mhurhangee/ep-ind-claims huggingface dataset:
An aqueous composition having a pH of 6.0 and comprising (i) a non-fucosylated anti-BAFFR antibody wherein the antibody has a concentration of 150 mg/mL and wherein said anti-BAFFR antibody comprises a heavy chain region of SEQ ID NO: 9 and a light chain region of SEQ ID NO: 10, (ii) 220 mM sucrose as a stabilizer, (iii) 20 mM histidine as a buffering agent, and (iv) 0.04% polysorbate 20 as a surfactant. (i) a non-fucosylated anti-BAFFR antibody wherein the antibody has a concentration of 150 mg/mL and wherein said anti-BAFFR antibody comprises a heavy chain region of SEQ ID NO: 9 and a light chain region of SEQ ID NO: 10, (ii) 220 mM sucrose as a stabilizer, (iii) 20 mM histidine as a buffering agent, and (iv) 0.04% polysorbate 20 as a surfactant.
An in-situ melt process for creating a fiber resin composite overwrap, said in-situ melt process comprising the steps of: selecting a fiber tow; selecting a thermoplastic resin compatible with said selected fiber tow; preparing said fiber tow for impregnation by said selected thermoplastic resin; preparing said thermoplastic resin for impregnation into said fiber tow; impregnating said prepared thermoplastic resin into said prepared fiber tow in close proximity to a filament winding head, thereby creating a molten fiber towpreg; applying said molten fiber towpreg to a heated surface of a workpiece whereby a molten state of said molten fiber towpreg is maintained during a wrapping procedure thereby resulting in said molten composite more efficiently adhering to the heated surface of the workpiece and resulting in better adherence of successive molten composite layers to one another and further allowing individual filaments to slide relative to one another, effectively eliminating catenary, wrinkles, and creases within the composite; and compacting and consolidating said molten fiber towpreg layers to one another under pressure thereby removing entrapped air; characterized in that said thermoplastic resin is in pellet form or said thermoplastic resin is in tape form and in that said fibres have sizing chemistries compatible with the thermoplastic resin and wherein moisture absorbed by said fibres and said sizing chemistry is removed by drying. selecting a fiber tow; selecting a thermoplastic resin compatible with said selected fiber tow; preparing said fiber tow for impregnation by said selected thermoplastic resin; preparing said thermoplastic resin for impregnation into said fiber tow; impregnating said prepared thermoplastic resin into said prepared fiber tow in close proximity to a filament winding head, thereby creating a molten fiber towpreg; applying said molten fiber towpreg to a heated surface of a workpiece whereby a molten state of said molten fiber towpreg is maintained during a wrapping procedure thereby resulting in said molten composite more efficiently adhering to the heated surface of the workpiece and resulting in better adherence of successive molten composite layers to one another and further allowing individual filaments to slide relative to one another, effectively eliminating catenary, wrinkles, and creases within the composite; and compacting and consolidating said molten fiber towpreg layers to one another under pressure thereby removing entrapped air; characterized in that said thermoplastic resin is in pellet form or said thermoplastic resin is in tape form and in that said fibres have sizing chemistries compatible with the thermoplastic resin and wherein moisture absorbed by said fibres and said sizing chemistry is removed by drying.
A photoelectric conversion element, comprising: a first electrode; a photoelectric conversion layer; and a second electrode, wherein the photoelectric conversion layer includes a hole-transporting layer, the hole-transporting layer includes lithium salt having an asymmetric structure, and characterized in that an amount of a solvent per unit volume of the hole-transporting layer is 5.4 to 30 μg/mm 3. a first electrode; a photoelectric conversion layer; and a second electrode, wherein the photoelectric conversion layer includes a hole-transporting layer, the hole-transporting layer includes lithium salt having an asymmetric structure, and characterized in that an amount of a solvent per unit volume of the hole-transporting layer is 5.4 to 30 μg/mm 3.
A method of preparing a fibrous panel comprising: surface treating a mineral wool with a water repellent agent to provide a water-repellent surface-treated mineral wool; admixing the water-repellent surface-treated mineral wool with water to provide a slurry; and dewatering and drying the slurry to provide a fibrous panel, wherein the water repellent agent comprises at least one of polydimethylsiloxane, polymethylhydrogensiloxane, and a combination thereof. surface treating a mineral wool with a water repellent agent to provide a water-repellent surface-treated mineral wool; admixing the water-repellent surface-treated mineral wool with water to provide a slurry; and dewatering and drying the slurry to provide a fibrous panel, wherein the water repellent agent comprises at least one of polydimethylsiloxane, polymethylhydrogensiloxane, and a combination thereof.
A dynamic uplink resource allocation method performed by a base station in a wireless communication system, the method comprising: receiving, from a mobile station, a report for an uplink transmission power; performing a normalization of the uplink transmission power; determining a first utility metric associated with a current modulation and coding scheme, MCS, table and at least one second utility metric associated with at least one second candidate MCS table; determining an MCS table among the current MCS table and the at least one second candidate MCS table based on comparing the first utility metric and the at least one second utility metric; identifying an MCS level based on the normalized uplink transmission power and the determined MCS table; and transmitting, to the mobile station, information on resources, which are to be allocated, corresponding to the determined MCS table, wherein the first utility metric indicates a total data amount transmittable on resources, which are to be allocated, corresponding to the current MCS table, and wherein the at least one second utility metric indicates a total data amount transmittable on resources, which are to be allocated, corresponding to the at least one second candidate MCS table. receiving, from a mobile station, a report for an uplink transmission power; performing a normalization of the uplink transmission power; determining a first utility metric associated with a current modulation and coding scheme, MCS, table and at least one second utility metric associated with at least one second candidate MCS table; determining an MCS table among the current MCS table and the at least one second candidate MCS table based on comparing the first utility metric and the at least one second utility metric; identifying an MCS level based on the normalized uplink transmission power and the determined MCS table; and transmitting, to the mobile station, information on resources, which are to be allocated, corresponding to the determined MCS table, wherein the first utility metric indicates a total data amount transmittable on resources, which are to be allocated, corresponding to the current MCS table, and wherein the at least one second utility metric indicates a total data amount transmittable on resources, which are to be allocated, corresponding to the at least one second candidate MCS table.
A roller tube (400, 500) that is elongate along an axis of rotation, the roller tube configured to be supported at opposed first and second ends thereof, and configured to be operably attached to a covering material of a window treatment, the roller tube is characterized in comprising: a first tube (402, 502) that is made of a first material and a second tube (406, 510) made of a second material different from the first material, the first tube defining an inner surface (401, 501) that is configured to engage with a motor drive unit of the window treatment and an outer surface (403, 503) that is radially spaced from the inner surface; and wherein the second tube is additively constructed on the outer surface of the first tube such that the first and second tubes are fixed in position relative to one another, the second material being at least one layer of carbon fiber material. a first tube (402, 502) that is made of a first material and a second tube (406, 510) made of a second material different from the first material, the first tube defining an inner surface (401, 501) that is configured to engage with a motor drive unit of the window treatment and an outer surface (403, 503) that is radially spaced from the inner surface; and wherein the second tube is additively constructed on the outer surface of the first tube such that the first and second tubes are fixed in position relative to one another, the second material being at least one layer of carbon fiber material.
An arrangement of an optical measurement device, which device comprises at least one image source (1, 1', 1") in order to produce consecutive images (4, 4', 4") on a surface of an object (106, 300), at least one camera to take pictures of the surface, and a processor unit in order to compare the pictures of the at least one camera with said images, characterised in that the arrangement comprises a first area and a second area on the images (4, 4', 4"), the first and second area being illuminated on alternate images in such a way that when the first area is illuminated on the image, the second area is not illuminated, and the second area is illuminated on the subsequent image but the first area not, the arrangement further comprising at least one double detector in order to detect the illuminated first area and the illuminated second area, a drive unit in order to trigger at least one camera, the drive unit being arranged to trigger the camera if the double detector indicates that a state of the first area changes and a state of the second area changes.
A device for measuring the time a signal is input, of the type comprising conversion means (3, 4) for converting the input signal into binary pulses, the output of which is connected to counter means and to delay line means comprising a plurality of delay elements, the counter means and the delay line means receiving also a clock signal in input, characterised in that the delay line means are combined with means forming a sampler and analogue memory comprising multiple storage cells, receiving in input the input signal and in that each element of the delay line means has an output connected to a corresponding storage cell of the analogue memory means to sequentially drive the sampling and storage of the input signal in the latter.
A kit for the correction of a fingernail or a toenail, including a) a primer, including 40 - 60 % of hydroxyethylene methacrylate 40 - 60 % of phosphate dimethacrylate, 0.1 - 1.0 % of a starter, b) at least one composition for making a light-curing nail brace, including 15 - 45 % of bisphenol (di)methacrylate, urethane dimethacrylate in a proportion from 1:5 to 5:1, 85 - 55 % of fillers and pigments 0.1 - 1 % of camphorquinone, amino starter. a) a primer, including 40 - 60 % of hydroxyethylene methacrylate 40 - 60 % of phosphate dimethacrylate, 0.1 - 1.0 % of a starter, b) at least one composition for making a light-curing nail brace, including 15 - 45 % of bisphenol (di)methacrylate, urethane dimethacrylate in a proportion from 1:5 to 5:1, 85 - 55 % of fillers and pigments 0.1 - 1 % of camphorquinone, amino starter.
A compression device for the limb comprising: a sleeve adapted to surround the limb, the sleeve comprising an inelastic layer; and a cell constructed from an inner part joined to an outer part by one or more side walls so that the cell has a boxlike configuration, wherein: the inner part of the cell is adapted to conform to the shape of the limb when the cell is inflated to provide an even pressure to the limb; the outer part of the cell is fixed to the sleeve; and wherein the sleeve comprises one or more individually inflatable cuffs, the cuffs comprising more than one cell where at least two adjacent cells are provided with side walls only on those parts of the cell which are adjacent a neighbouring cell, characterised in that the inner part and the outer part of the cell is made from an elastic material and the inner part of adjacent cells is a continuous surface joined to the outer part by separate side walls. a sleeve adapted to surround the limb, the sleeve comprising an inelastic layer; and a cell constructed from an inner part joined to an outer part by one or more side walls so that the cell has a boxlike configuration, wherein: the inner part of the cell is adapted to conform to the shape of the limb when the cell is inflated to provide an even pressure to the limb; the outer part of the cell is fixed to the sleeve; and wherein the sleeve comprises one or more individually inflatable cuffs, the cuffs comprising more than one cell where at least two adjacent cells are provided with side walls only on those parts of the cell which are adjacent a neighbouring cell, characterised in that the inner part and the outer part of the cell is made from an elastic material and the inner part of adjacent cells is a continuous surface joined to the outer part by separate side walls.
A three-dimensional layer-by-layer shaping apparatus (100, 200, 600) comprising: a material spreader configured to spread a material or materials of a three-dimensional layer-by-layer shaped object onto a shaping plane on which the three-dimensional layer-by-layer shaped object is to be shaped; an electron gun configured to generate an electron beam; at least one deflector configured to deflect the electron beam so that the electron beam scans the shaping plane one- or two-dimensionally; at least one lens that is positioned between said electron gun and said deflector, and configured to focus the electron beam, so that the electron beam forms a focus on the shaping plane; a focus controller configured to control the focus of the electron beam on the basis of which region is to be scanned by the electron beam; and a controller configured to control the deflecting direction of said deflector and a scanning rate, the three-dimensional layer-by-layer shaping apparatus (100, 200, 600) further comprises a temperature measurement unit for the shaping plane, wherein said controller is configured to control the deflecting direction and the scanning rate on the basis of the temperature of the shaping plane, and wherein said focus controller is configured to control the focus on the basis of the temperature of the shaping plane and is configured to defocus the electron beam if the region to be scanned by the electron beam is an unmelted region, where the material is not to be melted. a material spreader configured to spread a material or materials of a three-dimensional layer-by-layer shaped object onto a shaping plane on which the three-dimensional layer-by-layer shaped object is to be shaped; an electron gun configured to generate an electron beam; at least one deflector configured to deflect the electron beam so that the electron beam scans the shaping plane one- or two-dimensionally; at least one lens that is positioned between said electron gun and said deflector, and configured to focus the electron beam, so that the electron beam forms a focus on the shaping plane; a focus controller configured to control the focus of the electron beam on the basis of which region is to be scanned by the electron beam; and a controller configured to control the deflecting direction of said deflector and a scanning rate, the three-dimensional layer-by-layer shaping apparatus (100, 200, 600) further comprises a temperature measurement unit for the shaping plane, wherein said controller is configured to control the deflecting direction and the scanning rate on the basis of the temperature of the shaping plane, and wherein said focus controller is configured to control the focus on the basis of the temperature of the shaping plane and is configured to defocus the electron beam if the region to be scanned by the electron beam is an unmelted region, where the material is not to be melted.
Branched polyamide obtained by polymerization in the presence of at least: - dicarboxylic acid monomers (a) of the type AA and diamine monomers of the type BB, or salts thereof; - a multifunctional compound (b) comprising at least 3 functions A or B; the functions A and B being functions that are capable of reacting together to form an amide bond; the polyamide obtained having a difference in absolute value ΔGT between its end groups of between 30 and 150 meq/kg; and the polyamide having a VN of between 150 and 300 ml/g according to standard ISO 307. - dicarboxylic acid monomers (a) of the type AA and diamine monomers of the type BB, or salts thereof; - a multifunctional compound (b) comprising at least 3 functions A or B;
Apparatus comprising a track system and a crawler robot, the crawler robot comprising: a first movement system configured to move the crawler robot and the track system along a non-planar surface, wherein the track system is a flexible track system configured to flex to substantially conform to a contour of the non-planar surface; and a second movement system configured to move the crawler robot along the flexible track system on the surface 230, wherein: first movement system is movable between an extended state 215 and a retracted state; when first movement system is in extended state, the flexible track system may not extend below first movement system; when first movement system is in retracted state, the flexible track system may extend to a same level as first movement system or below first movement system; and the apparatus is arranged to move the crawler robot and the flexible track system along non-planar surface to within a selected region using the first movement system in the extended state. a first movement system configured to move the crawler robot and the track system along a non-planar surface, wherein the track system is a flexible track system configured to flex to substantially conform to a contour of the non-planar surface; and a second movement system configured to move the crawler robot along the flexible track system on the surface 230, wherein: first movement system is movable between an extended state 215 and a retracted state; when first movement system is in extended state, the flexible track system may not extend below first movement system; when first movement system is in retracted state, the flexible track system may extend to a same level as first movement system or below first movement system; and the apparatus is arranged to move the crawler robot and the flexible track system along non-planar surface to within a selected region using the first movement system in the extended state. first movement system is movable between an extended state 215 and a retracted state; when first movement system is in extended state, the flexible track system may not extend below first movement system; when first movement system is in retracted state, the flexible track system may extend to a same level as first movement system or below first movement system; and the apparatus is arranged to move the crawler robot and the flexible track system along non-planar surface to within a selected region using the first movement system in the extended state.
A method for accumulating hyperpolarized 129 Xe comprising: applying a magnetic field to a heat exchanger tube having an inner surface an outer surface, a first end and a second end; flowing a gas mixture comprising hyperpolarized 129 Xe from the first end to the second end of the heat exchanger tube; the gas mixture enters the heat exchanger tube at the first end and flows towards the second end; the gas mixture is cooled to a temperature that is at least low enough to cause the 129 Xe to freeze on the inner surface of the heat exchanger tube while flowing from the first end to the second end by controllably refrigerating the outer surface of the heat exchanger tube, characterized in that the controllably refrigerating the outer surface of the heat exchanger tube comprises controllably refrigerating additional adjacent area on the outer surface of the tube as freezing progresses beginning with the second end. applying a magnetic field to a heat exchanger tube having an inner surface an outer surface, a first end and a second end; flowing a gas mixture comprising hyperpolarized 129 Xe from the first end to the second end of the heat exchanger tube; the gas mixture enters the heat exchanger tube at the first end and flows towards the second end; the gas mixture is cooled to a temperature that is at least low enough to cause the 129 Xe to freeze on the inner surface of the heat exchanger tube while flowing from the first end to the second end by controllably refrigerating the outer surface of the heat exchanger tube, characterized in that the controllably refrigerating the outer surface of the heat exchanger tube comprises controllably refrigerating additional adjacent area on the outer surface of the tube as freezing progresses beginning with the second end.
Apparatus for operating a rotary switch, having a drive shaft, a first and a second drive element (14, 16), wherein the first drive element is coupled to the drive shaft in a rotationally fixed manner, and the second drive element is mounted on the first drive element in a rotatable manner, a spring which couples the first and the second drive element (14, 16) to one another with a spring-action, locking means (20, 22) for limiting the rotational movements of the second drive element in a first direction of rotation and a second direction of rotation which is opposite the first direction of rotation, and release means (28, 30) for cancelling the limiting of the rotational movement of the second drive element in prespecified rotation positions of the first drive element, characterised in that the locking means have a first latch and a second latch for limiting the rotational movements of the second drive element, wherein both latches (20, 22) bear against guide sections (24, 26) of the two drive elements (14, 16) and the guide section of the first drive element has release sections (28, 30) for the latches (20, 22) as release means and the guide section of the second drive element has two stops (320, 322) for the latches as locking means (20, 22).