mhurhangee/ep-ind-claims huggingface dataset:
A system for detecting poor quality images in an optical tomography system comprising: acquisition means for acquiring a set of pseudo-projection images of an object comprising a biological cell and having a center of mass, where each of the set of pseudo-projection images is acquired at a different angle of view; reconstruction means, coupled to receive the pseudo-projection images, for reconstruction of the pseudo-projection images into 3D reconstruction images; and quality means for classification of the 3D reconstruction images using selected features that characterize poor quality reconstructions; wherein the selected features include difference image features that are formed by creating a difference image between a fixed focus image and a reconstruction slice image; and wherein the difference image features are computed for those voxels that are associated with the cell including an average difference for the portion of the images containing the cell. acquisition means for acquiring a set of pseudo-projection images of an object comprising a biological cell and having a center of mass, where each of the set of pseudo-projection images is acquired at a different angle of view; reconstruction means, coupled to receive the pseudo-projection images, for reconstruction of the pseudo-projection images into 3D reconstruction images; and quality means for classification of the 3D reconstruction images using selected features that characterize poor quality reconstructions; wherein the selected features include difference image features that are formed by creating a difference image between a fixed focus image and a reconstruction slice image; and wherein the difference image features are computed for those voxels that are associated with the cell including an average difference for the portion of the images containing the cell.
An injection device for injecting a hypodermic syringe (1260, 1760) along an injection direction defining an injection axis, wherein said injecting device comprises: • a housing (1281, 1581, 1781) for being positioned at the skin; and • a movable element (1282, 1582, 1718) movably arranged relative to said housing between a retracted position and an injection position, said movable element comprising: a hypodermic syringe holder (1289, 1789) for holding a hypodermic syringe (1260, 1760); wherein said injection device further comprises an injection depth modifying element (1240, 1340, 1440, 1540, 1640, 1740) configured to modify the injection depth of the injection device, and wherein said injection depth modifying element is movable relative to both said housing and said movable element and being attachable at a first position to a selected element selected from the group of elements consisting of said movable element and said housing, wherein when said injection depth modifying element is attached at said first position, the movable element is limited to be movable relative to the housing between the retracted position and an intermediate position whereby the injection depth is reduced. • a housing (1281, 1581, 1781) for being positioned at the skin; and • a movable element (1282, 1582, 1718) movably arranged relative to said housing between a retracted position and an injection position, said movable element comprising: a hypodermic syringe holder (1289, 1789) for holding a hypodermic syringe (1260, 1760);
Process for producing a backrest frame of a motor vehicle seat, wherein a first component consists of steel and at least one second component (3, 4) consists either of steel or of a lightweight construction material, wherein the first component and the at least one second component (3, 4) each have a connection region (2', 3', 4'), wherein the connection regions (2', 3', 4') are suitable for welding the connection regions (2', 3', 4') to one another and are also suitable for soldering the connection regions (2', 3', 4') to one another and are also suitable for adhesively bonding the connection regions (2', 3', 4') to one another, wherein the first and the at least one second component are welded to one another, characterized in that the welded connection is made in at least two portions in each connection region (2', 3', 4'), wherein the connection region (3', 4') of the at least one second component (3, 4) is converted before welding, in order to increase the contour along which welding can be carried out and to thus lengthen the length of the weld seam placed along the contour.
Non-pneumatic wheel comprising an annular reinforcing structure produced from at least one elastomer compound, arranged radially on the inside of a tread, the said annular reinforcing structure comprising a plurality of reinforcing strips (12, 14) arranged in layers, the said reinforcing strips of each of the layers being arranged in juxtaposition in a substantially circumferential direction, the said reinforcing strips being coated with an elastomer composition, the annular reinforcing structure comprising at least three layers of reinforcing strips, characterized in that each reinforcing strips is formed of a laminate of at least two composite layers, each composite layer of said laminate comprising fibres (15, 15', 15") coated in a polymer matrix, the said fibres (15, 15', 15") being mutually-parallel oriented and making an angle α with the circumferential direction, the value of the said angles α being a non-zero value at least for one of the angles α, and in that the limit values of said angles α are - 90° and +90°.
A method for defining a Network Service Descriptor, NSD, for a Network Service, NS, the NSD comprising at least one Virtualized Network Function, VNF, Forwarding Graph Descriptor, VNFFGD, and one or more of at least one of: - a VNF Descriptor, VNFD (510 - 540), - a Physical Network Function, PNF, Descriptor, PNFD, - a nested NSD, and - a Virtual Link, VL, Descriptor, VLD, the method comprising: - defining a Connection Points, CP, Profile, wherein the CP Profile is referenced through a cpProfileId of the CP Profile in a Network Forwarding Path Descriptor, NFPD, attribute of the VNFFGD; and - instantiating the NS defined by the NSD, characterized in that the defined CP Profile specifies at least one of: - a VNF Profile ID referencing to a VNF Profile of a constituent VNF and a VNF external CPD identifier of a VNF external CPD for the VNF profile; - a PNF Profile ID referencing to a PNF Profile of a constituent PNF and a PNF external CPD identifier of a PNF external CPD for the PNF Profile; and - a NS Profile ID referencing to a NsProfile of a nested NS and a NS SAPD ID of the NS SAPD for the NS Profile. - a VNF Descriptor, VNFD (510 - 540), - a Physical Network Function, PNF, Descriptor, PNFD, - a nested NSD, and - a Virtual Link, VL, Descriptor, VLD, - defining a Connection Points, CP, Profile, wherein the CP Profile is referenced through a cpProfileId of the CP Profile in a Network Forwarding Path Descriptor, NFPD, attribute of the VNFFGD; and - instantiating the NS defined by the NSD, - a VNF Profile ID referencing to a VNF Profile of a constituent VNF and a VNF external CPD identifier of a VNF external CPD for the VNF profile; - a PNF Profile ID referencing to a PNF Profile of a constituent PNF and a PNF external CPD identifier of a PNF external CPD for the PNF Profile; and - a NS Profile ID referencing to a NsProfile of a nested NS and a NS SAPD ID of the NS SAPD for the NS Profile.
A turbomachine system comprising a gas turbine system including an air intake system, a compressor component, a combustor component and a turbine component the compressor component including at least one oversized compressor stage for generating an excess flow of air; a mixing area for receiving an exhaust gas stream produced by the gas turbine system; an air extraction system for directing a supply of bypass air comprising a portion of the excess flow of air generated by the at least one oversized compressor stage of the compressor component of the gas turbine system, into an air passage around the combustor component and the turbine component of the gas turbine system; a bypass enclosure surrounding the compressor component, the combustor component and the turbine component of the gas turbine system and forming the air passage to allow bypass air flowing through the air passage and around the combustor component and the turbine component of the gas turbine system into the mixing area to reduce a temperature of the exhaust gas stream; and a selective catalytic reduction system for processing the reduced temperature exhaust gas stream; wherein the air extraction system includes at least one inlet guide vane for directing the bypass air into the air passage; and is configured to divert the remaining portion of the excess flow of air into the compressor component of the gas turbine system to supercharge the gas turbine system.
A process for isolation and purification of a target protein by chromatography wherein the chromatography removes or depletes prions (PrP Sc), comprising the steps of - contacting a potentially PrP SC -contaminated sample comprising a target protein with a multimodal chromatographic material, wherein the multimodal chromatographic material contains a negatively charged 2-(benzoylamino) butanoic acid ligand; - setting buffer conditions so that the target protein is bound to the multimodal chromatographic material and whereas PrP SC is not binding to the multimodal chromatographic material wherein the chromatographic conditions comprise the following steps: i) Employing a loading and equilibration buffer containing tri-n-butylphosphate and/or Triton x-100 in a concentration ranging of from 0.1 to 10% (w/w); ii) Employing a wash buffer without a solvent and/or non-ionic detergent; iii) Employing a second wash buffer containing ethylene glycol and/or lysine/arginine ranging of from 5 to 30 % (w/w) of ethylene glycol and of from 0.2 to 1.5 M lysine/arginine; iv) Employing a third wash buffer containing sodium chloride in a concentration ranging of from 0.5 to 4 M, in particular of from 0.5 to 1.5 M; - followed by elution of the target protein. - contacting a potentially PrP SC -contaminated sample comprising a target protein with a multimodal chromatographic material, wherein the multimodal chromatographic material contains a negatively charged 2-(benzoylamino) butanoic acid ligand; - setting buffer conditions so that the target protein is bound to the multimodal chromatographic material and whereas PrP SC is not binding to the multimodal chromatographic material wherein the chromatographic conditions comprise the following steps: i) Employing a loading and equilibration buffer containing tri-n-butylphosphate and/or Triton x-100 in a concentration ranging of from 0.1 to 10% (w/w); ii) Employing a wash buffer without a solvent and/or non-ionic detergent; iii) Employing a second wash buffer containing ethylene glycol and/or lysine/arginine ranging of from 5 to 30 % (w/w) of ethylene glycol and of from 0.2 to 1.5 M lysine/arginine; iv) Employing a third wash buffer containing sodium chloride in a concentration ranging of from 0.5 to 4 M, in particular of from 0.5 to 1.5 M; i) Employing a loading and equilibration buffer containing tri-n-butylphosphate and/or Triton x-100 in a concentration ranging of from 0.1 to 10% (w/w); ii) Employing a wash buffer without a solvent and/or non-ionic detergent; iii) Employing a second wash buffer containing ethylene glycol and/or lysine/arginine ranging of from 5 to 30 % (w/w) of ethylene glycol and of from 0.2 to 1.5 M lysine/arginine; iv) Employing a third wash buffer containing sodium chloride in a concentration ranging of from 0.5 to 4 M, in particular of from 0.5 to 1.5 M; - followed by elution of the target protein.
An optical communication system comprising: a transmitter arranged to receive an input optical signal from an optical source and arranged to perform mode selection so that an output signal from said transmitter includes a specific set of fiber modes that are allowed to pass into a multimode fiber; and a receiver including a mode filter, the receiver arranged to optically filter an output signal from the multimode fiber and to pass the filtered output to a detector. a transmitter arranged to receive an input optical signal from an optical source and arranged to perform mode selection so that an output signal from said transmitter includes a specific set of fiber modes that are allowed to pass into a multimode fiber; and a receiver including a mode filter, the receiver arranged to optically filter an output signal from the multimode fiber and to pass the filtered output to a detector.
A support structure for a heating element coil interlocking adjacent loops of the coil so that they are retained in a collinear and concentric arrangement while allowing the loops of the coil to move freely relative to a central axis in unison, the support structure comprising: a plurality of vertical support column assemblies, each positioned around a circumference of the heating element coil; wherein the vertical support column includes of a plurality of individual spacers having a pitch, the vertical support column residing at least partially inside a vertical channel, wherein a pocket formed by adjacent spacers and in which a loop of the coils is enclosed is oversized relative to a cross-section of the coil to allow said movement of the loops of the coil, and wherein the vertical support column moves slideably within the vertical channel in a radial direction relative to the central axis while cooperation of mating features (32a, 32b) on adjacent spacers are maintained. a plurality of vertical support column assemblies, each positioned around a circumference of the heating element coil; wherein the vertical support column includes of a plurality of individual spacers having a pitch, the vertical support column residing at least partially inside a vertical channel, wherein a pocket formed by adjacent spacers and in which a loop of the coils is enclosed is oversized relative to a cross-section of the coil to allow said movement of the loops of the coil, and wherein the vertical support column moves slideably within the vertical channel in a radial direction relative to the central axis while cooperation of mating features (32a, 32b) on adjacent spacers are maintained.
Surgical implant adapted for repairing a tissue or muscle wall defect, comprising an areal, flexible basic structure (2; 22; 32) comprising a mesh which defines a primary region (4; 24; 34) and at least one arm (6; 6"; 26; 26'; 36) starting from the primary region (4; 24; 34) and having a free end (10; 28) and an end area (11; 29; 39) extending up to the free end (10; 28), characterized in that the arm (6; 6"; 26; 26'; 36) is folded back and fixed, in its end area (11; 29; 39), to the primary region (4; 24; 34) of the basic structure (2; 22; 32) to form a looped three dimensional structure for filling a tissue or muscle wall defect to be repaired by the implant.
A hermaphroditic electrical connector, comprising: an insulating body comprising at least one installation wall and a plurality of openings on the installation wall, the body being symmetrical about a longitudinal axis; wherein the body comprises a rectangular base, two installation walls coupled to two opposing sides of the base and inclined from the base, and two connecting walls coupled to the other two opposing sides of the base and the two installation walls to form a recess on the base; wherein the installation walls have an inner surface and an outer surface; and a plurality of conductive contactors, each of the plurality of contactors having the same shape and being coupled to the body at the plurality of openings, each comprising at least a pair of a spring portion and a receiving portion, such that: at least the spring portion is configured to detachably connect to the receiving portion of a duplicate electrical connector moving towards the inner surface of the installation wall, while the receiving portion within the pair is configured to detachably connect to the spring portion of a further duplicate hermaphroditic electrical connector moving towards the outer surface of the installation wall opposite to the inner surface. an insulating body comprising at least one installation wall and a plurality of openings on the installation wall, the body being symmetrical about a longitudinal axis; wherein the body comprises a rectangular base, two installation walls coupled to two opposing sides of the base and inclined from the base, and two connecting walls coupled to the other two opposing sides of the base and the two installation walls to form a recess on the base; wherein the installation walls have an inner surface and an outer surface; and a plurality of conductive contactors, each of the plurality of contactors having the same shape and being coupled to the body at the plurality of openings, each comprising at least a pair of a spring portion and a receiving portion, such that: at least the spring portion is configured to detachably connect to the receiving portion of a duplicate electrical connector moving towards the inner surface of the installation wall, while the receiving portion within the pair is configured to detachably connect to the spring portion of a further duplicate hermaphroditic electrical connector moving towards the outer surface of the installation wall opposite to the inner surface.
A work vehicle comprising a driver's cabin, a main engine and main engine gearbox, and a secondary gearbox other than the main engine gearbox, said secondary gearbox comprising a lubricant, the work vehicle further comprising a main engine cooling circuit for circulating an engine coolant, wherein the work vehicle further comprises: • a cooling circuit for the lubricant of the secondary gearbox, • a heat exchanger configured for heat exchange between the engine coolant and the lubricant of the secondary gearbox flowing in the lubricant cooling circuit, characterized in that the main engine cooling circuit comprises at least one sub-portion comprising a radiator for heating the cabin, the heat exchanger being configured to receive at least a portion of the engine coolant flow flowing in the sub-portion of the main engine cooling circuit. • a cooling circuit for the lubricant of the secondary gearbox, • a heat exchanger configured for heat exchange between the engine coolant and the lubricant of the secondary gearbox flowing in the lubricant cooling circuit, characterized in that the main engine cooling circuit comprises at least one sub-portion comprising a radiator for heating the cabin, the heat exchanger being configured to receive at least a portion of the engine coolant flow flowing in the sub-portion of the main engine cooling circuit.
A monohydroxysilane polysulfide, of formula: (R 1) 2 Si-CH 2 -(R 2)CH-Z-S x -Z-HC(R 2) -CH 2 -Si(R 1) 2, in which: each R 1 represent a monovalent hydrocarbon group having from 1 to 18 carbon atoms and can be the same or different from one another, each R 2 represents a monovalent hydrocarbon group having from 1 to 4 carbon atoms and can be the same or different from one another, each Z represents a divalent hydrocarbon bonding group comprising from 1 to 16 carbon atoms and can be the same or different from one another, and x is an integral or fractional number greater than or equal to 2. each R 1 represent a monovalent hydrocarbon group having from 1 to 18 carbon atoms and can be the same or different from one another, each R 2 represents a monovalent hydrocarbon group having from 1 to 4 carbon atoms and can be the same or different from one another, each Z represents a divalent hydrocarbon bonding group comprising from 1 to 16 carbon atoms and can be the same or different from one another, and x is an integral or fractional number greater than or equal to 2.
A pharmaceutical composition comprising (a) a cyclopolysaccharide, and (b) a compound of Formula in which R 1 and R 2 independently, is H, alkyl, alkenyl, alkynyl, cycloalkyl, heterocycloalkyl, halo, -C=NH, amine, cyano, hydroxy, or alkoxy, or a pharmaceutically acceptable salt thereof: wherein m is 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, or 16; and X 1 is halo or OSO 2 R c, in which R c is alkyl, alkenyl, or alkynyl. wherein m is 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, or 16; and X 1 is halo or OSO 2 R c, in which R c is alkyl, alkenyl, or alkynyl. m is 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, or 16; and X 1 is halo or OSO 2 R c, in which R c is alkyl, alkenyl, or alkynyl.
A device for processing a carcass-part of slaughtered poultry in a processing line, which carcass-part is supported on a carrier that is movable in said processing line and comprises wing-joints, coracoids, a wishbone embodied with two legs (9', 9") that merge into each other at an acute angle in a wishbone head, a keelbone, at least one membrana and/or ligament that connects at least to the wishbone, and naturally present meat including inner and outer fillets, which device comprises a tool (12, 15, 16) for cutting the membrana and removing of said wishbone from the carcass-part, which tool (12, 15, 16) comprises a primary knife and two secondary knifes (15, 16) arranged on opposite sides of said primary knife to disconnect the wishbone from the at least one membrana and/or ligament while retaining the naturally present meat on the carcass-part, characterized in that said tool (12, 15, 16) further comprises a tertiary knife positioned or positionable adjacent to the two secondary knifes (15, 16) on a side of the secondary knifes opposite to the side where the primary knife is positioned or positionable so as to define a cage for trapping at least part of the wishbone in said cage delimited by the primary knife, the two secondary knifes (15, 16) and the tertiary knife.
A coating system comprising I. a primer coating composition comprising a. a binder component PA that contains primary amine functionality blocked with a ketone or aldehyde, preferably a ketone, b. a binder component PB that contains acetoacetate or acetoacetamide, preferably acetoacetate-, functional groups, which components PA and PB form an organic binder network in a cured primer coating and II. a RMA crosslinkable coating composition comprising, a) a component A with at least two acidic protons C-H in activated methylene or methine groups, b) a component B with at least two activated unsaturated C=C groups, c) a catalyst C for catalyzing the RMA crosslinking reaction between components A and B, d) preferably a reactivity moderator D which RMA components A and B form an organic binder network in a cured RMA crosslinked coating I. a primer coating composition comprising a. a binder component PA that contains primary amine functionality blocked with a ketone or aldehyde, preferably a ketone, b. a binder component PB that contains acetoacetate or acetoacetamide, preferably acetoacetate-, functional groups, which components PA and PB form an organic binder network in a cured primer coating and a. a binder component PA that contains primary amine functionality blocked with a ketone or aldehyde, preferably a ketone, b. a binder component PB that contains acetoacetate or acetoacetamide, preferably acetoacetate-, functional groups, which components PA and PB form an organic binder network in a cured primer coating and II. a RMA crosslinkable coating composition comprising, a) a component A with at least two acidic protons C-H in activated methylene or methine groups, b) a component B with at least two activated unsaturated C=C groups, c) a catalyst C for catalyzing the RMA crosslinking reaction between components A and B, d) preferably a reactivity moderator D which RMA components A and B form an organic binder network in a cured RMA crosslinked coating a) a component A with at least two acidic protons C-H in activated methylene or methine groups, b) a component B with at least two activated unsaturated C=C groups, c) a catalyst C for catalyzing the RMA crosslinking reaction between components A and B, d) preferably a reactivity moderator D which RMA components A and B form an organic binder network in a cured RMA crosslinked coating