mhurhangee/ep-ind-claims huggingface dataset:
A data reader comprising: a reader housing having a window; and an illumination module disposed in the reader housing behind the window; characterized by the illumination module having a reflector housing comprised of a cone-shaped structure of rectangular cross-section, with opposing inner side surfaces comprising 1) a top inner surface and a bottom inner surface opposite thereto and 2) a left inner surface and a right inner surface opposite thereto, the cone-shaped structure increasing in cross-sectional area from a rear end to a front end, a light source disposed proximate the rear end of the reflector housing and operative to generate illumination out through the reflector housing along an outgoing illumination path, wherein the top inner surface of the reflector housing comprises a surface of high reflectivity having 90% or higher reflectivity and at least a portion of the bottom inner surface of the reflector housing comprises a surface of low reflectivity having 20% or lower reflectivity. a reader housing having a window; and an illumination module disposed in the reader housing behind the window; characterized by the illumination module having a reflector housing comprised of a cone-shaped structure of rectangular cross-section, with opposing inner side surfaces comprising 1) a top inner surface and a bottom inner surface opposite thereto and 2) a left inner surface and a right inner surface opposite thereto, the cone-shaped structure increasing in cross-sectional area from a rear end to a front end, a light source disposed proximate the rear end of the reflector housing and operative to generate illumination out through the reflector housing along an outgoing illumination path, wherein the top inner surface of the reflector housing comprises a surface of high reflectivity having 90% or higher reflectivity and at least a portion of the bottom inner surface of the reflector housing comprises a surface of low reflectivity having 20% or lower reflectivity. 1) a top inner surface and a bottom inner surface opposite thereto and 2) a left inner surface and a right inner surface opposite thereto, the cone-shaped structure increasing in cross-sectional area from a rear end to a front end, a light source disposed proximate the rear end of the reflector housing and operative to generate illumination out through the reflector housing along an outgoing illumination path, wherein the top inner surface of the reflector housing comprises a surface of high reflectivity having 90% or higher reflectivity and at least a portion of the bottom inner surface of the reflector housing comprises a surface of low reflectivity having 20% or lower reflectivity.
A personal flight device which includes: - a housing which is securable to a pilot; - at least one pair of fans (7, 8), one fan of the pair mounted to one side of the housing, and the other fan of the pair mounted to the other side of the housing; wherein each fan (7, 8) rotates about an axis of rotation; characterised in that the axis of rotation of each fan is fixed relative to the housing; and - at least one engine is mounted on the housing for driving the fans (7, 8), such that both fans rotate in the same direction for producing thrust. - a housing which is securable to a pilot; - at least one pair of fans (7, 8), one fan of the pair mounted to one side of the housing, and the other fan of the pair mounted to the other side of the housing; wherein each fan (7, 8) rotates about an axis of rotation; characterised in that the axis of rotation of each fan is fixed relative to the housing; and - at least one engine is mounted on the housing for driving the fans (7, 8), such that both fans rotate in the same direction for producing thrust.
An electronic chalkboard system comprising: a plurality of display panels (131, 132, 133, 134, 135, 136, 137, 138, 139); an image processor arranged to output a reference signal that is differently configured with respect to each of the display panels and to sequentially output scan signals (SR, SC) in rows and columns with respect to each of the display panels; and a pointing device configured, when the pointing device touches a first panel among the display panels, to identify the first panel based on the output reference signal, and to determine coordinates about a touched position on the first panel based on the output scan signals and reference signal, wherein the image processor displays an image corresponding to the determined coordinates on the identified first panel. a plurality of display panels (131, 132, 133, 134, 135, 136, 137, 138, 139); an image processor arranged to output a reference signal that is differently configured with respect to each of the display panels and to sequentially output scan signals (SR, SC) in rows and columns with respect to each of the display panels; and a pointing device configured, when the pointing device touches a first panel among the display panels, to identify the first panel based on the output reference signal, and to determine coordinates about a touched position on the first panel based on the output scan signals and reference signal, wherein the image processor displays an image corresponding to the determined coordinates on the identified first panel.
A method for color-register spraying of a hub, comprising: after a black paint is sprayed onto the surface of the hub, machining a turned glossy surface, and then spraying the hub with a color celluloid paint, wherein the method comprises the steps of: pretreating→drying→spraying base powder→ curing→spraying a black paint→curing→machining a turned glossy surface→pretreating→ drying→spraying transparent powder→curing→spraying a color celluloid paint→curing, wherein in the process of spraying a color celluloid paint, a rotary cup spray gun is adopted for spraying, the revolving speed is 25000 R/min, the forming gas is 2~3 bar, and the paint output pressure is 4~5 bar, thereby ensuring that the color celluloid paint is uniformly and fully sprayed on the surface of the hub; and wherein in the process of curing the color celluloid paint, the temperature of the workpiece is controlled at 150°C for 10~15 min, so that the color celluloid paint has better flexibility and coating adhesion. wherein the method comprises the steps of: pretreating→drying→spraying base powder→ curing→spraying a black paint→curing→machining a turned glossy surface→pretreating→ drying→spraying transparent powder→curing→spraying a color celluloid paint→curing, wherein in the process of spraying a color celluloid paint, a rotary cup spray gun is adopted for spraying, the revolving speed is 25000 R/min, the forming gas is 2~3 bar, and the paint output pressure is 4~5 bar, thereby ensuring that the color celluloid paint is uniformly and fully sprayed on the surface of the hub; and wherein in the process of curing the color celluloid paint, the temperature of the workpiece is controlled at 150°C for 10~15 min, so that the color celluloid paint has better flexibility and coating adhesion.
A water-soluble unit dose article comprising a water-soluble film and a detergent composition, wherein, the water-soluble film comprises a water-soluble polymeric resin, characterised in that the water-soluble polymeric resin comprises; from 10% to 60%, preferably from 20% to 50%, more preferably from 25% to 40% by weight of the water-soluble polymeric resin of a first polyvinyl alcohol polymer wherein the first polyvinyl alcohol polymer is a copolymer of polyvinylalcohol and 1-butene-3,4-diol; and from 40% to 90%, preferably from 50% to 80%, most preferably from 60% to 75% by weight of the water-soluble polymeric resin of a second polyvinyl alcohol polymer, wherein the second polyvinyl alcohol polymer is selected from polyvinyl alcohol homopolymer, a polyvinylalcohol copolymer comprising an anionic substitution, or a mixture thereof. wherein, the water-soluble film comprises a water-soluble polymeric resin, characterised in that the water-soluble polymeric resin comprises; from 10% to 60%, preferably from 20% to 50%, more preferably from 25% to 40% by weight of the water-soluble polymeric resin of a first polyvinyl alcohol polymer wherein the first polyvinyl alcohol polymer is a copolymer of polyvinylalcohol and 1-butene-3,4-diol; and from 40% to 90%, preferably from 50% to 80%, most preferably from 60% to 75% by weight of the water-soluble polymeric resin of a second polyvinyl alcohol polymer, wherein the second polyvinyl alcohol polymer is selected from polyvinyl alcohol homopolymer, a polyvinylalcohol copolymer comprising an anionic substitution, or a mixture thereof.
A compound for use in a method for treating a leukemia, Hodgkin Lymphoma, Multiple Myeloma, Non-Hodgkin Lymphoma, Myeloproliferative disorders or Myelodysplastic syndromes in a subject, wherein the compound is represented by any one of the following structural formulas: and or a pharmaceutically acceptable salt thereof.
A battery module comprising: a battery cell stack in which a plurality of battery cells are stacked; and a module frame for housing the battery cell stack, wherein a heat conductive resin layer is formed on the bottom surface of the module frame, wherein the heat conductive resin layer comprises a first heat conductive resin layer and a second heat conductive resin layer, wherein the first heat conductive resin layer is formed adjacent to the front surface of the battery cell stack, and the second heat conductive resin layer is formed adjacent to the rear surface of the battery cell stack, and wherein at least a part of the first heat conductive resin layer and at least a part of the second heat conductive resin layer are spaced apart from each other, wherein a first distance spaced apart between the first heat conductive resin layer and the second heat conductive resin layer differ depending on a position on the bottom surface of the module frame, the first distance increasing from the center of the bottom surface of the module frame toward the outside, wherein the first heat conductive resin layer and the second heat conductive resin layer formed at a position corresponding to the center of the bottom surface of the module frame are spaced apart from each other. a battery cell stack in which a plurality of battery cells are stacked; and a module frame for housing the battery cell stack, wherein a heat conductive resin layer is formed on the bottom surface of the module frame, wherein the heat conductive resin layer comprises a first heat conductive resin layer and a second heat conductive resin layer, wherein the first heat conductive resin layer is formed adjacent to the front surface of the battery cell stack, and the second heat conductive resin layer is formed adjacent to the rear surface of the battery cell stack, and wherein at least a part of the first heat conductive resin layer and at least a part of the second heat conductive resin layer are spaced apart from each other, wherein a first distance spaced apart between the first heat conductive resin layer and the second heat conductive resin layer differ depending on a position on the bottom surface of the module frame, the first distance increasing from the center of the bottom surface of the module frame toward the outside, wherein the first heat conductive resin layer and the second heat conductive resin layer formed at a position corresponding to the center of the bottom surface of the module frame are spaced apart from each other.
A method for preparing diaryl alkylphosphonate comprising: combining a triarylphosphite is which optionally substituted by trifluoromethyl, nitro, cyano, C 1 -C 20 alkyl, aryl, halide, C 1 -C 20 -alkyl ether, benzyl ether, aryl ether, hydroxy, alkoxy, amino, alkylamino (-NHR 1), or dialkylamino (-NR'R") and at least one alkyl halide catalyst of general formula R 10 -X wherein R 10 is a C 1 -C 20 alkyl and X is a halide, to form a triarylphosphite catalytic mixture; heating the triarylphosphite catalytic mixture to a defined reaction temperature from 210°C to 260°C; adding to the heated triarylphosphite catalytic mixture at least one trialkylphosphite or at least one alkanol; and reacting the triarylphosphite catalytic mixture and the at least one trialkylphosphite or at least one alkanol to form the diaryl alkylphosphonate; wherein the trialkylphosphite or alkanol is from at least 10 % to 50 % molar excess of the triarylphosphite. combining a triarylphosphite is which optionally substituted by trifluoromethyl, nitro, cyano, C 1 -C 20 alkyl, aryl, halide, C 1 -C 20 -alkyl ether, benzyl ether, aryl ether, hydroxy, alkoxy, amino, alkylamino (-NHR 1), or dialkylamino (-NR'R") and at least one alkyl halide catalyst of general formula R 10 -X wherein R 10 is a C 1 -C 20 alkyl and X is a halide, to form a triarylphosphite catalytic mixture; heating the triarylphosphite catalytic mixture to a defined reaction temperature from 210°C to 260°C; adding to the heated triarylphosphite catalytic mixture at least one trialkylphosphite or at least one alkanol; and reacting the triarylphosphite catalytic mixture and the at least one trialkylphosphite or at least one alkanol to form the diaryl alkylphosphonate; wherein the trialkylphosphite or alkanol is from at least 10 % to 50 % molar excess of the triarylphosphite.
Press packet assembly for a press for the pressing of multilayer systems for insertion into the insertion aperture of a press, where three electrically heatable implements (11a, 11b, 11c) and two multilayer press packets are provided, where a first implement is arranged in essence centrally within the press packet assembly, where a second implement (11b is arranged above on the first multilayer press packet and a third implement is arranged below the second multilayer press packet respectively as concluding element of the press packet assembly, where each implement (11a, 11b, 11c) takes the form of heating unit and respectively has at least one electrically operable heating element, where the heating elements take the form of flat heating elements, where the first implement is composed of two heat-transfer sheets and of the heating element arranged between these, and the second and third implement (11b, 11c) are respectively composed of a cover sheet, of a heat-transfer sheet and of the heating element arranged between these, characterized in that the cover sheets take the form of steel sheets and the heat-transfer sheets take the form of composite-material sheets, where by virtue of the heating element arranged between the cover sheet and the heat-transfer sheet and, respectively, by virtue of the heating element arranged between the two heat-transfer sheets the respective implement (11a, 11b, 11c) takes the form of a coherent structure, and in that each implement (11a, 11b, 11c) has at least one electrical plug connection, the design of these being such that these plug connections correspond with contact connections on a press.
A vacuum pump, in particular a rotary vane pump, comprising at least one pump stage for pumping a fluid from an inlet of the pump stage to an outlet of the pump stage; a sump, in particular an oil sump, for an operating medium, in particular an oil, for lubricating and sealing the pump stage; and at least one channel for guiding the operating medium in the pump, wherein the channel has an opening into the sump out of which the operating medium flows and which lies below a minimum level provided for the operating medium; and wherein the channel has a constriction in front of the opening into the sump, characterized in that the channel has a secondary outlet closed by a pressure relief valve. at least one pump stage for pumping a fluid from an inlet of the pump stage to an outlet of the pump stage; a sump, in particular an oil sump, for an operating medium, in particular an oil, for lubricating and sealing the pump stage; and at least one channel for guiding the operating medium in the pump,
Floor nozzle for a cleaning appliance with a suction function, comprising a nozzle body (18; 108; 130; 140; 172; 186; 214; 292), a first suctioning region (48; 110; 132; 142; 174; 188; 220), which is arranged on the nozzle body (18; 108; 130; 140; 172; 186; 214; 292), at least one second suctioning region (62; 112; 134, 136; 144, 144'; 182; 210; 254) for coarse dirt, which is arranged on the nozzle body (18; 108; 130; 140; 172; 186; 214; 292) and which is arranged upstream of the first suctioning region (48; 110; 132; 142; 174; 188; 220) with respect to a pushing direction of the floor nozzle on a floor to be cleaned, and comprising a flow divider device (64; 164; 218), which is arranged on the nozzle body (18; 108; 130; 140; 172; 186; 214; 292) and which divides a suction flow into at least one first partial stream (66; 260) for acting upon the first suctioning region (48; 110; 132; 142; 174; 188; 220) and into at least one second partial stream (68; 262) for acting upon the at least one second suctioning region (62; 112; 134, 136; 144, 144'; 182; 210; 254), characterized in that at least one second suction duct (70; 166, 168; 238) leads from the flow divider device (64; 164; 218) to the at least one second suctioning region (62; 112; 134, 136; 144, 144'; 182; 210; 254) and in that the at least one second suction duct (70; 166, 168; 238) has at least one second suction opening (76; 240), which is associated with the at least one second suctioning region (62; 112; 134, 136; 144, 144'; 182; 210; 254).
Tubular structure for transporting heat transfer fluid, in particular refrigerant fluid, comprising at least: one layer in contact with the fluid, comprising at least one thermoplastic polymer P 1, and a layer comprising at least (a) one thermoplastic polymer P 2 and (b) continuous fibres, characterised in that: said thermoplastic polymer P 1 is semi-crystalline and has a Tf 1 greater than or equal to 160°C, in particular greater than or equal to 170°C, as determined in accordance with standard 11357-3, or amorphous with a Tg 1 greater than or equal to 100°C, preferably 120°C, particularly 140°C, as determined in accordance with standard 11357-2, and said layer being devoid of fibres; said thermoplastic polymer P 2 is semi-crystalline and is in particular a polyamide with a Tf2 greater than or equal to 170°C, or amorphous with a Tg 2 greater than or equal to 100°C, or a polyolefin with a Tf greater than 100°C; and said polymer P 2 being identical to P 1 or different from P 1 in which case polymers P 1 and P 2 adhere at least partially to each other. said thermoplastic polymer P 1 is semi-crystalline and has a Tf 1 greater than or equal to 160°C, in particular greater than or equal to 170°C, as determined in accordance with standard 11357-3, or amorphous with a Tg 1 greater than or equal to 100°C, preferably 120°C, particularly 140°C, as determined in accordance with standard 11357-2, and said layer being devoid of fibres; said thermoplastic polymer P 2 is semi-crystalline and is in particular a polyamide with a Tf2 greater than or equal to 170°C, or amorphous with a Tg 2 greater than or equal to 100°C, or a polyolefin with a Tf greater than 100°C; and said polymer P 2 being identical to P 1 or different from P 1 in which case polymers P 1 and P 2 adhere at least partially to each other.
An expanded polypropylene resin bead containing an inorganic pigment, a hindered amine compound, and an ultraviolet light absorber, wherein: the ultraviolet light absorber contains an ultraviolet light absorber A having a molecular weight of 360 or more, and a content of the ultraviolet light absorber A in the expanded polypropylene resin bead is 0.01% by mass or more and 2% by mass or less.
A pass-through deposition system, comprising: a deposition chamber; a wafer pallet having a bottom and a top, the top of the wafer pallet being configured to hold a substrate wafer, the wafer pallet being movable through the deposition chamber; and an anode (152, 154) having a substantially fixed position relative to the wafer pallet so that the anode (152, 154) is configured to move with the wafer pallet, wherein the anode (152, 154) is electrically isolated from the substrate wafer, characterized in that the wafer pallet comprises an anode opening from the bottom to the top of the wafer pallet, wherein the anode opening is dimensioned such that the anode (152, 154) passes through the anode opening without touching the wafer pallet. a deposition chamber; a wafer pallet having a bottom and a top, the top of the wafer pallet being configured to hold a substrate wafer, the wafer pallet being movable through the deposition chamber; and an anode (152, 154) having a substantially fixed position relative to the wafer pallet so that the anode (152, 154) is configured to move with the wafer pallet, wherein the anode (152, 154) is electrically isolated from the substrate wafer, characterized in that the wafer pallet comprises an anode opening from the bottom to the top of the wafer pallet, wherein the anode opening is dimensioned such that the anode (152, 154) passes through the anode opening without touching the wafer pallet.
A coding method with differentiated protection applied to a frame comprising a set of bits, the coding being performed at least from a first systematic correcting code of the LDPC code type, represented by a bipartite graph, called a Tanner graph, comprising a plurality of first nodes, called variable nodes, said graph further comprising a plurality of second nodes, called check nodes, each variable node being connected to at least one check node by a branch, the number of branches connected to a variable node being called degree of the variable node, in which each variable node is associated with a bit of a word of said first code, the variable nodes associated with the systematic bits of the word of the first code being called systematic variable nodes, said method comprising the following steps: - decomposing (102, 103) the frame into a plurality of subframes (ST 0, ST 1,...) each having a different priority level, - applying to each subframe (ST 1,...) obtained, except for the subframe (ST 0) of lowest priority level, a second algebraic correcting code of predetermined efficiency, said efficiency increasing as the priority level of each subframe decreases when the number of subframes (ST 0, ST 1,...) is at least equal to three, - applying an interleaving of the bits of all the concatenated subframes (ST 0, ST 1,...) comprising said subframe (ST 0) of lowest priority and each subframe coded by the second algebraic correcting code, so as to perform a correlation between the systematic variable nodes of said first systematic correcting code, arranged according to the value of their degree, and the bits of each subframe (ST 0, ST 1,...), the subframes being arranged according to their priority level, - coding, using the first systematic correcting code, the frame composed of the interleaved bits of all the concatenated subframes. - decomposing (102, 103) the frame into a plurality of subframes (ST 0, ST 1,...) each having a different priority level, - applying to each subframe (ST 1,...) obtained, except for the subframe (ST 0) of lowest priority level, a second algebraic correcting code of predetermined efficiency, said efficiency increasing as the priority level of each subframe decreases when the number of subframes (ST 0, ST 1,...) is at least equal to three, - applying an interleaving of the bits of all the concatenated subframes (ST 0, ST 1,...) comprising said subframe (ST 0) of lowest priority and each subframe coded by the second algebraic correcting code, so as to perform a correlation between the systematic variable nodes of said first systematic correcting code, arranged according to the value of their degree, and the bits of each subframe (ST 0, ST 1,...), the subframes being arranged according to their priority level, - coding, using the first systematic correcting code, the frame composed of the interleaved bits of all the concatenated subframes.
A substrate having a fixing agent applied to at least one side, to which a particulate synthetic resin is applied, characterized in that the substrate is a laminated fabric, woven fabric, knitted fabric or a film, in particular a nonwoven fabric made of natural and/or synthetic fibers.