, 31), and a shaft module, one end of the lower clamping body (22, 32) pivotally connected to the one end of the upper clamping body (21, 31), the shaft module spirally inserted through the upper and lower clamping bodies (21, 31, 22, 32) and being rotatable, so as to enable the upper and lower clamping bodies (21, 31, 22, 32) to be adjustable at angles with respect to each other and cooperatively form a clamping space for clamping an external object (6, 7); and a connecting module comprising at least a connecting unit having two opposite end portions (501, 502), one of the end portions provided with a first connecting element, the other end portion provided with a second connecting element, wherein each of the first and second connecting element (51, 52) has threads to be screwingly connected to a corresponding one of the mating portions (23, 33) on the upper clamping bodies (21, 31), the first connecting element connected to the mating portion of one of the clamping units, and the second connecting element connected to the mating portion of the other one of the clamping units, so that the two clamping units (2, 3) are linked together with the connecting module.
A condensing unit for two drafting systems of a textile machine disposed adjacent to each other - having a holder, - wherein a first and a second contact surface (12, 13) being disposed on the holder for making contact with a drafting roller when the drafting system is operating - wherein a condensing region being disposed at each of the contact surfaces (12, 13) for condensing a fiber strand guided longitudinally through the condensing region, - wherein the first and the second contact surfaces (12, 13) being spaced apart from each other transverse to the condensing regions, and - having a coupling element for an traversing device for oscillating the condensing unit transverse to the two condensing regions, characterized in that, - the condensing unit comprises a third contact surface for supporting the condensing unit on the drafting roller when the drafting system is operating, and - wherein the third contact surface is disposed between the first and the second contact surfaces (12, 13) and offset longitudinally from the condensing regions. - having a holder, - wherein a first and a second contact surface (12, 13) being disposed on the holder for making contact with a drafting roller when the drafting system is operating - wherein a condensing region being disposed at each of the contact surfaces (12, 13) for condensing a fiber strand guided longitudinally through the condensing region, - wherein the first and the second contact surfaces (12, 13) being spaced apart from each other transverse to the condensing regions, and - having a coupling element for an traversing device for oscillating the condensing unit transverse to the two condensing regions, - the condensing unit comprises a third contact surface for supporting the condensing unit on the drafting roller when the drafting system is operating, and - wherein the third contact surface is disposed between the first and the second contact surfaces (12, 13) and offset longitudinally from the condensing regions.
A method of determining a cylindrical power of a lens of eyeglasses, the method comprising: triggering displaying of an object on a display; processing at least one image of the object captured by an image-capturing device via said lens when the lens is between the image-capturing device and the object, the image comprising a plurality of axes; determining a first distance, the first distance is between the image-capturing device and the object when the image of the object is captured by the image-capturing device; determining a second distance, the second distance is between the lens and the object when the image of the object is captured by the image-capturing device; and determining the cylindrical power of said lens based on the first distance, the second distance, and the image of the object captured via the lens; characterized by: determining a cylindrical power of said lens based on a maximal magnification axis of the plurality of axes in said image at which a magnification between said imaged dimension and a reference dimension of said object is maximal and based on a minimal magnification axis of the plurality of axes in said image, at which a magnification between another imaged dimension and another respective reference dimension of said object is minimal. triggering displaying of an object on a display; processing at least one image of the object captured by an image-capturing device via said lens when the lens is between the image-capturing device and the object, the image comprising a plurality of axes; determining a first distance, the first distance is between the image-capturing device and the object when the image of the object is captured by the image-capturing device; determining a second distance, the second distance is between the lens and the object when the image of the object is captured by the image-capturing device; and determining the cylindrical power of said lens based on the first distance, the second distance, and the image of the object captured via the lens;