mhurhangee/patent-ind-claim-en huggingface dataset:
A method of producing a matrix for restoring soft tissue, comprising: forming a sheet-type absorption layer on one side of a double layer using biocompatible neutral collagen; forming a film-type support layer on a remaining surface of the double layer by mixing collagen with a water-soluble polymer selected from polyvinyl alcohol, polyvinyl pyrrolidone, polyethylene glycol, or the combination thereof; and a natural material selected from alginate and genipin; and forming a double layer-structured matrix for restoring soft tissue by attaching the absorption layer and the support layer so as to treat damage to soft tissue of a mammal other than a human or restore damaged soft tissue; wherein forming said support layer comprises: dissolving and mixing collagen, said water-soluble polymer and said natural material to form a mixed solution, and crosslinking said mixed solution; and wherein the amount of said collagen is 0.3 to 1.0% (w/v) and the amount of said water-soluble polymer is 0.9 to 2.5% (w/v) based on a total weight said mixed solution. forming a sheet-type absorption layer on one side of a double layer using biocompatible neutral collagen; forming a film-type support layer on a remaining surface of the double layer by mixing collagen with a water-soluble polymer selected from polyvinyl alcohol, polyvinyl pyrrolidone, polyethylene glycol, or the combination thereof; and a natural material selected from alginate and genipin; and forming a double layer-structured matrix for restoring soft tissue by attaching the absorption layer and the support layer so as to treat damage to soft tissue of a mammal other than a human or restore damaged soft tissue; wherein forming said support layer comprises: dissolving and mixing collagen, said water-soluble polymer and said natural material to form a mixed solution, and crosslinking said mixed solution; and wherein the amount of said collagen is 0.3 to 1.0% (w/v) and the amount of said water-soluble polymer is 0.9 to 2.5% (w/v) based on a total weight said mixed solution. dissolving and mixing collagen, said water-soluble polymer and said natural material to form a mixed solution, and crosslinking said mixed solution; and wherein the amount of said collagen is 0.3 to 1.0% (w/v) and the amount of said water-soluble polymer is 0.9 to 2.5% (w/v) based on a total weight said mixed solution.
An optical communication cable comprising: a cable jacket formed from a single layer of extruded polymer material, the cable jacket including an outer surface , an inner surface and a channel defined by the inner surface ; an optical transmission element located in the channel , wherein the channel is sized such that a gap is located between an outer surface of the optical transmission element and the inner surface of the cable jacket , the gap allowing for the position and realignment of the optical transmission element within the cable as the cable is moved and positioned; and an ink layer positioned on the outer surface of the cable jacket , the ink layer formed from ink adhered to the outer surface of the cable jacket ; the optical communication cable characterised in that it further comprises a translucent layer coupled to the outer surface of the cable jacket over the ink layer , such that the ink layer is located between the outer surface of the cable jacket and an inner surface of the translucent layer , wherein the translucent layer defines the outermost surface of the cable at the location of the ink layer ; and wherein the thickness of the ink layer is between 0.1 micrometers and 10 micrometers and the thickness of the translucent layer is between 5 micrometers and 50 micrometers. a cable jacket formed from a single layer of extruded polymer material, the cable jacket including an outer surface , an inner surface and a channel defined by the inner surface ; an optical transmission element located in the channel , wherein the channel is sized such that a gap is located between an outer surface of the optical transmission element and the inner surface of the cable jacket , the gap allowing for the position and realignment of the optical transmission element within the cable as the cable is moved and positioned; and an ink layer positioned on the outer surface of the cable jacket , the ink layer formed from ink adhered to the outer surface of the cable jacket ; the optical communication cable characterised in that it further comprises a translucent layer coupled to the outer surface of the cable jacket over the ink layer , such that the ink layer is located between the outer surface of the cable jacket and an inner surface of the translucent layer , wherein the translucent layer defines the outermost surface of the cable at the location of the ink layer ; and wherein the thickness of the ink layer is between 0.1 micrometers and 10 micrometers and the thickness of the translucent layer is between 5 micrometers and 50 micrometers.
A tire comprising: a pair of bead cores formed in a polygonal shape in cross-sectional view; a carcass toroidally straddling between the bead cores and folded back around the bead cores ; a wire chafer extending along the carcass so as to cover the carcass folded back around the bead cores from an inner side in a radial direction of a tire, the wire chafer being provided on an inner circumference side of the carcass , and a nylon chafer that is provided as a nylon cord, the nylon chafer being provided at an inner circumference side of the wire chafer , wherein, at a side on a tire inner circumference side of the bead core , the wire chafer is provided by being separated into an upper side wire chafer and a lower side wire chafer , wherein the upper side wire chafer and the lower side wire chafer are separated at, as a boundary, a top part of the bead core located on an innermost side in a tire width direction among top parts of the bead core that face inwardly in the tire width direction, and wherein a first end of the nylon chafer is disposed radially outwards of an upper end of the upper side wire chafer in the tire radial direction, and a second end of the nylon chafer reaches a lower end of the bead core so as to cover a part of the lower side wire chafer . a pair of bead cores formed in a polygonal shape in cross-sectional view; a carcass toroidally straddling between the bead cores and folded back around the bead cores ; a wire chafer extending along the carcass so as to cover the carcass folded back around the bead cores from an inner side in a radial direction of a tire, the wire chafer being provided on an inner circumference side of the carcass , and a nylon chafer that is provided as a nylon cord, the nylon chafer being provided at an inner circumference side of the wire chafer , wherein, at a side on a tire inner circumference side of the bead core , the wire chafer is provided by being separated into an upper side wire chafer and a lower side wire chafer , wherein the upper side wire chafer and the lower side wire chafer are separated at, as a boundary, a top part of the bead core located on an innermost side in a tire width direction among top parts of the bead core that face inwardly in the tire width direction, and wherein a first end of the nylon chafer is disposed radially outwards of an upper end of the upper side wire chafer in the tire radial direction, and a second end of the nylon chafer reaches a lower end of the bead core so as to cover a part of the lower side wire chafer .
A computer-implemented method for segmenting a three-dimensional image, the method comprising: receiving the three-dimensional image acquired by an imaging device; creating a first stack of adjacent two-dimensional images along a first plane of the three-dimensional image, the adjacent two-dimensional images of the first stack showing an anatomical structure, wherein the two-dimensional images of the first stack are stacked along a first axis orthogonal to the first plane; creating a second stack of adjacent two-dimensional images along a second plane of the three-dimensional image, the adjacent two-dimensional images of the second stack showing the anatomical structure, wherein the two-dimensional images of the second stack are stacked along a second axis orthogonal to the second plane, wherein the second axis is not parallel to the first axis; segmenting, by a processor, the first stack of two-dimensional images to determine a first label map for the first plane and the second stack of two-dimensional images to determine a second label map for the second plane using at least one convolutional neural network model , wherein the at least one convolutional neural network model outputs the first and second label map; and determining, by the processor, a fused label map for the three-dimensional image by fusing the first and second label maps, the fused label map associating voxels of the three-dimensional image with the anatomical structure. receiving the three-dimensional image acquired by an imaging device; creating a first stack of adjacent two-dimensional images along a first plane of the three-dimensional image, the adjacent two-dimensional images of the first stack showing an anatomical structure, wherein the two-dimensional images of the first stack are stacked along a first axis orthogonal to the first plane; creating a second stack of adjacent two-dimensional images along a second plane of the three-dimensional image, the adjacent two-dimensional images of the second stack showing the anatomical structure, wherein the two-dimensional images of the second stack are stacked along a second axis orthogonal to the second plane, wherein the second axis is not parallel to the first axis; segmenting, by a processor, the first stack of two-dimensional images to determine a first label map for the first plane and the second stack of two-dimensional images to determine a second label map for the second plane using at least one convolutional neural network model , wherein the at least one convolutional neural network model outputs the first and second label map; and determining, by the processor, a fused label map for the three-dimensional image by fusing the first and second label maps, the fused label map associating voxels of the three-dimensional image with the anatomical structure.
An intraocular lens injector for injecting an intraocular lens into an eye, comprising: an injector main body and an injection tube that have a hollow structure and are coupled to each other and constitute a hollow body, the hollow body has a lens installing portion on which an intraocular lens is installed; a rotary member having a first threaded portion formed thereon, and attached to a rear end portion of the hollow body , rotatably around an axis of the hollow body ; a plunger having a second threaded portion formed thereon, and configured to move through the hollow body in an axial direction of the hollow body ; and a pushing member configured to push out an intraocular lens from the lens installing portion by moving through the hollow body in the axial direction of the hollow body together with the plunger , characterized by a tip side of the plunger is inserted into the hollow body in a state in which the first threaded portion and the second threaded portion are meshed with each other, and a rear end side of the plunger is disposed in a state of protruding backward of the rotary member , characterised in that the main body has a rotation restricting portion configured to restrict rotation of the plunger as the plunger moves in the axial direction. an injector main body and an injection tube that have a hollow structure and are coupled to each other and constitute a hollow body, the hollow body has a lens installing portion on which an intraocular lens is installed; a rotary member having a first threaded portion formed thereon, and attached to a rear end portion of the hollow body , rotatably around an axis of the hollow body ; a plunger having a second threaded portion formed thereon, and configured to move through the hollow body in an axial direction of the hollow body ; and a pushing member configured to push out an intraocular lens from the lens installing portion by moving through the hollow body in the axial direction of the hollow body together with the plunger , characterized by a tip side of the plunger is inserted into the hollow body in a state in which the first threaded portion and the second threaded portion are meshed with each other, and a rear end side of the plunger is disposed in a state of protruding backward of the rotary member , characterised in that the main body has a rotation restricting portion configured to restrict rotation of the plunger as the plunger moves in the axial direction.
A network element (200; 300) of a cable television (CATV) network, said network element comprising a first input for downstream signal transmission; a plurality of components arranged to form a downstream signal path, wherein at least one of said components is a downstream amplifier ; a second input for upstream signal transmission; a plurality of components arranged to form an upstream signal path, wherein at least one of said components is an upstream amplifier ; means for inputting a control signal for adjusting one or more amplification parameters of the downstream amplifier; and means for adjusting one or more amplification parameters of the upstream amplifier, wherein said one or more amplification parameters of the upstream amplifier are automatically calculated on the basis of the one or more amplification parameters of the downstream amplifier; characterized in that said means for adjusting one or more amplification parameters of the upstream amplifier is arranged to continuously follow changes in values of the one or more amplification parameters of the downstream amplifier; and re-adjust the one or more amplification parameters of the upstream amplifier based on said changes. a first input for downstream signal transmission; a plurality of components arranged to form a downstream signal path, wherein at least one of said components is a downstream amplifier ; a second input for upstream signal transmission; a plurality of components arranged to form an upstream signal path, wherein at least one of said components is an upstream amplifier ; means for inputting a control signal for adjusting one or more amplification parameters of the downstream amplifier; and means for adjusting one or more amplification parameters of the upstream amplifier, wherein said one or more amplification parameters of the upstream amplifier are automatically calculated on the basis of the one or more amplification parameters of the downstream amplifier; characterized in that said means for adjusting one or more amplification parameters of the upstream amplifier is arranged to continuously follow changes in values of the one or more amplification parameters of the downstream amplifier; and re-adjust the one or more amplification parameters of the upstream amplifier based on said changes.
An aromatic polycarbonate resin composition comprising: an aromatic polycarbonate resin (A); 0.01 to 0.1 part by mass of a phosphite stabilizer (B-I) relative to 100 parts by mass of the aromatic polycarbonate resin (A), the phosphite stabilizer (B-I) being represented by the general formula (I) below; 0.01 to 0.5 part by mass of a phosphite stabilizer (B-II) relative to 100 parts by mass of the aromatic polycarbonate resin (A), the phosphite stabilizer (B-II) being represented by the general formula (II) below; 0.05 to 2 parts by mass of a polyalkylene glycol compound (C) relative to 100 parts by mass of the aromatic polycarbonate resin (A), the polyalkylene glycol compound (C) being represented by the general formula (III-1) below; and characterized in that the phosphite stabilizer (B-II)/ phosphite stabilizer (B-I) mass ratio is 1 to 10, preferably 1.5 to 8: wherein in the formula (I), R 11 to R 18 are each independently a hydrogen atom or an alkyl group, R 19 to R 22 are each independently an alkyl group, an aryl group or an aralkyl group, and a to d are each independently an integer of 0 to 3; wherein in the formula (II), R 21 to R 25 are each independently a hydrogen atom, an aryl group having 6 to 20 carbon atoms or an alkyl group having 1 to 20 carbon atoms; wherein in the formula (III-1), R is an alkyl group having 1 to 3 carbon atoms, X and Y are each independently a hydrogen atom, an aliphatic acyl group having 1 to 23 carbon atoms or an alkyl group having 1 to 23 carbon atoms, and n is an integer of 10 to 400. an aromatic polycarbonate resin (A); 0.01 to 0.1 part by mass of a phosphite stabilizer (B-I) relative to 100 parts by mass of the aromatic polycarbonate resin (A), the phosphite stabilizer (B-I) being represented by the general formula (I) below; 0.01 to 0.5 part by mass of a phosphite stabilizer (B-II) relative to 100 parts by mass of the aromatic polycarbonate resin (A), the phosphite stabilizer (B-II) being represented by the general formula (II) below; 0.05 to 2 parts by mass of a polyalkylene glycol compound (C) relative to 100 parts by mass of the aromatic polycarbonate resin (A), the polyalkylene glycol compound (C) being represented by the general formula (III-1) below; and characterized in that the phosphite stabilizer (B-II)/ phosphite stabilizer (B-I) mass ratio is 1 to 10, preferably 1.5 to 8: wherein in the formula (I), R 11 to R 18 are each independently a hydrogen atom or an alkyl group, R 19 to R 22 are each independently an alkyl group, an aryl group or an aralkyl group, and a to d are each independently an integer of 0 to 3; wherein in the formula (II), R 21 to R 25 are each independently a hydrogen atom, an aryl group having 6 to 20 carbon atoms or an alkyl group having 1 to 20 carbon atoms; wherein in the formula (III-1), R is an alkyl group having 1 to 3 carbon atoms, X and Y are each independently a hydrogen atom, an aliphatic acyl group having 1 to 23 carbon atoms or an alkyl group having 1 to 23 carbon atoms, and n is an integer of 10 to 400.
A satellite communication system for mobile satellite communication, comprising: a plurality of communication satellites orbiting the earth distributed in different orbits , each of said communication satellites being capable of simultaneously handling a predetermined number of communication links to and from satellite phones and having the following features: a first orientable antenna and a second orientable antenna , control means , characterized in that said control means is adapted to control, in response to first control information, the orientation of said second antenna to a predetermined reference point with respect to the earth independently of the position of the respective communication satellite and is further adapted to align in response to second control information assigned to the respective communications satellite , wherein the second control information depends on a time- and location-dependent demand for communications links to be handled simultaneously and on the time-dependent position of the respective communications satellite, the first antenna specifically in such a way that it is not aligned with the predetermined reference point.
A plant to process panels of wood or the like, the plant comprising a cutting machine to cut a plurality of panels starting from a sheet of wood or the like, the cutting machine comprising, in turn, support means defining a first support surface (P1) for the sheet ; a cutting station ; a grip and feeding assembly to feed the sheet through the cutting station in a first direction that is parallel to the first support surface (P1); an operating head , which is mounted in the cutting station , is provided with a cutting tool, and is mobile in a second direction that is transverse to the first direction and parallel to the first support surface (P1); the grip and feeding assembly comprising a plurality of gripping members , which are designed to hold a rear edge of the panel that is parallel to the second direction and/or a lateral edge the panel that is parallel to the first direction ; and an edgebanding machine to edgeband each panel with a relative finishing edge, the edgebanding machine comprising, in turn, a support unit , an edgebanding unit ; and the plant comprises, furthermore, a fixed gantry comprising, in turn, a crosspiece , which extends above said first and second support surfaces (P1, P2) in the second direction , and is engaged in a sliding manner by the operating head and by the edgebanding unit , and at least two support uprights , which are arranged on opposite sides of the cutting machine and of the edgebanding machine and are connected to one another by the crosspiece ; the support unit and the edgebanding unit being mobile in the first direction and in the second direction , respectively, characterised in that : the support unit is provided with a plurality of sucking support blocks , which are designed to lock the panels , through sucking on a second support surface (P2); the plant comprises a first base with an elongated shape, which extends in the first direction , and has two longitudinal guide members parallel to one another and to the first direction ; a second base which extends in the first direction , and has two longitudinal guide members parallel to one another and to the first direction , the second base is parallel and next to the first base and faces the first base; the two support uprights , are arranged on opposite sides of the first base and of the second base in the second direction . the support unit is provided with a plurality of sucking support blocks , which are designed to lock the panels , through sucking on a second support surface (P2); the plant comprises a first base with an elongated shape, which extends in the first direction , and has two longitudinal guide members parallel to one another and to the first direction ; a second base which extends in the first direction , and has two longitudinal guide members parallel to one another and to the first direction , the second base is parallel and next to the first base and faces the first base; the two support uprights , are arranged on opposite sides of the first base and of the second base in the second direction .
A method for forming polymer microparticles, the method comprising: spraying a liquid comprising a thermally-gelling agarose from a first orifice (111;211;311;411) of a nozzle (110;210;310;410) into air to form gelled microparticles , the nozzle positioned to have a central axis of the first orifice at a tilt angle in a range from 10 degrees to 170 degrees relative to a direction of gravity ; and collecting the gelled microparticles with a collecting device comprising at least two collecting units at different distances from the first orifice of the nozzle in a horizontal direction perpendicular to the direction of gravity, wherein each of the at least two collecting units is loaded with a liquid collecting medium comprising water, alcohol, or a combination thereof. spraying a liquid comprising a thermally-gelling agarose from a first orifice (111;211;311;411) of a nozzle (110;210;310;410) into air to form gelled microparticles , the nozzle positioned to have a central axis of the first orifice at a tilt angle in a range from 10 degrees to 170 degrees relative to a direction of gravity ; and collecting the gelled microparticles with a collecting device comprising at least two collecting units at different distances from the first orifice of the nozzle in a horizontal direction perpendicular to the direction of gravity, wherein each of the at least two collecting units is loaded with a liquid collecting medium comprising water, alcohol, or a combination thereof.