mhurhangee/ep-ind-claims huggingface dataset:
Flap for a motor vehicle, having an assembly made of an outer part which comprises an outer surface facing outwards in the fitted state and which is made of a fibre composite plastic, and an opposite inner part manufactured separately from the outer part, wherein the flap is designed as a bonnet, wherein the inner part is manufactured from metal, in particular aluminium, characterised in that the outer part, applied to the outer surface and/or integrated into the latter, has at least one solar cell section having a solar cell, wherein the solar cell section is applied as a film to the fibre composite plastic of the outer part.
A hollow fiber membrane-based blood purification apparatus comprising a hollow fiber membrane containing a polysulfone-based resin, a hydrophilic polymer, and a fat-soluble vitamin, the hollow fiber membrane-based blood purification apparatus being radiation-sterilized, wherein the amount of the fat-soluble vitamin on the surface of the hollow fiber membrane is 1.5 mg or more and 23 mg or less, based on 1 g of the hollow fiber membrane, wherein the amount of the fat-soluble vitamin is determined as described in the description, wherein the surface of the hollow fiber membrane includes the inner and outer surfaces of the hollow fiber membrane, and the surface of the hollow fiber membrane is covered with a mixture of water and a polyhydric alcohol at a content of 60 % or more, based on the dry weight of the hollow fiber membrane, to the saturated liquid content or less, characterized in that the weight ratio of the polyhydric alcohol to water in the mixture is 1.3 times or more and 4.8 times or less.
An immunoassay for quantifying the amount of anti-anti-C5 antibody antibody, which anti-anti-C5 antibody antibody can specifically bind to an anti-C5 antibody, which anti-C5 antibody can specifically bind to human C5, in a serum or plasma sample with reduced human C5 interference comprising the following steps: a) incubating the serum or plasma sample at a pH value that is in the range of pH 4.7 to pH 5.5, and optionally removing formed precipitate after the incubation, b) incubating the serum or plasma sample obtained in step a) at a pH value of about 2, and optionally centrifuging the incubated sample to remove formed precipitate, c) adjusting the pH value to about 7.4, adding capture antibody conjugated to a first member of a binding pair and tracer antibody conjugated to a detectable label to the serum or plasma sample obtained in step b) and incubating the mixture to form a capture antibody-anti-drug antibody-tracer antibody-complex, d) quantifying the complex formed in step c) and thereby quantifying the amount of anti-drug antibody in the serum or plasma sample. a) incubating the serum or plasma sample at a pH value that is in the range of pH 4.7 to pH 5.5, and optionally removing formed precipitate after the incubation, b) incubating the serum or plasma sample obtained in step a) at a pH value of about 2, and optionally centrifuging the incubated sample to remove formed precipitate, c) adjusting the pH value to about 7.4, adding capture antibody conjugated to a first member of a binding pair and tracer antibody conjugated to a detectable label to the serum or plasma sample obtained in step b) and incubating the mixture to form a capture antibody-anti-drug antibody-tracer antibody-complex, d) quantifying the complex formed in step c) and thereby quantifying the amount of anti-drug antibody in the serum or plasma sample.
A failure recovery method for a virtual network, comprising: determining that a physical link (B-G) in a physical network fails, wherein the failed physical link (B-G) corresponds to at least one virtual link (vNE1-vNE2) in the virtual network; and mapping the at least one virtual link (vNE1-vNE2) corresponding to the failed physical link (B-G) to a non-failed physical resource (B-A-F) in the physical network, wherein the non-failed physical resource satisfies a transmission bandwidth of each of the at least one virtual link; wherein after the mapping the at least one virtual link corresponding to the failed physical link to the non-failed physical resource in the physical network, the method comprises: determining a virtual connection (vNE1-vNE2- vNE3) exists on the at least one virtual link (vNE1-vNE2) corresponding to the failed physical link (B-G); and mapping the virtual connection (vNE1-vNE2-vNE3) into a new physical connection (B-A-F-D) established by the non-failed physical resource (B-A-F), wherein the new physical connection satisfies a transmission bandwidth of the virtual connection. determining that a physical link (B-G) in a physical network fails, wherein the failed physical link (B-G) corresponds to at least one virtual link (vNE1-vNE2) in the virtual network; and mapping the at least one virtual link (vNE1-vNE2) corresponding to the failed physical link (B-G) to a non-failed physical resource (B-A-F) in the physical network, wherein the non-failed physical resource satisfies a transmission bandwidth of each of the at least one virtual link; wherein after the mapping the at least one virtual link corresponding to the failed physical link to the non-failed physical resource in the physical network, the method comprises: determining a virtual connection (vNE1-vNE2- vNE3) exists on the at least one virtual link (vNE1-vNE2) corresponding to the failed physical link (B-G); and mapping the virtual connection (vNE1-vNE2-vNE3) into a new physical connection (B-A-F-D) established by the non-failed physical resource (B-A-F), wherein the new physical connection satisfies a transmission bandwidth of the virtual connection. determining a virtual connection (vNE1-vNE2- vNE3) exists on the at least one virtual link (vNE1-vNE2) corresponding to the failed physical link (B-G); and mapping the virtual connection (vNE1-vNE2-vNE3) into a new physical connection (B-A-F-D) established by the non-failed physical resource (B-A-F), wherein the new physical connection satisfies a transmission bandwidth of the virtual connection.
A lighting device (100, 300, 500, 600) comprising: at least one electrically activated emitter (140, 340, 540, 640); at least one lumiphoric material (101, 301) spatially segregated from the at least one electrically activated emitter (140, 340, 540, 640), and arranged to receive at least a portion of emissions from the at least one electrically activated emitter (140, 340, 540, 640); and an optical element (110, 310, 540, 640), selected from the group consisting of optical filters and optical reflectors, arranged between the at least one electrically activated emitter (140, 340, 540, 640) and the at least one lumiphoric material (101, 301, 501, 601) to enable transmission of at least a portion of emissions from the at least one electrically activated emitter (140, 340, 540, 640), wherein the optical element (110, 310, 510, 610) comprises an inner face, an outer face and at least one peripheral edge (160, 365) bounding the inner face and the outer face, wherein at least a portion of the inner face of the optical element (110, 310, 510, 610) is curved; characterized in that at least a portion of the outer face of the optical element (110, 310, 510, 610) is curved; and in that the lighting device (100, 300, 500, 600) further comprises a reflective material (120, 370, 520, 620) disposed proximate to the at least one peripheral edge (160, 365) to prevent converted light from leaking from a side of the optical element (110, 310, 540, 640) or from reflecting back on the electrically activated emitter (140, 340, 540, 640). at least one electrically activated emitter (140, 340, 540, 640); at least one lumiphoric material (101, 301) spatially segregated from the at least one electrically activated emitter (140, 340, 540, 640), and arranged to receive at least a portion of emissions from the at least one electrically activated emitter (140, 340, 540, 640); and an optical element (110, 310, 540, 640), selected from the group consisting of optical filters and optical reflectors, arranged between the at least one electrically activated emitter (140, 340, 540, 640) and the at least one lumiphoric material (101, 301, 501, 601) to enable transmission of at least a portion of emissions from the at least one electrically activated emitter (140, 340, 540, 640), wherein the optical element (110, 310, 510, 610) comprises an inner face, an outer face and at least one peripheral edge (160, 365) bounding the inner face and the outer face, wherein at least a portion of the inner face of the optical element (110, 310, 510, 610) is curved; characterized in that at least a portion of the outer face of the optical element (110, 310, 510, 610) is curved; and in that the lighting device (100, 300, 500, 600) further comprises a reflective material (120, 370, 520, 620) disposed proximate to the at least one peripheral edge (160, 365) to prevent converted light from leaking from a side of the optical element (110, 310, 540, 640) or from reflecting back on the electrically activated emitter (140, 340, 540, 640).
An enhanced adjustment device for a spindle of a grinding machine for machining flat sheets applied to a motorization assembly used to motorize a grinding tool secured to the spindle slidable constrained to a support structure of said grinding machine by way of a guide to which said device is indirectly connected via a transmission shaft and an angular gear box coupled with said transmission shaft, the device being suitable for enabling/disabling an automatic/manual incremental displacement of said grinding tool with respect to an edge of a flat sheet for compensating for the wear of said tool, characterized in that it comprises a sleeve coaxially put on and slidable with respect to a shaft coupled with the transmission shaft of the guide, being automatically/manually operated, with respect to the shaft by means of a first wheel which couples with a second wheel of the transmission shaft, a container element or box and a motor secured to said container element or box and connected to the shaft rotatably arranged internally to said container element or box and driven into rotation by way of a further shaft arranged internally and coaxially to an axial cavity of the shaft, said shaft comprising at least one through opening formed on the lateral surface and the further shaft comprising at least one pocket formed on the outer lateral surface in correspondence with the through opening and developing in the thickness of said further shaft according to a radial direction, said through opening and pocket defining a seat for accommodating a sphere suitable for making said shaft rotationally integral with said further shaft, wherein in an automatic adjustment configuration, the sphere is positioned in the seat defined by the pocket of the further shaft and by the through opening of the shaft to make said shaft and further shaft driven into rotation by the motor integral with each other, and in that, in a manual adjustment configuration, the sleeve is made axially slide with respect to the shaft and is positioned with the a pocket circumferentially developing along a inner lateral surface of the sleeve in correspondence with the through opening to accommodate the sphere in said pocket and to disconnect said shaft from the further shaft.
Method for automated information based selective data provision by an identification device, comprising: - scanning informational data associated with a plurality of data records stored in a data storage to obtain filter information relating to said plurality of data records; - selecting at least one data record out of said plurality of data records, wherein said selecting of said data record is performed in accordance with said filter information and a predefined filter rule for identifying relevant data records; - configuring said at least one selected data record at said identification device; and - providing said at least one configured data record as an identification information by said identification device for being retrievable wirelessly by an external entity; wherein said selecting results in several selected data records, said method further comprising: - receiving an indication from said external entity, wherein said indication instructs said identification device to provide a next data record out of said several selected data record; and - configuring said next selected data record at said identification device; and - providing said next configured data record as said identification information by said identification device for being retrievable wirelessly by said external entity; wherein said indication is part of an anti-collision mechanism applicable with the identification device. - scanning informational data associated with a plurality of data records stored in a data storage to obtain filter information relating to said plurality of data records; - selecting at least one data record out of said plurality of data records, wherein said selecting of said data record is performed in accordance with said filter information and a predefined filter rule for identifying relevant data records; - configuring said at least one selected data record at said identification device; and - providing said at least one configured data record as an identification information by said identification device for being retrievable wirelessly by an external entity; - receiving an indication from said external entity, wherein said indication instructs said identification device to provide a next data record out of said several selected data record; and - configuring said next selected data record at said identification device; and - providing said next configured data record as said identification information by said identification device for being retrievable wirelessly by said external entity;
A gas turbine engine component comprising: an airfoil having pressure and suction side walls (86, 88) extending in a chord-wise direction between a leading edge and a trailing edge, the pressure and suction side walls (86, 88) extending in a radial direction between a platform and a tip to provide an exterior airfoil surface; a cooling passage arranged between the pressure and suction side walls (86, 88) having a first passage along the pressure side wall and a second passage along the suction side wall; the first passage configured to receive cooling air from a cooling air source, and the second passage configured to receive cooling air from the first passage near the tip; and a platform passage arranged in the platform, characterized in that the platform passage has a serpentine shape and is configured to purge the cooling air from the second passage aft of the trailing edge. an airfoil having pressure and suction side walls (86, 88) extending in a chord-wise direction between a leading edge and a trailing edge, the pressure and suction side walls (86, 88) extending in a radial direction between a platform and a tip to provide an exterior airfoil surface; a cooling passage arranged between the pressure and suction side walls (86, 88) having a first passage along the pressure side wall and a second passage along the suction side wall; the first passage configured to receive cooling air from a cooling air source, and the second passage configured to receive cooling air from the first passage near the tip; and a platform passage arranged in the platform,
A method of operating a polyolefin reactor, comprising: combining a catalyst with a diluent mixture in a polymerization reactor, wherein the diluent mixture comprises a diluent and an olefin monomer; operating the polymerization reactor above a critical pressure of the diluent mixture and below a critical temperature of the diluent mixture; and forming a slurry comprising polyolefin particles and the diluent mixture. combining a catalyst with a diluent mixture in a polymerization reactor, wherein the diluent mixture comprises a diluent and an olefin monomer; operating the polymerization reactor above a critical pressure of the diluent mixture and below a critical temperature of the diluent mixture; and forming a slurry comprising polyolefin particles and the diluent mixture.
A method for preparing genetically-modified T cells expressing chimeric antigen receptor, comprising the following steps to: a step of preparing non-proliferative cells which are obtained by stimulating a group of cells comprising T cells using an anti-CD3 antibody and an anti-CD28 antibody followed by a treatment for causing the cells to lose their proliferation capability; a step of obtaining genetically-modified T cells into which a target antigen-specific chimeric antigen receptor gene has been introduced using a transposon method; a step of mixing the non-proliferative cells prepared by step with the genetically-modified T cells obtained by step, and co-culturing the mixed cells; and a step of collecting the cells after culture, wherein the non-proliferative cells of step hold a viral peptide antigen, and are obtained by stimulating a group of cells comprising T cells using an anti-CD3 antibody and an anti-CD28 antibody followed by culturing in the presence of the viral peptide antigen and a treatment for causing the cells to lose their proliferation capability. a step of preparing non-proliferative cells which are obtained by stimulating a group of cells comprising T cells using an anti-CD3 antibody and an anti-CD28 antibody followed by a treatment for causing the cells to lose their proliferation capability; a step of obtaining genetically-modified T cells into which a target antigen-specific chimeric antigen receptor gene has been introduced using a transposon method; a step of mixing the non-proliferative cells prepared by step with the genetically-modified T cells obtained by step, and co-culturing the mixed cells; and a step of collecting the cells after culture,
A brewing module for an extraction apparatus, for example a coffee machine, for preparing portions of a beverage or another extraction product from an extraction material packaged in a capsule, comprising a first brewing module part and a second brewing module part which is movable relative thereto, wherein the first and the second brewing module part form a discharge device for discharging an extraction product from the capsule and an injector for introducing an extraction liquid into the in capsule, and a brewing chamber which at least partially surrounds the capsule during the brewing operation and which can be brought from an open into a closed state by movement of the second brewing module part relative to the first brewing module part, wherein the first and/or the second brewing module part has piercing points for piercing the capsule by puncturing a capsule wall, wherein a support element which, when the brewing chamber is in the open state, forms a base for the capsule in a support position and which, by closure of the brewing chamber, is movable away from the support position into an inoperative position, wherein the movement of the support element from the support position into the inoperative position takes place in a direction different from the direction of movement of the second brewing module part relative to the first brewing module part, and wherein the brewing module is designed in such a manner that, after insertion via a defined insertion position, the capsule rests on the support element and a support portion of the first brewing module part, said support element and support portion together forming a support which supports the center of gravity of the capsule, and wherein the support element interacts with the brewing module parts in such a manner that, when the brewing chamber is opened, said support element is moved back into the support position only when the brewing chamber is opened to a predetermined extent, wherein said extent is selected in such a manner that the brewing chamber is opened further when the support element moves into the support position during the opening operation than when the support element moves away from the support position during the closing operation.
A dry flue gas desulfurization system (10, 210, 310) comprising a sodium bicarbonate source (20, 220, 320), an injector (24, 224, 324) operable to inject a sorbent from the sodium bicarbonate source (20, 220, 320) into a duct (14, 214, 314) through which plant flue gas flows to a particulate collection device (16, 216, 316) for flue gas acid gas removal by the sorbent, wherein the sorbent is sodium bicarbonate, filters (28, 228, 328) within the particulate collection device (16, 216, 316) operable to collect spent sorbent from flue gas flowing therethrough, an alkali reactor (32, 232, 332) operable for reaction of spent sorbent, lime, water and air to produce sodium hydroxide and gypsum, and a carbon dioxide absorber (66, 266, 366) operable for reaction of sodium hydroxide with flue gas carbon dioxide to produce sorbent for injection, wherein the sodium bicarbonate source (20, 220, 320) comprises a particulate separator (80, 280, 380) configured to separate unreacted sodium hydroxide from sodium bicarbonate and a duct (82, 282, 382) configured to return unreacted sodium hydroxide to the carbon dioxide absorber (66, 266, 366). a sodium bicarbonate source (20, 220, 320), an injector (24, 224, 324) operable to inject a sorbent from the sodium bicarbonate source (20, 220, 320) into a duct (14, 214, 314) through which plant flue gas flows to a particulate collection device (16, 216, 316) for flue gas acid gas removal by the sorbent, wherein the sorbent is sodium bicarbonate, filters (28, 228, 328) within the particulate collection device (16, 216, 316) operable to collect spent sorbent from flue gas flowing therethrough, an alkali reactor (32, 232, 332) operable for reaction of spent sorbent, lime, water and air to produce sodium hydroxide and gypsum, and a carbon dioxide absorber (66, 266, 366) operable for reaction of sodium hydroxide with flue gas carbon dioxide to produce sorbent for injection, wherein the sodium bicarbonate source (20, 220, 320) comprises a particulate separator (80, 280, 380) configured to separate unreacted sodium hydroxide from sodium bicarbonate and a duct (82, 282, 382) configured to return unreacted sodium hydroxide to the carbon dioxide absorber (66, 266, 366).
A ring-traveler system without liquid lubrication for a ring spinning machine, in which a plurality of circular recesses is formed on a sliding surface of a ring on which a traveler slides when the traveler travels, wherein in the ring-traveler system a depth of the recess is 0.5 to 8 μm, a diameter of the recess is 5 to 30 μm, and an area ratio of the recess is 5 to 16%, wherein the area ratio is a value represented by a percentage of the area of all the circular recesses in the area of the entire sliding surface of the ring on which the traveler slides, and a periodic structure is configured by arranging the circular recesses at predetermined intervals.