mhurhangee/ep-ind-claims huggingface dataset:
A method of identifying a border of a vascular object, comprising: providing a computing device with multiple sets of blood-vessel data, each set corresponding to an image (20, 52a, 52b, 52c, 52d) of the vascular object; using a set of blood-vessel data to approximate a border on an image of said vascular object; identifying, by the computing device, at least one control point on said border; extrapolating additional control-point data from said at least one control point said additional-control-point data representing at least one other control point on at least one other image (52a, 52b, 52c, 52d); wherein additional-border data representing at least one other border on said at least one other image is produced from said additional-control-point data; and adjusting said at least one other border using an active contour application.. providing a computing device with multiple sets of blood-vessel data, each set corresponding to an image (20, 52a, 52b, 52c, 52d) of the vascular object; using a set of blood-vessel data to approximate a border on an image of said vascular object; identifying, by the computing device, at least one control point on said border; extrapolating additional control-point data from said at least one control point said additional-control-point data representing at least one other control point on at least one other image (52a, 52b, 52c, 52d); wherein additional-border data representing at least one other border on said at least one other image is produced from said additional-control-point data; and adjusting said at least one other border using an active contour application..
A conductive polymer film structure, comprising an insulating substrate comprising nucleophile derivatized nanoparticles located at the surface of the insulating substrate; and a conducting polymer:template polymer coating disposed on at least a portion of a surface of the insulating substrate through which a chemical bond forms between at least one anion of the template polymer and nucleophile derivatized nanoparticles located at the surface of the insulating substrate; wherein the insulating substrate comprises polyacrylic, polyamide, polycarbonate, polyether, polyester, polyethylene, polyimide, polyurethane, polyester-polyurethane copolymer, polyurea, polythiourea, polysiloxane, polyisoprene, polybutadiene, polyethylene oxide, polylactic acid, blends or copolymers thereof; wherein the nucleophile derivatized nanoparticles comprise silicon dioxide (SiO 2), titanium dioxide (TiO 2), aluminum oxide, calcium oxide, amine functionalized nanoparticles, or a combination thereof, and wherein the nucleophile derivatized nanoparticles are present in the insulating substrate in an amount of about 0.01 to about 6.0 wt% based on the total weight of the insulating substrate; wherein the conducting polymer of the conducting polymer:template polymer comprises units of a conducting monomer wherein the conducting monomer is thiophene, substituted thiophene, 3,4-ethylenedioxythiophene, thieno[3,4-b]thiophene, substituted thieno[3,4-b]thiophene, dithieno [3, 4-b: 3', 4' -d]thiophene, thieno[3,4-b]furan, substituted thieno[3,4-b]furan, bithiophene, substituted bithiophene, pyrrole, substituted pyrrole, phenylene, substituted phenylene, naphthalene, substituted naphthalene, biphenyl and terphenyl and their substituted versions, phenylene vinylene, substituted phenylene vinylene, aniline, substituted aniline, the monomers disclosed herein as structures -(XXIX), or a combination thereof; and wherein the template polymer is a polyanion acting as a counterion for the conducting polymer and the template polymer comprises sulfonic acid groups, phosphoric acid groups, or a combination thereof.
A target radio access network, RAN, node associated with a second network that supports network slicing, the target RAN node comprising: at least one memory; and at least one processor coupled to the at least one memory and configured to, during handover of a radio terminal to the second network from a first network that does not support the network slicing: receive, from a core network node associated with the second network, a handover request message requesting the handover of the radio terminal and including slice information about a network slice which is included in the second network and to which the radio terminal is to be connected; create, based on the slice information, radio resource configuration information to be used by the radio terminal after the handover in the second network; and transmit to the core network node a handover request acknowledge message containing the radio resource configuration information. at least one memory; and at least one processor coupled to the at least one memory and configured to, during handover of a radio terminal to the second network from a first network that does not support the network slicing: receive, from a core network node associated with the second network, a handover request message requesting the handover of the radio terminal and including slice information about a network slice which is included in the second network and to which the radio terminal is to be connected; create, based on the slice information, radio resource configuration information to be used by the radio terminal after the handover in the second network; and transmit to the core network node a handover request acknowledge message containing the radio resource configuration information. receive, from a core network node associated with the second network, a handover request message requesting the handover of the radio terminal and including slice information about a network slice which is included in the second network and to which the radio terminal is to be connected; create, based on the slice information, radio resource configuration information to be used by the radio terminal after the handover in the second network; and transmit to the core network node a handover request acknowledge message containing the radio resource configuration information.
A gate apparatus comprising: a positioning unit configured to measure positions of a plurality of wireless communication terminals; an authentication unit configured to perform authentication for determining whether or not each of the wireless communication terminals is permitted to pass through a gate on a basis of each of the positions of each of the wireless communication terminals which have been measured by the positioning unit; and a plurality of wireless communication apparatuses disposed at different positions, the wireless communication apparatuses being configured to transmit a command for distance measurement and authentication of each of the wireless communication terminals and to receive a response to the command from each of the wireless communication terminals for the positioning and the authentication, wherein only ultra wide band, UWB, is used as a physical layer of communication and the same frequency band is used for both positioning and authentication communication, wherein the positioning unit is configured to measure a position of each of the wireless communication terminals on a basis of an average period of time from transmission of each of a plurality of distance measurement commands to each of the wireless communication terminals to reception of each of a plurality of respective responses from each of the wireless communication terminals to the distance measurement commands. a positioning unit configured to measure positions of a plurality of wireless communication terminals; an authentication unit configured to perform authentication for determining whether or not each of the wireless communication terminals is permitted to pass through a gate on a basis of each of the positions of each of the wireless communication terminals which have been measured by the positioning unit; and a plurality of wireless communication apparatuses disposed at different positions, the wireless communication apparatuses being configured to transmit a command for distance measurement and authentication of each of the wireless communication terminals and to receive a response to the command from each of the wireless communication terminals for the positioning and the authentication, wherein only ultra wide band, UWB, is used as a physical layer of communication and the same frequency band is used for both positioning and authentication communication, wherein the positioning unit is configured to measure a position of each of the wireless communication terminals on a basis of an average period of time from transmission of each of a plurality of distance measurement commands to each of the wireless communication terminals to reception of each of a plurality of respective responses from each of the wireless communication terminals to the distance measurement commands.
A method of rendering an object in a virtual three-dimensional space, the method comprising: obtaining a first plurality of pixel values of a first image captured by a camera in real space, the first plurality of pixel values being associated with a first three-dimensional position (x 1, y 1, z 1), in the virtual three-dimensional space, of the camera when the first image was captured, each one of the first plurality of pixel values being associated with an orientation (φ l, θ m) in the virtual three-dimensional space, of a portion of a light field represented by the pixel; estimating, using compressive sensing, and based on the first plurality of pixel values, a light field value for at least one second position (x 2, y 2, z 2), different from the first position (x 1, y 1, z 1), in the virtual three-dimensional space, wherein the estimated light field value is an estimate of an amount of light, from a given direction having a given orientation (φ 2, θ 2), at the second position (x 2, y 2, z 2); and rendering an object, in the virtual three-dimensional space, located at the second position (x 2, y 2, z 2), using the estimated light field value as a lighting condition of the object. obtaining a first plurality of pixel values of a first image captured by a camera in real space, the first plurality of pixel values being associated with a first three-dimensional position (x 1, y 1, z 1), in the virtual three-dimensional space, of the camera when the first image was captured, each one of the first plurality of pixel values being associated with an orientation (φ l, θ m) in the virtual three-dimensional space, of a portion of a light field represented by the pixel; estimating, using compressive sensing, and based on the first plurality of pixel values, a light field value for at least one second position (x 2, y 2, z 2), different from the first position (x 1, y 1, z 1), in the virtual three-dimensional space, wherein the estimated light field value is an estimate of an amount of light, from a given direction having a given orientation (φ 2, θ 2), at the second position (x 2, y 2, z 2); and rendering an object, in the virtual three-dimensional space, located at the second position (x 2, y 2, z 2), using the estimated light field value as a lighting condition of the object.
A pharmaceutically acceptable salt, which is N -( -1-(3-(4-chloro-3-(methylsulfonamido)-1-(2,2,2-trifluoroethyl)-1H-indazol-7-yl)-6-(3-methyl-3-(methylsulfonyl)but-1-yn-1-yl)pyridin-2-yl)-2-(3,5-difluorophenyl)ethyl)-2-((3bS,4aR)-5,5-difluoro-3-(trifluoromethyl)-3b,4,4a,5-tetrahydro-1H-cyclopropa[3,4]cyclopenta[1,2-c]pyrazol-1-yl)acetamide N,N,N- trimethylethanolammonium salt, in combination with one, two, three or four additional therapeutic agents for use in a method of treating or preventing a human immunodeficiency virus infection comprising administering a therapeutically effective amount of said pharmaceutically acceptable salt and said additional therapeutic agents to a subject in need thereof.
A shock absorber mounted on a vehicle, has a strut which comprises: an inner portion that is made of a metal and has a first upper end and a first lower end; and an outer portion that is made of a composite material and is integrally formed with the inner portion, characterized in that the outer portion has at least one of a second upper end on which the first upper end of the inner portion is folded and a second lower end on which the first lower end of the inner portion is folded, and a middle portion that has a seat for supporting a suspension spring. an inner portion that is made of a metal and has a first upper end and a first lower end; and an outer portion that is made of a composite material and is integrally formed with the inner portion, characterized in that the outer portion has at least one of a second upper end on which the first upper end of the inner portion is folded and a second lower end on which the first lower end of the inner portion is folded, and a middle portion that has a seat for supporting a suspension spring.
An electrical conductor pathway system for integration onto an air vehicle structure and for diverting an electric charge, the electrical conductor pathway system comprising: a substrate (304; 101) having a first surface and having one or more grounding points, the first surface of the substrate (304; 101) being a surface to be printed on; and a direct write conductive material pattern printed directly onto the first surface via a direct write printing process, the direct write conductive material pattern forming one or more electrical pathways interconnected with the one or more grounding points, and the direct write conductive material pattern comprising a grid pattern having repeating geometric-shaped units comprising one or more of square-shaped units, hexagon-shaped units, triangle-shaped units, and circle-shaped units, wherein the one or more electrical pathways interconnected with the one or more grounding points divert the electric charge from the first surface to the one or more grounding points. a substrate (304; 101) having a first surface and having one or more grounding points, the first surface of the substrate (304; 101) being a surface to be printed on; and a direct write conductive material pattern printed directly onto the first surface via a direct write printing process, the direct write conductive material pattern forming one or more electrical pathways interconnected with the one or more grounding points, and the direct write conductive material pattern comprising a grid pattern having repeating geometric-shaped units comprising one or more of square-shaped units, hexagon-shaped units, triangle-shaped units, and circle-shaped units, wherein the one or more electrical pathways interconnected with the one or more grounding points divert the electric charge from the first surface to the one or more grounding points.
An electrical activity measurement system (120, 150), comprising: a catheter configured to be inserted into a body part of a living subject and including a distal end comprising at least one electrode; signal processing circuitry (86, 156) coupled to the at least one electrode, and configured to receive an intracardiac electrogram (IEGM) signal from the at least one electrode and process the IEGM signal for output to a recording apparatus via a cable, which picks up surrounding electrical noise; and feedback circuitry (85, 158) configured to: receive at least some of the electrical noise picked up by the cable; and provide a feedback signal indicative of the received electrical noise to the signal processing circuitry (86, 156), which is configured to compensate at least partially for the electrical noise, which is not yet in the IEGM signal but will be added to the IEGM signal in the cable, responsively to the feedback signal to produce a noise-compensated IEGM signal for output to the recording apparatus via the cable. a catheter configured to be inserted into a body part of a living subject and including a distal end comprising at least one electrode; signal processing circuitry (86, 156) coupled to the at least one electrode, and configured to receive an intracardiac electrogram (IEGM) signal from the at least one electrode and process the IEGM signal for output to a recording apparatus via a cable, which picks up surrounding electrical noise; and feedback circuitry (85, 158) configured to: receive at least some of the electrical noise picked up by the cable; and provide a feedback signal indicative of the received electrical noise to the signal processing circuitry (86, 156), which is configured to compensate at least partially for the electrical noise, which is not yet in the IEGM signal but will be added to the IEGM signal in the cable, responsively to the feedback signal to produce a noise-compensated IEGM signal for output to the recording apparatus via the cable.
An isolated monoclonal antibody that binds to B7-H4, wherein the antibody comprises (i) HVR-H1 comprising the amino acid sequence of SEQ ID NO: 58, (ii) HVR-H2 comprising the amino acid sequence of SEQ ID NO: 59, (iii) HVR-H3 comprising the amino acid sequence of SEQ ID NO: 60; (iv) HVR-L1 comprising the amino acid sequence of SEQ ID NO: 61, (v) HVR-L2 comprising the amino acid sequence of SEQ ID NO: 62, and (vi) HVR-L3 comprising the amino acid sequence of SEQ ID NO: 63.
An acoustic system (200; 500) for an Urban Air Mobility vehicle, the acoustic system (200; 500) comprising: a first shield (210; 510) configured to be disposed around a rotor of the UAM vehicle, the first shield (210; 510) having an annular shape, the first shield (210; 510) configured to be disposed radially outward from a blade tip of a rotary blade of the rotor, the first shield (210; 510) configured to redirect sound waves from a substantially radial direction to a second direction, the second direction being orthogonal to the radial direction, wherein the first shield (210; 510) comprises an upper angled wall and a lower angled wall, a first inner surface of the upper angled wall configured to form a first acute angle with a strut of the acoustic system (100; 200), a second inner surface of the lower angled wall configured to form a second acute angle with the strut. a first shield (210; 510) configured to be disposed around a rotor of the UAM vehicle, the first shield (210; 510) having an annular shape, the first shield (210; 510) configured to be disposed radially outward from a blade tip of a rotary blade of the rotor, the first shield (210; 510) configured to redirect sound waves from a substantially radial direction to a second direction, the second direction being orthogonal to the radial direction, wherein the first shield (210; 510) comprises an upper angled wall and a lower angled wall, a first inner surface of the upper angled wall configured to form a first acute angle with a strut of the acoustic system (100; 200), a second inner surface of the lower angled wall configured to form a second acute angle with the strut.
Method for automatically assigning wireless seismic acquisition units to topographic positions, each wireless seismic acquisition unit comprising a satellite navigation system receiver, characterized in that said method comprises the following steps, carried out by an assigning device: - obtaining topographic locations at which the wireless seismic acquisition units are expected to be laid; - obtaining measured positions of the wireless seismic acquisition units, corresponding to or derived from position information provided by the satellite navigation system receivers when the wireless seismic acquisition units are installed on the ground, each near one of the topographic locations; - computing associations, each between one of the wireless seismic acquisition units and one of the topographic positions, as a function of a comparison between the measured positions and the topographic locations; and - assigning by an assigning device said wireless seismic acquisition units to said topographic positions in function of said computed associations. - obtaining topographic locations at which the wireless seismic acquisition units are expected to be laid; - obtaining measured positions of the wireless seismic acquisition units, corresponding to or derived from position information provided by the satellite navigation system receivers when the wireless seismic acquisition units are installed on the ground, each near one of the topographic locations; - computing associations, each between one of the wireless seismic acquisition units and one of the topographic positions, as a function of a comparison between the measured positions and the topographic locations; and - assigning by an assigning device said wireless seismic acquisition units to said topographic positions in function of said computed associations.
One-piece balance spring comprising a single strip wound on itself between an inner coil (S I) and an outer coil (S E), the strip at rest comprising: - between the end of the inner coil (S I) and the penultimate coil (S P), a first area, wherein the pitch between each coil continuously increases so that, when the angle of contraction of the balance spring has a value of 360 degrees, there is a substantially constant distance between each coil from the inner coil (S I) to the penultimate coil (S P); - a second area, in the extension of the first area and lying between the start of the penultimate coil (S P) and the end of the outer coil (S E), wherein the pitch continuously increases so that, when the angle of expansion of the balance spring has a value of 360 degrees, there is a minimum distance between the penultimate coil (S P) and the outer coil (S E) to prevent any contact therebetween, the second area comprising a first portion (B 1), whose cross-section is substantially identical to that of the first area, and a second portion (B 2), in the extension of the first portion (B 1), whose cross-section is increased. - between the end of the inner coil (S I) and the penultimate coil (S P), a first area, wherein the pitch between each coil continuously increases so that, when the angle of contraction of the balance spring has a value of 360 degrees, there is a substantially constant distance between each coil from the inner coil (S I) to the penultimate coil (S P); - a second area, in the extension of the first area and lying between the start of the penultimate coil (S P) and the end of the outer coil (S E), wherein the pitch continuously increases so that, when the angle of expansion of the balance spring has a value of 360 degrees, there is a minimum distance between the penultimate coil (S P) and the outer coil (S E) to prevent any contact therebetween, the second area comprising a first portion (B 1), whose cross-section is substantially identical to that of the first area, and a second portion (B 2), in the extension of the first portion (B 1), whose cross-section is increased.