mhurhangee/ep-ind-claims huggingface dataset:
Image processing apparatus, comprising: an input port for receiving projection data through respective 3D locations in an imaging region, said projection data collectable in a scan operation by an imaging apparatus; a tomosynthetic image segment generator configured to generate, based on said projection data, a first image segment for said 3D locations; and a visualizer configured to effect displaying said first image segment on a display device before or whilst projection data for a different 3D location in the imaging region is being received at the input port, said first image segment forming only a partial image of a complete image, characterized in that the image segment generator operates to tomosynthetically generate, for different 3D locations, a second image segment, said second image segment forming another partial image of the complete image, and the visualizer configured to accumulatively effect displaying the second image segment together with the already displayed first image segment, the visualizer thereby gradually building up the complete image. an input port for receiving projection data through respective 3D locations in an imaging region, said projection data collectable in a scan operation by an imaging apparatus; a tomosynthetic image segment generator configured to generate, based on said projection data, a first image segment for said 3D locations; and a visualizer configured to effect displaying said first image segment on a display device before or whilst projection data for a different 3D location in the imaging region is being received at the input port, said first image segment forming only a partial image of a complete image, characterized in that the image segment generator operates to tomosynthetically generate, for different 3D locations, a second image segment, said second image segment forming another partial image of the complete image, and the visualizer configured to accumulatively effect displaying the second image segment together with the already displayed first image segment, the visualizer thereby gradually building up the complete image.
A high voltage valve arrangement comprising a high voltage valve unit comprising a plurality of vertically arranged valve layers; an external electric shield structure arranged around an outer surface of each valve layer; a grounding system, the grounding system comprising an extendable grounding device on a lateral side of the high voltage valve unit and configured to be remotely extended in a vertical direction from a withdrawn position to an extended position, wherein the extendable grounding device establishes electric connection with the electric shield structure when it is extended from the retracted position; and a plurality of guide elements, each guide element being assigned and electrically connected to a respective one of the electric shield structures, whereby the guide element assigned to the electric shield structure of one of the valve layers is slightly shifted in a horizontal direction in view of the guide element assigned to the electric shield structure of a consecutive valve layer, to ensure that the extendable grounding device establishes electric contact with each guide element and thus with each electric shield structure on its way to the extended position.
A pole component comprising: an upper terminal; a lower terminal disposed to be spaced apart from the upper terminal at a predetermined interval; a breaker part assembly including a fixed electrode electrically connected to the upper terminal, a movable electrode selectively connected to the fixed electrode, and a current conducting portion fixed to the movable electrode and electrically connected to the lower terminal; an outer housing having an open lower surface to accommodate the upper terminal, the lower terminal, and the breaker part assembly; and an inner housing detachably disposed between the outer housing and breaker part assembly, characterized in that the inner housing includes: a plate-shaped front portion disposed to face the inner surface of the outer housing; and a pair of side surface portions formed to extend from both sides of the front portion in a direction toward the breaker part assembly. an upper terminal; a lower terminal disposed to be spaced apart from the upper terminal at a predetermined interval; a breaker part assembly including a fixed electrode electrically connected to the upper terminal, a movable electrode selectively connected to the fixed electrode, and a current conducting portion fixed to the movable electrode and electrically connected to the lower terminal; an outer housing having an open lower surface to accommodate the upper terminal, the lower terminal, and the breaker part assembly; and an inner housing detachably disposed between the outer housing and breaker part assembly, characterized in that the inner housing includes: a plate-shaped front portion disposed to face the inner surface of the outer housing; and a pair of side surface portions formed to extend from both sides of the front portion in a direction toward the breaker part assembly. a plate-shaped front portion disposed to face the inner surface of the outer housing; and a pair of side surface portions formed to extend from both sides of the front portion in a direction toward the breaker part assembly.
A catalyst for the hydrogenation of unsaturated hydrocarbons, which catalyst is a supported nickel on silica catalyst, has a nickel content of 40 to 85 weight-% (calculated as NiO), a silicon content of 15 to 60 weight-% (calculated as SiO 2), a titanium content of 0.5 to 5.0 weight-% (calculated as TiO 2), and does not contain more than 0.20 weight-% iron (calculated as Fe), wherein the catalyst has a monomodal Ni-crystallite size distribution with a mean crystallite size of the reduced catalyst of 1.5 to 3.5 nm, a pore volume of at least 0.60 ml/g and wherein the proportion of the pore volume of pores with a pore diameter of ≥10 nm is at least 55 %, the pore volume being determined according to BJH (Barrett, Joyner and Halenda) and considerin pores with a diameter from 1.7 to 300 nm.
Sealing element for a waterproof sealing of junctions at structural elements of a building, the sealing element comprising - a sealing tape having a waterproof surface, and - a fabric layer to which a sealing compound can adhere and which is fixed to the sealing tape in a manner so that a portion of the fabric layer projects outwardly from an outer edge of the sealing tape, characterized in that the fabric layer comprises a tear line portion (22; 221, 222) to allow for separating the outwardly projecting portion of the fabric layer by tearing away the outwardly projecting portion of the fabric layer. - a sealing tape having a waterproof surface, and - a fabric layer to which a sealing compound can adhere and which is fixed to the sealing tape in a manner so that a portion of the fabric layer projects outwardly from an outer edge of the sealing tape,
An inkjet ink comprising: an aqueous polyurethane (meth)acrylate dispersion, which is redispersible in water in a single water rub of the water rub test after thermal drying and before curing; a water-dispersible or water-soluble photoinitiator; a surfactant; a colouring agent; and a humectant; wherein the ink comprises less than 2% by weight (meth)acrylate radiation-curable material with a number average molecular weight of less than 1,200 Da, based on the total weight of the ink.
A chimeric antigen receptor, comprising an extracellular antigen-binding domain, a transmembrane domain and an intracellular domain, wherein the extracellular antigen-binding domain comprises a single-chain variable fragment (scFv), wherein the scFv comprises: a heavy chain variable region CDR1 comprising the amino acid sequence set forth in SEQ ID NO:11, a heavy chain variable region CDR2 comprising the amino acid sequence set forth in SEQ ID NO:12, a heavy chain variable region CDR3 comprising the amino acid sequence set forth in SEQ ID NO:13, a light chain variable region CDR1 comprising the amino acid sequence set forth in SEQ ID NO:14, a light chain variable region CDR2 comprising the amino acid sequence set forth in SEQ ID NO:15, and a light chain variable region CDR3 comprising the amino acid sequence set forth in SEQ ID NO:16.
A method for printing a three-dimensional object (312; 512), the method comprising: printing a first color layer (250; 550) having a first color in a first region (260; 560) of a three-dimensional object (312; 512), the first color layer (250; 550) comprising a first color thickness (270; 570); printing a second color layer (252; 552) having a second color in a second region (262; 562) of the three-dimensional object (312; 512), the second color layer (252; 552) comprising a second color thickness, wherein the first color thickness (270; 570) and the second color thickness are different; printing a first structural layer directly onto the first color layer (250; 550), the first structural layer having a first structural thickness which in combination with the first color thickness (270; 570) forms a first target thickness (292; 592); printing a second structural layer directly onto the second color layer (252; 552), the second structural layer having a second structural thickness which in combination with the second color thickness forms the first target thickness (292; 592), wherein the first structural thickness and the second structural thickness are different; printing an upper color layer directly onto the first structural layer, the upper color layer having an upper color thickness; and printing an upper structural layer directly onto on the upper color layer, the upper structural layer having an upper structural thickness which in combination with the upper color thickness forms a second target thickness. printing a first color layer (250; 550) having a first color in a first region (260; 560) of a three-dimensional object (312; 512), the first color layer (250; 550) comprising a first color thickness (270; 570); printing a second color layer (252; 552) having a second color in a second region (262; 562) of the three-dimensional object (312; 512), the second color layer (252; 552) comprising a second color thickness, wherein the first color thickness (270; 570) and the second color thickness are different; printing a first structural layer directly onto the first color layer (250; 550), the first structural layer having a first structural thickness which in combination with the first color thickness (270; 570) forms a first target thickness (292; 592); printing a second structural layer directly onto the second color layer (252; 552), the second structural layer having a second structural thickness which in combination with the second color thickness forms the first target thickness (292; 592), wherein the first structural thickness and the second structural thickness are different; printing an upper color layer directly onto the first structural layer, the upper color layer having an upper color thickness; and printing an upper structural layer directly onto on the upper color layer, the upper structural layer having an upper structural thickness which in combination with the upper color thickness forms a second target thickness.
Electrical system comprising a housing, contained in which there is at least one electrical component, which is surrounded by an electrically insulating gas, wherein there is at least one radical scavenger in the electrical system, characterized in that the at least one radical scavenger is immobilized on a substrate.
An assembly of two parts (2, 4; 16, 20), one of the parts (4; 16) being made of composite material with fiber reinforcement obtained from a fiber preform made by three-dimensional weaving and densified with a matrix, the assembly including a mechanical anchor element (12; 12'; 14; 22) secured to one of the parts and inserted inside the other part, the mechanical anchor element being inserted in a zone of non-interlinking provided during weaving of the fiber preform that is to make the fiber reinforcement of the composite material part, with the insertion taking place before a step of injecting a resin into said fiber preform, wherein: (i) the composite material part is an airfoil of a turbojet blade and the other part is a metal strip for assembling on a leading edge of said airfoil, wherein (a) the mechanical anchor element comprises a plurality of metal rods some of which are secured to the flanges of the strip and one of which is secured to the central portion of the strip, all of these rods extending in a direction that is transverse relative to the airfoil into the inside of the airfoil, or (b) the mechanical anchor element comprises at least one crossbar that extends between two flanges of the metal strip and that passes through the airfoil in its thickness direction; or (ii) the composite material part being a spar-forming structural core of a turboprop propeller blade and the other part being a shell that is positioned around the propeller blade core, said shell being made of composite material. (i) the composite material part is an airfoil of a turbojet blade and the other part is a metal strip for assembling on a leading edge of said airfoil, wherein (a) the mechanical anchor element comprises a plurality of metal rods some of which are secured to the flanges of the strip and one of which is secured to the central portion of the strip, all of these rods extending in a direction that is transverse relative to the airfoil into the inside of the airfoil, or (b) the mechanical anchor element comprises at least one crossbar that extends between two flanges of the metal strip and that passes through the airfoil in its thickness direction; or (a) the mechanical anchor element comprises a plurality of metal rods some of which are secured to the flanges of the strip and one of which is secured to the central portion of the strip, all of these rods extending in a direction that is transverse relative to the airfoil into the inside of the airfoil, or (b) the mechanical anchor element comprises at least one crossbar that extends between two flanges of the metal strip and that passes through the airfoil in its thickness direction; or (ii) the composite material part being a spar-forming structural core of a turboprop propeller blade and the other part being a shell that is positioned around the propeller blade core, said shell being made of composite material.
Glasses (1; 2000) for adjusting an effect on a brain and a body of a wearer, comprising: a frame for holding prism lenses; and two left and right prism lenses (11, 11A, 11B, 11C, 11D) arranged side by side in a left-right direction on the frame, which lenses refract incident light incident on each of them in the same direction, thereby changing visual information input to eyes of the wearer in comparison to a case where the wearer is not wearing the glasses, wherein both the two left and right prism lenses are evenly inclined from one end to another end of each of them; wherein the frame includes a rotating mechanism that holds each prism lens rotatably with respect to the frame, and the rotating mechanism is configured to rotate each prism lens such that an entire peripheral portion of the prism lens is along a rim of a front portion of the frame; the front portion includes a front side front portion and a rear side front portion, the prism lens is located and held in the front portion, and the front side front portion is configured to be rotatable with respect to the rear side front portion, characterized in that the front side front portion 2002a includes a folded portion, and the folded portion is rotatable with respect to the rear side front portion by fitting the folded portion into a groove provided in the rear side front portion. a frame for holding prism lenses; and two left and right prism lenses (11, 11A, 11B, 11C, 11D) arranged side by side in a left-right direction on the frame, which lenses refract incident light incident on each of them in the same direction, thereby changing visual information input to eyes of the wearer in comparison to a case where the wearer is not wearing the glasses, wherein both the two left and right prism lenses are evenly inclined from one end to another end of each of them; wherein the frame includes a rotating mechanism that holds each prism lens rotatably with respect to the frame, and the rotating mechanism is configured to rotate each prism lens such that an entire peripheral portion of the prism lens is along a rim of a front portion of the frame; the front portion includes a front side front portion and a rear side front portion, the prism lens is located and held in the front portion, and the front side front portion is configured to be rotatable with respect to the rear side front portion, characterized in that the front side front portion 2002a includes a folded portion, and the folded portion is rotatable with respect to the rear side front portion by fitting the folded portion into a groove provided in the rear side front portion.
A method for preparing a thermoplastic resin composition comprising melt-mixing a thermoplastic elastomer composition comprising (i) an ethylene-vinyl alcohol copolymer and (ii) an acid anhydride-modified or epoxy-modified rubber dispersed therein, with (B-2) a thermoplastic elastomer composition comprising (i) at least one resin selected from unmodified polyamide resins and modified polyamide resins, and (ii) an acid anhydride-modified or epoxy-modified rubber dispersed therein, wherein thermoplastic elastomer compositions and (B-2) each comprise a crosslinking agent. a thermoplastic elastomer composition comprising (i) an ethylene-vinyl alcohol copolymer and (ii) an acid anhydride-modified or epoxy-modified rubber dispersed therein, with (B-2) a thermoplastic elastomer composition comprising (i) at least one resin selected from unmodified polyamide resins and modified polyamide resins, and (ii) an acid anhydride-modified or epoxy-modified rubber dispersed therein,
A kit for detecting a telomeric DNA in a cell sample, comprising at least two receptacles, one of which receptacles contains a γPNA miniprobe that hybridizes with the telomeric DNA, and another of which receptacles contains a diluent suitable for hybridization, wherein the γPNA miniprobe consists of six, nine or twelve PNA monomers.
A process for making an olefin product from an oxygenate feedstock comprising: a) contacting the feedstock in a reaction zone with a catalyst comprising i) a molecular sieve having a pore diameter of less than 0.5 nm and ii) a CO oxidation metal, under conditions effective to convert the feedstock into an olefin product stream comprising C 2 -C 3 olefins and to form carbonaceous deposits on the catalyst so as to provide a carbon-containing catalyst; b) contacting at least a portion of the carbon-containing catalyst with a regeneration medium comprising oxygen in a regeneration zone comprising a fluid bed regenerator having a dense fluid phase and a dilute fluid phase under conditions effective to obtain a regenerated catalyst portion; c) introducing said regenerated catalyst portion into said reaction zone; and d) repeating steps a) - c); wherein the CO oxidation metal is Pt and represents from 0.01 ppm to 100 ppm by weight of the catalyst, the molecular sieve includes one or a combination of SAPO-34 and ALPO-18 and metal containing molecular sieves thereof, in step b), the difference between the temperature of the dense phase and the dilute phase of the regenerator is no greater than 100°C; and said CO oxidation metal is added in the form of a compound having a diameter larger than the diameter of said pore openings of the molecular sieve. a) contacting the feedstock in a reaction zone with a catalyst comprising i) a molecular sieve having a pore diameter of less than 0.5 nm and ii) a CO oxidation metal, under conditions effective to convert the feedstock into an olefin product stream comprising C 2 -C 3 olefins and to form carbonaceous deposits on the catalyst so as to provide a carbon-containing catalyst; b) contacting at least a portion of the carbon-containing catalyst with a regeneration medium comprising oxygen in a regeneration zone comprising a fluid bed regenerator having a dense fluid phase and a dilute fluid phase under conditions effective to obtain a regenerated catalyst portion; c) introducing said regenerated catalyst portion into said reaction zone; and d) repeating steps a) - c); wherein the CO oxidation metal is Pt and represents from 0.01 ppm to 100 ppm by weight of the catalyst, the molecular sieve includes one or a combination of SAPO-34 and ALPO-18 and metal containing molecular sieves thereof, in step b), the difference between the temperature of the dense phase and the dilute phase of the regenerator is no greater than 100°C; and said CO oxidation metal is added in the form of a compound having a diameter larger than the diameter of said pore openings of the molecular sieve.
A cell discovery method, comprising: receiving, by a second network node, a timing modification information sent by a first network node, wherein the timing modification information comprises a first timing advance of at least one user equipment handed over from the first network node to the second network node; determining, by the second network node, a modified timing of the second network node according to the acquired timing modification information, further comprising: determining, by the second network node according to the first timing advance, a second timing advance of a position, in the second network node, of a user equipment served by the first network node; and determining, by the second network node, the modified timing according to the acquired timing modification information of the first network node and the second timing advance; receiving, by the second network node, uplink resource information of the user equipment sent by the first network node; performing, by the second network node, detection of an uplink signal of the user equipment by using the modified timing and according to the uplink resource information; and when detecting proximity of the user equipment, sending, by the second network node, proximity information to the first network node. receiving, by a second network node, a timing modification information sent by a first network node, wherein the timing modification information comprises a first timing advance of at least one user equipment handed over from the first network node to the second network node; determining, by the second network node, a modified timing of the second network node according to the acquired timing modification information, further comprising: determining, by the second network node according to the first timing advance, a second timing advance of a position, in the second network node, of a user equipment served by the first network node; and determining, by the second network node, the modified timing according to the acquired timing modification information of the first network node and the second timing advance; determining, by the second network node according to the first timing advance, a second timing advance of a position, in the second network node, of a user equipment served by the first network node; and determining, by the second network node, the modified timing according to the acquired timing modification information of the first network node and the second timing advance; receiving, by the second network node, uplink resource information of the user equipment sent by the first network node; performing, by the second network node, detection of an uplink signal of the user equipment by using the modified timing and according to the uplink resource information; and when detecting proximity of the user equipment, sending, by the second network node, proximity information to the first network node.