mhurhangee/ep-ind-claims huggingface dataset:
A dye construct for use in a method of diagnosing inflammation by imaging activated neutrophil cells in vivo using confocal endoscopy, the dye construct having any one of structures to: wherein: AA of is any amino acid and n is from 0 to 30; n of is a peptide sequence which is recognised by the enzyme neutrophil elastase; Q* is a dark quencher; R 1 is: *F is carboxyfluorescein, or rhodamine, wherein the dye construct, prior to activated neutrophil internalisation, displays substantially no detectable or only a low amount of fluorescence, but upon activated neutrophil internalisation displays an increase in fluorescence by a factor of 1.2 or more as compared to any fluorescence which is observed outside of the activated neutrophil using confocal endoscopy. AA of is any amino acid and n is from 0 to 30; n of is a peptide sequence which is recognised by the enzyme neutrophil elastase; Q* is a dark quencher; R 1 is: *F is carboxyfluorescein, or rhodamine, wherein the dye construct, prior to activated neutrophil internalisation, displays substantially no detectable or only a low amount of fluorescence, but upon activated neutrophil internalisation displays an increase in fluorescence by a factor of 1.2 or more as compared to any fluorescence which is observed outside of the activated neutrophil using confocal endoscopy.
A photovoltaic cell, comprising: a substrate having a surface with a marked region and a non-marked region, the marked region comprising a first texture structure constituting an identification code pattern for marking product information of the photovoltaic cell; wherein the first texture structure formed in the marked region includes at least one first protrusion structure and at least one second protrusion structure, and wherein each first protrusion structure includes a truncated pyramid having a recessed top surface recessing toward a bottom surface of the truncated pyramid, and each second protrusion structure includes a pyramid structure, wherein the recessed top surface of each truncated pyramid is lower than a top end of at least one second protrusion structure adjacent to the truncated pyramid in a direction toward the substrate; and a second texture structure formed in the non-marked region, wherein the second texture structure includes at least one third protrusion structure, and each third protrusion structure includes a pyramid structure. a substrate having a surface with a marked region and a non-marked region, the marked region comprising a first texture structure constituting an identification code pattern for marking product information of the photovoltaic cell; wherein the first texture structure formed in the marked region includes at least one first protrusion structure and at least one second protrusion structure, and wherein each first protrusion structure includes a truncated pyramid having a recessed top surface recessing toward a bottom surface of the truncated pyramid, and each second protrusion structure includes a pyramid structure, wherein the recessed top surface of each truncated pyramid is lower than a top end of at least one second protrusion structure adjacent to the truncated pyramid in a direction toward the substrate; and a second texture structure formed in the non-marked region, wherein the second texture structure includes at least one third protrusion structure, and each third protrusion structure includes a pyramid structure.
A method of making a polyisobutylene polymer in a recirculating loop reactor with one or more reaction tubes in contact with a heat transfer medium comprising: (a) providing a feed mixture consisting essentially of polymerizable monomer and catalyst to a residual reactor stream at a feed rate to form a reaction mixture, the reaction mixture containing less than 5% by weight diluent components; (b) recirculating the reaction mixture in the one or more reaction tubes of the loop reactor at a recirculation rate greater than the feed rate utilizing a recirculating pump operating at a pressure differential, delta P, corresponding to a recirculating flow; (c) polymerizing the reaction mixture in the one or more tubes of the loop reactor to convert the feed mixture to polyisobutylene polymer while cooling the one or more tubes of the loop reactor with the heat transfer medium; and (d) withdrawing polyisobutylene polymer from the loop reactor, with the further proviso that either (i) delta P and polymerization reaction are controlled to provide a linear velocity of the reaction mixture of at least 3 m/s (10 ft/sec) in the one or more reaction tubes of the loop reactor or the recirculating pump operating at a pressure differential, delta P, of from 241 kPa to 552 kPa (35 psi to 80 psi) and controlling the pressure delta and polymerization reaction of steps (b) and (c) to provide a recirculation ratio of the recirculation rate to the feed rate of at least 30:1. (a) providing a feed mixture consisting essentially of polymerizable monomer and catalyst to a residual reactor stream at a feed rate to form a reaction mixture, the reaction mixture containing less than 5% by weight diluent components; (b) recirculating the reaction mixture in the one or more reaction tubes of the loop reactor at a recirculation rate greater than the feed rate utilizing a recirculating pump operating at a pressure differential, delta P, corresponding to a recirculating flow; (c) polymerizing the reaction mixture in the one or more tubes of the loop reactor to convert the feed mixture to polyisobutylene polymer while cooling the one or more tubes of the loop reactor with the heat transfer medium; and (d) withdrawing polyisobutylene polymer from the loop reactor,
A jewelry item (10, 10') comprising a support and a plurality of jewelry stones (12, 12'), constituted by cut stones, each comprising a visible front part, called a crown, and a back part, called a pavilion, arranged behind said crown and delimited relative to said crown by an intermediate part called a girdle, said cut stones each being coupled via at least four fastening studs (13, 13') to said support, and said support comprising, for each of said cut stones, at least four recesses that delimit a mounting zone for each of said cut stones (12, 12') and that are arranged to respectively receive a lower part of said fastening studs (13, 13'), said fastening studs (13, 13') further comprising an upper part arranged to maintain and/or crimp each of said cut stones, wherein each of said cut stones (12, 12') is suspended above said support by said fastening studs (13, 13') without visible direct contact with said support, and wherein one of said fastening studs (13, 13') is common to two of said adjacent cut stones (12, 12').
A heat exchanger comprising: a plurality of integrally formed contiguous unit cells defining a three-dimensional lattice of repeating unit cells, the plurality of integrally formed contiguous unit cells comprising a plurality of pathway cells having a solid domain comprising: an interior pathway-cell surface contiguously defining a first furcated fluid domain for a first fluid to flow across the plurality of pathway cells following a first furcated serpentine flow passage from a first-fluid inlet region to a first-fluid outlet region; and an exterior pathway-cell surface contiguously defining a second furcated fluid domain for a second fluid to flow across the plurality of pathway cells following a second furcated serpentine flow passage from a second-fluid inlet region to a second-fluid outlet region; wherein the plurality of integrally formed contiguous unit cells additionally comprises a plurality of partial unit cells conforming to the solid domain, the plurality of partial unit cells introducing a partial phase-shift to the three-dimensional lattice of repeating unit cells such that the first fluid domain comprises a first rounded unit cell entrance and the second fluid domain comprises a second rounded unit cell entrance. an interior pathway-cell surface contiguously defining a first furcated fluid domain for a first fluid to flow across the plurality of pathway cells following a first furcated serpentine flow passage from a first-fluid inlet region to a first-fluid outlet region; and an exterior pathway-cell surface contiguously defining a second furcated fluid domain for a second fluid to flow across the plurality of pathway cells following a second furcated serpentine flow passage from a second-fluid inlet region to a second-fluid outlet region; wherein the plurality of integrally formed contiguous unit cells additionally comprises a plurality of partial unit cells conforming to the solid domain, the plurality of partial unit cells introducing a partial phase-shift to the three-dimensional lattice of repeating unit cells such that the first fluid domain comprises a first rounded unit cell entrance and the second fluid domain comprises a second rounded unit cell entrance.
A transparent glass substrate provided with a multi-layered coating, the coating comprising the following in an order from the substrate: a first dielectric film including one or more dielectric layers, a first metallic lower protective layer, a first metallic layer having an infrared reflection characteristic, a first metallic upper protective layer, a second dielectric film including two or more dielectric layers, a second metallic lower protective layer, a second metallic layer having an infrared reflection characteristic, a second metallic upper protective layer, and a third dielectric film including one or more dielectric layers, wherein the dielectric layers included in each of the dielectric film,, include a metal oxide, a metal nitride, or a metal oxynitride, wherein the metal is one or more selected from the group consisting of Si, Zn, Nb, and Sn, and Zr may be included as a dopant, the metal protective layers,,, include one or more metals selected from the group consisting of Ti, Ni, Cr, and Nb, the metallic layers and are composed of silver (Ag) or a silver (Ag)-containing metal alloy, characterize in that the normal emissivity is 2.0 % or less, the coated surface reflectance is 6 % or less, and the difference between the coated surface reflectance and the uncoated surface reflectance is 21 % or more. a first dielectric film including one or more dielectric layers, a first metallic lower protective layer, a first metallic layer having an infrared reflection characteristic, a first metallic upper protective layer, a second dielectric film including two or more dielectric layers, a second metallic lower protective layer, a second metallic layer having an infrared reflection characteristic, a second metallic upper protective layer, and a third dielectric film including one or more dielectric layers, the dielectric layers included in each of the dielectric film,, include a metal oxide, a metal nitride, or a metal oxynitride, wherein the metal is one or more selected from the group consisting of Si, Zn, Nb, and Sn, and Zr may be included as a dopant, the metal protective layers,,, include one or more metals selected from the group consisting of Ti, Ni, Cr, and Nb, the metallic layers and are composed of silver (Ag) or a silver (Ag)-containing metal alloy, characterize in that the normal emissivity is 2.0 % or less, the coated surface reflectance is 6 % or less, and the difference between the coated surface reflectance and the uncoated surface reflectance is 21 % or more.
Method for operating a disinfection device comprising at least one UV-LED, comprising at least the following steps: - powering the at least one UV LED with a supply current, - providing a time signal, - operating the disinfecting device using the acquired time signal, - storing data in a control unit of the disinfection device, wherein the data reproduces at least one quantity of the light emitted by the at least one UV LED as a function of a supply current supplying the at least one UV LED. - powering the at least one UV LED with a supply current, - providing a time signal, - operating the disinfecting device using the acquired time signal, - storing data in a control unit of the disinfection device, wherein the data reproduces at least one quantity of the light emitted by the at least one UV LED as a function of a supply current supplying the at least one UV LED.
A method for controlling an exhaust flow in an Exhaust Aftertreatment System, EATS, of a vehicle, wherein the EATS comprises a NO x sensor and a Selective Catalytic Reduction, SCR, unit, the method comprising: monitoring a NO x sensor output parameter from the NO x sensor; determining if the NO x sensor output parameter is below a limit; when it has been determined that the NO x sensor output parameter is below the limit, determining that a first part of the exhaust flow should bypass at least a first area of the SCR unit and that a second part of the exhaust flow should be inputted to at least the first area of the SCR unit; initiating that the first part of the exhaust flow is bypassed at least the first area of the SCR unit and that the second part of the exhaust flow is inputted to at least the first area of the SCR unit; when it has been determined that the first part of the exhaust flow should bypass at least the first area of the SCR unit and that the second part of the exhaust flow should be inputted to at least the first area of the SCR unit, determining that reductant should be added to the second part of the exhaust flow before being inputted to at least the first area of the SCR unit; and initiating addition of the reductant into the second part of the exhaust flow, characterised in that no reductant is added to the first part of the exhaust flow, and wherein the only NO x sensor is located at a point after the first part and the second part of the exhaust flow are rejoined. monitoring a NO x sensor output parameter from the NO x sensor; determining if the NO x sensor output parameter is below a limit; when it has been determined that the NO x sensor output parameter is below the limit, determining that a first part of the exhaust flow should bypass at least a first area of the SCR unit and that a second part of the exhaust flow should be inputted to at least the first area of the SCR unit; initiating that the first part of the exhaust flow is bypassed at least the first area of the SCR unit and that the second part of the exhaust flow is inputted to at least the first area of the SCR unit; when it has been determined that the first part of the exhaust flow should bypass at least the first area of the SCR unit and that the second part of the exhaust flow should be inputted to at least the first area of the SCR unit, determining that reductant should be added to the second part of the exhaust flow before being inputted to at least the first area of the SCR unit; and initiating addition of the reductant into the second part of the exhaust flow, characterised in that no reductant is added to the first part of the exhaust flow, and wherein the only NO x sensor is located at a point after the first part and the second part of the exhaust flow are rejoined.
An ignition unit for an internal combustion engine comprising a circuit case for receiving an ignition control circuit at a low voltage side end portion of an ignition coil having a cylindrical shape, wherein the ignition unit comprises: a connector for connecting to an outside portion at a side face of said circuit case, and a noise prevention condenser installed in a space of said circuit case formed between said connector and said ignition control circuit, said noise prevention condenser is connected electrically to said ignition control circuit at said space; wherein plural terminals (31, 33, 35, 72) are provided to said connector, and said noise prevention condenser is connected by lining across two terminals among said plural terminals. a connector for connecting to an outside portion at a side face of said circuit case, and a noise prevention condenser installed in a space of said circuit case formed between said connector and said ignition control circuit, said noise prevention condenser is connected electrically to said ignition control circuit at said space; wherein plural terminals (31, 33, 35, 72) are provided to said connector, and said noise prevention condenser is connected by lining across two terminals among said plural terminals.
A compound of Formula or a pharmaceutically acceptable salt thereof, for use in a method of treating facioscapulohumeral muscular dystrophy (FSHD) in a subject in need thereof, wherein Formula is selected from the group consisting of: thereby treating facioscapulohumeral muscular dystrophy (FSHD) in the subject in need thereof.
Leg assembly for a table and notably for a desk including: - a base resting on the ground; - a substantially shaft vertical attached to the base; - an upper sole surmounting the shaft and provided for supporting a desk top; - hooking means positioned at a free end of the sole localized in the vicinity of an edge of the desk top characterized in that said hooking means consist in a hook placed in the extension of the sole. - a base resting on the ground; - a substantially shaft vertical attached to the base; - an upper sole surmounting the shaft and provided for supporting a desk top; - hooking means positioned at a free end of the sole localized in the vicinity of an edge of the desk top
A method of decoding video information, the method comprising: receiving a first bitstream comprising one or more enhancement layers according to a scalable extension of HEVC; determining whether a base layer for the one or more enhancement layers is included in the first bitstream based upon a value of a flag, wherein the base layer is not coded according to a scalable extension of HEVC; determining, based upon whether the base layer is included in the first bitstream, whether or not to process a syntax element direct_dependency_type[i] having a value for each enhancement layer [i] that indicates whether the base layer may be used for one or more of sample prediction and motion prediction of the enhancement layer [i]; in response to the base layer not being included in the first bitstream, inferring the value of the syntax element for all values of [i] without processing the syntax element, wherein the syntax element is inferred to have the same value for all values of [i] based on the determination that the base layer is not included in the first bitstream, and wherein the syntax element having the inferred value for an enhancement layer [i] indicates that the base layer may not be used for motion prediction of the enhancement layer [i]; and decoding each enhancement layer [i] using the inferred value of the syntax element for the enhancement layer [i]. receiving a first bitstream comprising one or more enhancement layers according to a scalable extension of HEVC; determining whether a base layer for the one or more enhancement layers is included in the first bitstream based upon a value of a flag, wherein the base layer is not coded according to a scalable extension of HEVC; determining, based upon whether the base layer is included in the first bitstream, whether or not to process a syntax element direct_dependency_type[i] having a value for each enhancement layer [i] that indicates whether the base layer may be used for one or more of sample prediction and motion prediction of the enhancement layer [i]; in response to the base layer not being included in the first bitstream, inferring the value of the syntax element for all values of [i] without processing the syntax element, wherein the syntax element is inferred to have the same value for all values of [i] based on the determination that the base layer is not included in the first bitstream, and wherein the syntax element having the inferred value for an enhancement layer [i] indicates that the base layer may not be used for motion prediction of the enhancement layer [i]; and decoding each enhancement layer [i] using the inferred value of the syntax element for the enhancement layer [i].
An electro-optic lens comprising: a substantially transparent substrate; a plurality of concentric electrodes (305a-305e) disposed on a surface of the first substantially transparent substrate; an insulating material disposed on a portion of the surface of the substantially transparent substrate between each electrode in the plurality of concentric electrodes; and curved resistive bridge segments (352a-352d) having different radii of curvature and connecting concentric electrodes in the plurality of concentric electrodes. a substantially transparent substrate; a plurality of concentric electrodes (305a-305e) disposed on a surface of the first substantially transparent substrate; an insulating material disposed on a portion of the surface of the substantially transparent substrate between each electrode in the plurality of concentric electrodes; and curved resistive bridge segments (352a-352d) having different radii of curvature and connecting concentric electrodes in the plurality of concentric electrodes.
Method of producing thermoplastically shaped arrangements of plastics material foils, wherein a foil arrangement consisting of at least two layers (1, 2) is provided, wherein the foil arrangement is formed by bringing together a finished foil and a further foil by extrusion coating, extrusion lamination, coextrusion or the like and that a printing is provided at least partly between the two layers and/or on one of the two layers and that the foil layers (1, 2) are connected together in a subsequent thermoplastic deformation, wherein separated-off residues of the deep-drawn material can be readily separated from one another again and supplied separately for recycling, characterised in that a sealing layer, particularly a sealing lacquer, is provided at least partly between the layers and enables subsequent separation of the layers by repeated heating and thus separate recycling of the packaging formed by the thermoplastic deformation.
An article of footwear comprising: a shell including an upper and a sole, the upper including a plurality of passages (680, 684, 690, 694) formed therethrough; and a bootie including a plurality of ball control elements (272, 274, 276, 280, 284, 290, 294) extending therefrom and received by respective ones of the plurality of passages (680, 684, 690, 694) of the upper when the bootie is received by the upper, the outer surfaces of the plurality of ball control elements (272, 274, 276, 280, 284, 290, 294) extending from an outer surface of the upper when the bootie is received by the upper, characterized in that the outer surfaces of the plurality of ball control elements (290, 294) extend from an outer surface of the upper in a toe or forefoot region of the upper. a shell including an upper and a sole, the upper including a plurality of passages (680, 684, 690, 694) formed therethrough; and a bootie including a plurality of ball control elements (272, 274, 276, 280, 284, 290, 294) extending therefrom and received by respective ones of the plurality of passages (680, 684, 690, 694) of the upper when the bootie is received by the upper, the outer surfaces of the plurality of ball control elements (272, 274, 276, 280, 284, 290, 294) extending from an outer surface of the upper when the bootie is received by the upper,
A laundry liquid laundry detergent composition comprising: (a) from 0.0001 to 0.01 wt% of a blue or violet shading dye; (b) from 1 to 70 wt% of a surfactant, wherein the surfactant; is a mixture of anionic with nonlonic detergent active materials; (c) from 0.1 to 30 wit% of a sulphonated aromatic formaldehyde polycondensate; and, (d) the remainder of the composition being diluents and adjuncts to 100 wt %. (a) from 0.0001 to 0.01 wt% of a blue or violet shading dye; (b) from 1 to 70 wt% of a surfactant, wherein the surfactant; is a mixture of anionic with nonlonic detergent active materials; (c) from 0.1 to 30 wit% of a sulphonated aromatic formaldehyde polycondensate; and, (d) the remainder of the composition being diluents and adjuncts to 100 wt %.