mhurhangee/ep-ind-claims huggingface dataset:
An interventional catheter assembly comprising: (a) an operating head (40, 60) mounted at a distal end of a catheter system (32, 56, 96, 160) and comprising a system for removing obstructive material from a target site in a body lumen or cavity; (b) at least one aspiration port (156,178) located proximal to the operating head (40, 60) and penetrating the catheter system (32, 56, 96, 160), the at least one aspiration port (156,178) remaining static during operation of the aspiration system and being in communication with a first sealed lumen that communicates with an aspiration system for withdrawing aspirate fluid and obstructive material from the target site; and (c) a rotatable member (164, 190) positioned inside the catheter assembly at the site of the aspiration port (156, 178) that rotates during operation of the aspiration system; characterized in that the rotatable member (164, 190) comprises at least one upstanding bar provided on the rotatable member, the at least one upstanding bar has a longitudinal axis that is aligned with a longitudinal axis of the catheter system (32, 56, 96, 160), and the at least one upstanding bar does not extend radially beyond an inner wall of the catheter assembly. (a) an operating head (40, 60) mounted at a distal end of a catheter system (32, 56, 96, 160) and comprising a system for removing obstructive material from a target site in a body lumen or cavity; (b) at least one aspiration port (156,178) located proximal to the operating head (40, 60) and penetrating the catheter system (32, 56, 96, 160), the at least one aspiration port (156,178) remaining static during operation of the aspiration system and being in communication with a first sealed lumen that communicates with an aspiration system for withdrawing aspirate fluid and obstructive material from the target site; and (c) a rotatable member (164, 190) positioned inside the catheter assembly at the site of the aspiration port (156, 178) that rotates during operation of the aspiration system;
A method for automatically panning a view for a commercial vehicle comprising: analyzing a portion of a first view at a first time to determine a position of a vehicle feature within the first view, wherein the first view is a subset of a second view; estimating an expected position of the vehicle feature in the first view at a second time subsequent to the first time; defining a region of interest centered on the expected position of the vehicle feature in the second view and analyzing the region of interest to determine an exact position of the vehicle feature at the second time; determining a current trailer angle based on a position of the vehicle feature within the second view; and adjusting the first view based on the current trailer angle. analyzing a portion of a first view at a first time to determine a position of a vehicle feature within the first view, wherein the first view is a subset of a second view; estimating an expected position of the vehicle feature in the first view at a second time subsequent to the first time; defining a region of interest centered on the expected position of the vehicle feature in the second view and analyzing the region of interest to determine an exact position of the vehicle feature at the second time; determining a current trailer angle based on a position of the vehicle feature within the second view; and adjusting the first view based on the current trailer angle.
A method to determine a deterioration state of a brake disk of a braking system of a vehicle, the method comprises the steps of: emitting, by means of a light emitting head, a collimated light beam towards a face of the brake disk so as to trace at least one light line on said face; said collimated light beam being emitted in order to have a direction essentially inclined/oblique with respect to the laying plane of said face of the brake disk; determining the deterioration state or non-deterioration state of said brake disk according to said traced light line; the method being characterized in that it comprises the steps of: determining a deterioration state or non-deterioration state of the brake disk according to the presence or absence, respectively, of one or more irregular/distorted geometric segments in said traced light line. determining a deterioration state or non-deterioration state of the brake disk according to the presence or absence, respectively, of one or more irregular/distorted geometric segments in said traced light line.
A method for the creation of metadata from a set of images, said method comprising: receiving a set of image data; generating a plurality of scale layers with increasing scale, wherein generating a scale layer comprises spatially subsampling said set of image data; generating and storing a multi-scale version of a set of metadata, wherein said generating a multi-scale version of said set of metadata comprises generating a set of metadata for each scale layer of the plurality of scale layers from statistical attributes based on a corresponding scale layer, wherein said multi-scale version of said set of metadata is stored in a pyramidal data structure in which each level of the pyramidal data structure corresponds to a scale layer of the plurality of scale layers. receiving a set of image data; generating a plurality of scale layers with increasing scale, wherein generating a scale layer comprises spatially subsampling said set of image data; generating and storing a multi-scale version of a set of metadata, wherein said generating a multi-scale version of said set of metadata comprises generating a set of metadata for each scale layer of the plurality of scale layers from statistical attributes based on a corresponding scale layer, wherein said multi-scale version of said set of metadata is stored in a pyramidal data structure in which each level of the pyramidal data structure corresponds to a scale layer of the plurality of scale layers.
A polyolefin multilayer microporous membrane comprising: at least first microporous layers which form both surface layers and at least a second microporous layer disposed between said both surface layers, wherein said first microporous layers contain 5% by weight or more of polypropylene characterised in that said second microporous layer contains 35% by weight or more of ultra high molecular weight polyethylene; and wherein the static friction coefficient of one of said surface layers of said polyolefin multilayer microporous membrane against the other surface layer in longitudinal direction is 1.1 or less measured according to ASTM D1894 at a test speed of 15 cm/minute, and wherein the pore density calculated from the average pore radius measured by mercury porosimetry method and the porosity, according to the formula below is 4 or more: pore density = P / A 3 × 10 4 wherein A represents the average pore radius (nm) measured by mercury porosimetry method and P represents the porosity (%). at least first microporous layers which form both surface layers and at least a second microporous layer disposed between said both surface layers, wherein said first microporous layers contain 5% by weight or more of polypropylene characterised in that said second microporous layer contains 35% by weight or more of ultra high molecular weight polyethylene; and wherein the static friction coefficient of one of said surface layers of said polyolefin multilayer microporous membrane against the other surface layer in longitudinal direction is 1.1 or less measured according to ASTM D1894 at a test speed of 15 cm/minute, and wherein the pore density calculated from the average pore radius measured by mercury porosimetry method and the porosity, according to the formula below is 4 or more: pore density = P / A 3 × 10 4 wherein A represents the average pore radius (nm) measured by mercury porosimetry method and P represents the porosity (%).
Gear or profile grinding machine, in particular for grinding pre-toothed or pre-profiled workpieces, wherein the machine has at least one tool spindle on which at least one grinding tool can be mounted, and wherein the machine has at least one workpiece spindle (5, 6) which is arranged displaceably on a carrier element and which can be moved at least temporarily towards the tool spindle by means of at least one drive in order for the workpiece to interact with the grinding tool, characterized in that at least one mass is arranged on or in the carrier element, which mass is arranged movably at or on a guide element by means of a drive element, wherein the mass is constantly free from contact with another machine part and/or workpiece part and/or tool part, wherein the mass is designed for simultaneous movement in a second direction by means of the drive element when the workpiece spindle (5, 6) is moved in a first direction, wherein the first direction and the second direction are arranged perpendicular to each other.
A system, comprising: a content addressable memory, CAM, including an array of cells, where individual cells of the array of cells comprise a gated memristor based crossbar; and an interconnection switch matrix circuit coupled to an output of the CAM, the interconnection switch matrix circuit comprising a gateless memristor array, which comprises a plurality of interconnection switches, each of the plurality of interconnection switches consisting of a single thin film memristor located at an intersection of two bars of the interconnection switch matrix, wherein the interconnection switch matrix circuit is configured to allow rows of the CAM to communicate in parallel. a content addressable memory, CAM, including an array of cells, where individual cells of the array of cells comprise a gated memristor based crossbar; and an interconnection switch matrix circuit coupled to an output of the CAM, the interconnection switch matrix circuit comprising a gateless memristor array, which comprises a plurality of interconnection switches, each of the plurality of interconnection switches consisting of a single thin film memristor located at an intersection of two bars of the interconnection switch matrix, wherein the interconnection switch matrix circuit is configured to allow rows of the CAM to communicate in parallel.
A tip assembly (30, 32) for an electro-surgical thumb forceps, said tip assembly comprising: a tip comprising a body having a distal end and a proximal end, said body having a substantially planar face proximate said distal end; an engagement plug comprising a recess; and an oversheath sleeve connected intermediate said engagement plug and said tip, characterized by said body having a first groove (76, 78) proximate said proximal end, said first groove (76, 78) having a substantially planar base (80, 82), wherein said base (80, 82) and said planar face define planes that are approximately perpendicular with respect to each other. a tip comprising a body having a distal end and a proximal end, said body having a substantially planar face proximate said distal end; an engagement plug comprising a recess; and an oversheath sleeve connected intermediate said engagement plug and said tip, characterized by said body having a first groove (76, 78) proximate said proximal end, said first groove (76, 78) having a substantially planar base (80, 82), wherein said base (80, 82) and said planar face define planes that are approximately perpendicular with respect to each other.
A method for establishing a link, wherein the method comprises: a first eNodeB and a second eNodeB establishing a second link via a first link between the first eNodeB and the second eNodeB; the first eNodeB and the second eNodeB communicating via the first link and/or the second link; wherein in this step, the first eNodeB and the second eNodeB determine using the first link or the second link to transmit according to attributes of information to be transmitted and/or link load condition; wherein the step of the first eNodeB and the second eNodeB establishing the second link comprises: the first eNodeB exchanging via the first link information for establishing the second link with the second eNodeB; and/or, the first eNodeB being uplink and/or downlink synchronized with the second eNodeB. a first eNodeB and a second eNodeB establishing a second link via a first link between the first eNodeB and the second eNodeB; the first eNodeB and the second eNodeB communicating via the first link and/or the second link; wherein in this step, the first eNodeB and the second eNodeB determine using the first link or the second link to transmit according to attributes of information to be transmitted and/or link load condition; wherein the step of the first eNodeB and the second eNodeB establishing the second link comprises: the first eNodeB exchanging via the first link information for establishing the second link with the second eNodeB; and/or, the first eNodeB being uplink and/or downlink synchronized with the second eNodeB.
An avionic display system for an aircraft, comprising: a display device on which an avionic display (34, 36, 37) is generated; a controller architecture operably coupled to the display device; a database operably coupled to the controller architecture and storing multiple georeferenced values for a boom tolerance threshold; and storage media containing computer-readable instructions that, when executed by the controller architecture, cause the avionic display system to perform the operations of: determining that an overpressure event is forecast to occur due to the aircraft generating a sonic boom having a magnitude exceeding a boom tolerance threshold, whereby determining that an overpressure event is forecast to occur comprises: identifying a geographical location corresponding to the forecast sonic boom and assigning a value to the boom tolerance threshold based, at least in part, on which of the multiple georeferenced values stored in the database corresponds to the identified geographical location; and when determining that an overpressure event is forecast to occur, generating symbology (74, 76, 78, 92, 94, 96, 98, 99, 100) on the avionic display (34, 36, 37) indicative of the forecast overpressure event. a display device on which an avionic display (34, 36, 37) is generated; a controller architecture operably coupled to the display device; a database operably coupled to the controller architecture and storing multiple georeferenced values for a boom tolerance threshold; and storage media containing computer-readable instructions that, when executed by the controller architecture, cause the avionic display system to perform the operations of: determining that an overpressure event is forecast to occur due to the aircraft generating a sonic boom having a magnitude exceeding a boom tolerance threshold, whereby determining that an overpressure event is forecast to occur comprises: identifying a geographical location corresponding to the forecast sonic boom and assigning a value to the boom tolerance threshold based, at least in part, on which of the multiple georeferenced values stored in the database corresponds to the identified geographical location; and when determining that an overpressure event is forecast to occur, generating symbology (74, 76, 78, 92, 94, 96, 98, 99, 100) on the avionic display (34, 36, 37) indicative of the forecast overpressure event. identifying a geographical location corresponding to the forecast sonic boom and assigning a value to the boom tolerance threshold based, at least in part, on which of the multiple georeferenced values stored in the database corresponds to the identified geographical location; and when determining that an overpressure event is forecast to occur, generating symbology (74, 76, 78, 92, 94, 96, 98, 99, 100) on the avionic display (34, 36, 37) indicative of the forecast overpressure event.
A seat element (13, 16, 36) including a support plate (2, 42) having at least one hole and at least one vibrating device arranged at least partly in the hole, the vibrating device including at least one vibrating element movable in a direction perpendicular to the support plate, characterized in that the support plate (2, 42) includes a support part and at least one blocking part shaped to block the transmission of vibrations of the at least one vibrating device, said blocking part surrounds at least part of an edge of the hole of the support plate, said blocking part including a lower quantity of material per unit area of the support plate so as to reduce the stiffness of the plate.
An archwire for use with a passive self-ligation orthodontic bracket I having a bracket body that defines an archwire slot J Z including an anterior facing surface and a gate that is movable relative to the bracket body between a non-occluding position and an occluding position, in which the anterior facing surface and a posterior facing surface of the gate define a slot width dimension, the archwire comprising: an elongated resilient main body which is dimensioned to be received within the archwire slot, the elongated resilient main body having a cross-sectional shape having a pair of spaced, convexly curved anterior and posterior facing surfaces (107,108), and a pair of spaced, planar and substantially parallel superior and inferior facing surfaces (105, 106), wherein the pair of convexly curved surfaces (107, 108) respectively join the superior and inferior facing planar surfaces (105, 106) at discrete angular regions, each of the convexly curved surfaces (107, 108) defining a radial dimension of the archwire when measured along a line extending radially, outwardly from a longitudinal axis of the archwire, and to the respective convexly curved surfaces (107, 108), and a width dimension of the archwire, the width dimension of the archwire being less than or equal to the slot width dimension, characterised in, that each of the radial dimensions and the width dimension of the archwire are constant, an elongated resilient main body which is dimensioned to be received within the archwire slot, the elongated resilient main body having a cross-sectional shape having a pair of spaced, convexly curved anterior and posterior facing surfaces (107,108), and a pair of spaced, planar and substantially parallel superior and inferior facing surfaces (105, 106), wherein the pair of convexly curved surfaces (107, 108) respectively join the superior and inferior facing planar surfaces (105, 106) at discrete angular regions, each of the convexly curved surfaces (107, 108) defining a radial dimension of the archwire when measured along a line extending radially, outwardly from a longitudinal axis of the archwire, and to the respective convexly curved surfaces (107, 108), and a width dimension of the archwire, the width dimension of the archwire being less than or equal to the slot width dimension, characterised in, that each of the radial dimensions and the width dimension of the archwire are constant,
A brake caliper for a disk brake, the brake caliper comprising: - a first caliper limb with a piston housing for accommodating a brake piston; - a second caliper limb, which is arranged opposite the first caliper limb; - a connecting web, which connects the two caliper limbs (2, 3) to one another, wherein the brake caliper comprises multiple components, which are coupled to one another by means of a welding connection, characterized in that the first caliper limb, the second caliper limb and the connecting web are each formed of at least one component, wherein the first caliper limb and the second caliper limb are coupled to the connecting web by means of a welding connection, wherein the connecting web comprises multiple web elements, which extend between the first caliper limb and the second caliper limb. - a first caliper limb with a piston housing for accommodating a brake piston; - a second caliper limb, which is arranged opposite the first caliper limb; - a connecting web, which connects the two caliper limbs (2, 3) to one another, wherein the brake caliper comprises multiple components, which are coupled to one another by means of a welding connection, characterized in that the first caliper limb, the second caliper limb and the connecting web are each formed of at least one component, wherein the first caliper limb and the second caliper limb are coupled to the connecting web by means of a welding connection, wherein the connecting web comprises multiple web elements, which extend between the first caliper limb and the second caliper limb.
A method, comprising: Presenting, in response to detection of first touch signalling on a particular portion of a touch-sensitive display, a magnified view of at least that particular portion of the touch-sensitive display and an indicator positioned corresponding to the detected position of the first touch signalling and movable at a first granularity, that is a first amount of absolute movement of a user's finger or a stylus across the display required to move the indicator across a given distance on the display; upon release of the first touch signalling, maintaining the magnified view of that particular portion and the positioned indicator for a predetermined period; and allowing for detection of second touch signalling during the predetermined period, the second touch signalling allowing the user to cause movement of the position of the indicator at a second granularity lower than the first granularity, the second granularity being determined in response to the detection of the second touch signalling. Presenting, in response to detection of first touch signalling on a particular portion of a touch-sensitive display, a magnified view of at least that particular portion of the touch-sensitive display and an indicator positioned corresponding to the detected position of the first touch signalling and movable at a first granularity, that is a first amount of absolute movement of a user's finger or a stylus across the display required to move the indicator across a given distance on the display; upon release of the first touch signalling, maintaining the magnified view of that particular portion and the positioned indicator for a predetermined period; and allowing for detection of second touch signalling during the predetermined period, the second touch signalling allowing the user to cause movement of the position of the indicator at a second granularity lower than the first granularity, the second granularity being determined in response to the detection of the second touch signalling.
An electrodeposited copper foil, in which a center line roughness average Ra (μm), a maximum height Rmax (μm), and a ten-point height average Rz (μm) of a matte side satisfy an Equation below, 4.27 ≤ (Rmax - Rz)/Ra ≤ 6.5.