mhurhangee/ep-ind-claims huggingface dataset:
Device for separating persons (111, 711) in a separating region (109, 709), comprising a holding apparatus (301, 801) which can be installed in a stationary manner, a rotational receiving portion (501, 901) which can be rotated in a rotational plane about a rotational axis (481, 881, 981) relative to the holding apparatus (301, 801), and at least two blocking arms (203, 1001), wherein the at least two blocking arms (107, 121, 707, 721) are received in respective blocking arm receiving portions (505, 921) of the rotational receiving portion (501, 901) corresponding to the relevant blocking arm (107, 121, 707, 721), such that when the rotational receiving portion (501, 901) is rotated in the rotational plane about the rotational axis (481, 881, 981), one of the blocking arms (203, 1001) is pivoted out of the separating region (109, 709) and another of the blocking arms (203, 1001) is pivoted into the separating region (109, 709), and one person can thus be separated from the persons upon passing through the separating region (109, 709), characterised in that at least one of the blocking arms (203, 1001) comprises a relevant coupling apparatus (421, 1009) on a rotational receiving portion side, the at least one blocking arm (203, 1001) is received in the relevant blocking arm receiving portion (505, 921) so as to be movable relative to the rotational receiving portion (501, 901), and the holding apparatus (301, 801) comprises a control guide (321, 821) for guiding the relevant coupling apparatus (421, 1009), wherein the control guide (321, 821) mechanically corresponds to the relevant coupling apparatus (421, 1009) and receives the relevant coupling apparatus (421, 1009), and the control guide (321, 821) imparts an additional movement on the relevant coupling apparatus (421, 1009) when the rotational receiving portion (501, 901) is rotated such that an additional movement relative to the rotational receiving portion (501, 901) is imparted on the relevant blocking arm by means of the control guide (321, 821), and the relevant blocking arm (203, 1001) is pivoted into the separating region (109, 709) with a delay and/or is pivoted out of the separating region (109, 709) in an accelerated manner.
An additive represented by Chemical Formula 1: wherein, in Chemical Formula 1, R 1 to R 6 are each independently an unsubstituted C1 to C10 alkyl group, a C1 to C10 alkyl group substituted with a halogen, an unsubstituted C1 to C10 alkoxy group, a C1 to C10 alkoxy group substituted with a halogen, an unsubstituted C2 to C10 alkenyl group, a C2 to C10 alkenyl group substituted with a halogen, an unsubstituted C3 to C10 cycloalkyl group, a C3 to C10 cycloalkyl group substituted with a halogen, an unsubstituted C3 to C10 cycloalkenyl group, a C3 to C10 cycloalkenyl group substituted with a halogen, an unsubstituted C6 to C20 aryl group, or a C6 to C20 aryl group substituted with a halogen.
A technical method for reducing emissions at a port connected to a grid, the method comprising: (a) technical analysis to ascertain per kilowatt-hour (kWh) amount of an emission selected from the group of sulfur and metals emissions from on-shore generation of electricity normally supplied to grid at the port, (b) technical analysis to ascertain per kWh amount of said emission from electricity generation on-board a ship in the port, then (c) compare (a) with (b) and if the amount of emission determined in (b) is less than the amount of emission determined in (a), the ship tenders at least a portion of on-board electricity generation to the grid. (a) technical analysis to ascertain per kilowatt-hour (kWh) amount of an emission selected from the group of sulfur and metals emissions from on-shore generation of electricity normally supplied to grid at the port, (b) technical analysis to ascertain per kWh amount of said emission from electricity generation on-board a ship in the port, then (c) compare (a) with (b) and if the amount of emission determined in (b) is less than the amount of emission determined in (a), the ship tenders at least a portion of on-board electricity generation to the grid.
Process for producing an electrical line on a surface of a face of a structure, said process comprising the formation of an electrical conductive layer, of said electrical line, resulting from a deposition by a cold spraying process of an electrical conductive material, between ends of said line, on said face of the structure, characterized in that it comprises: • a stage of deposition, on the structure, of an electrical insulating layer, followed by a stage of oxy-gas flame spraying of a protective material in order to form a protective and tie layer on said layer, followed by a stage of cold spraying of the electrical conductive material of the conductive layer on said tie layer, the material of the layer being sprayed with a rate of between 20 m/s and 100 m/s, preferably between 25 m/s and 70 m/s, • and in that the process comprises the production of a plurality of electrical lines in which at least one upper line (20 (b)) crosses at least one lower line (20(a)), said at least one lower line being locally between the structure and said at least one upper line, said at least one upper line comprising an insulating layer (21(b)) at least where the lines intersect. • a stage of deposition, on the structure, of an electrical insulating layer, followed by a stage of oxy-gas flame spraying of a protective material in order to form a protective and tie layer on said layer, followed by a stage of cold spraying of the electrical conductive material of the conductive layer on said tie layer, the material of the layer being sprayed with a rate of between 20 m/s and 100 m/s, preferably between 25 m/s and 70 m/s, • and in that the process comprises the production of a plurality of electrical lines in which at least one upper line (20 (b)) crosses at least one lower line (20(a)), said at least one lower line being locally between the structure and said at least one upper line, said at least one upper line comprising an insulating layer (21(b)) at least where the lines intersect.
A composition comprising a modified recombinant Φ29-type DNA polymerase, which modified recombinant polymerase comprises an alanine substitution at position 253, wherein numbering of positions is relative to SEQ ID NO:1.
Tool set for a kitchen drive appliance for driving a tool, wherein the tool set comprises: at least one tool adapter, which can be coupled onto the kitchen drive appliance in order to be driven by the kitchen drive appliance, at least one tool, which can be coupled onto the tool adapter in a releasable manner in order to be driven by the kitchen drive appliance by means of the tool adapter, and a tool rack which can receive the tool, characterised in that retaining means are provided in the tool rack, which retaining means can hold the tool in a designated position so that a user can couple the tool adapter to the tool, if the tool is located in the tool rack. at least one tool adapter, which can be coupled onto the kitchen drive appliance in order to be driven by the kitchen drive appliance, at least one tool, which can be coupled onto the tool adapter in a releasable manner in order to be driven by the kitchen drive appliance by means of the tool adapter, and a tool rack which can receive the tool, characterised in that retaining means are provided in the tool rack, which retaining means can hold the tool in a designated position so that a user can couple the tool adapter to the tool, if the tool is located in the tool rack.
A wireless power transfer apparatus, comprising a transmit antenna (114, 114S, 114C, 204, 520, 610A-610D, 702A-702D, 912, 914, 916, 962, 964, 972, 982, 1015, 1025, 1035, 1045, 1055, 1065, 1066, 1067, 1075, 1085, 1095, 2005) for wirelessly transferring power to a receiver by generating a near field radiation at a resonant frequency within a region for transferring power to the receiver, the transmit antenna configured to be embedded in a host furnishing (640, 910, 950, 1010, 1020, 1030, 1040, 1050, 1060, 1070, 1080, 1090, 2000), means for detecting an enclosed state of the host furnishing; and means for adjusting a power output of the transmit antenna responsive to the enclosed state of the host furnishing.
Safety lock closure device for filler pipes of vehicle fuel tanks, comprising a substantially cylindrical body and cover means to close said body, said body being adapted to enclose a hollow tubular element, inside which is adapted to flow a flow of fuel; said tubular element being provided with an upper portion having an inlet for said fuel and a lower portion supporting floating means (4,10); said tubular element being slidably mounted coaxially on said body characterized in that said tubular element (c) is slidably mounted on said body with the interposition of opposition means, and said inlet has a longitudinal axis inclined by a determined angle (β) with respect to the longitudinal axis of said body.
A plastic film, comprising: a support substrate; a first coating layer, formed on one side of the support substrate; a low-reflection coating layer, formed on the first coating layer; and a second coating layer, formed on another side of the support substrate, wherein each of the first and the second coating layers comprise a first photocrosslinked copolymer, and first inorganic fine particles dispersed in the photocrosslinked copolymer, wherein the first photocrosslinked copolymer is a crosslinked copolymer of a tri- to hexafunctional acrylate monomer and a photocurable elastomer having an elongation of 15 to 200 % as measured according to ASTM D638 wherein the low-reflection coating layer comprises a second photocrosslinked copolymer, and hollow silica particles dispersed in the second photocrosslinked copolymer, wherein the second photocrosslinked copolymer is a copolymer in which monomers or oligomers containing a (meth)acrylate functional group, an aryloyl functional group, or a vinyl functional group is polymerized, and whrein the plastic film has a pencil hardness of 6H or more at a load of 1 kg, wherein the pencil hardness was evaluated according to the Japanese Standard JIS K5400. a support substrate; a first coating layer, formed on one side of the support substrate; a low-reflection coating layer, formed on the first coating layer; and a second coating layer, formed on another side of the support substrate, wherein each of the first and the second coating layers comprise a first photocrosslinked copolymer, and first inorganic fine particles dispersed in the photocrosslinked copolymer, wherein the first photocrosslinked copolymer is a crosslinked copolymer of a tri- to hexafunctional acrylate monomer and a photocurable elastomer having an elongation of 15 to 200 % as measured according to ASTM D638 wherein the low-reflection coating layer comprises a second photocrosslinked copolymer, and hollow silica particles dispersed in the second photocrosslinked copolymer, wherein the second photocrosslinked copolymer is a copolymer in which monomers or oligomers containing a (meth)acrylate functional group, an aryloyl functional group, or a vinyl functional group is polymerized, and whrein the plastic film has a pencil hardness of 6H or more at a load of 1 kg, wherein the pencil hardness was evaluated according to the Japanese Standard JIS K5400.
A method comprising: on a second portion of a display of a smartphone device, displaying a user interface panel, and on a first portion of the display, displaying an application; and initiating a barcode scanning operation via a barcode scanning application, the barcode scanning application being a different application from the application; wherein the barcode scanning operation comprises: minimizing the user interface panel from the second portion; opening a viewfinder on the second portion of the display, wherein the application is continuously running and displaying during the barcode scanning operation; routing a video feed from a camera of the smartphone device to the viewfinder; decoding a barcode located in the viewfinder to generate decoded barcode information; and translating decoded barcode information into keyboard strokes and displaying the keyboard strokes within the application. on a second portion of a display of a smartphone device, displaying a user interface panel, and on a first portion of the display, displaying an application; and initiating a barcode scanning operation via a barcode scanning application, the barcode scanning application being a different application from the application; wherein the barcode scanning operation comprises: minimizing the user interface panel from the second portion; opening a viewfinder on the second portion of the display, wherein the application is continuously running and displaying during the barcode scanning operation; routing a video feed from a camera of the smartphone device to the viewfinder; decoding a barcode located in the viewfinder to generate decoded barcode information; and translating decoded barcode information into keyboard strokes and displaying the keyboard strokes within the application. minimizing the user interface panel from the second portion; opening a viewfinder on the second portion of the display, wherein the application is continuously running and displaying during the barcode scanning operation; routing a video feed from a camera of the smartphone device to the viewfinder; decoding a barcode located in the viewfinder to generate decoded barcode information; and translating decoded barcode information into keyboard strokes and displaying the keyboard strokes within the application.
A sensor device comprising: a dielectric substrate (52; 152; 252); a metal layer (53; 153; 253) on said substrate (52; 152; 252) with at least one array of nano-cavities (54; 154; 254) therein and adapted to support L-SPR, each of said cavities (54; 154; 254) in said metal layer having a depth, an opening (56; 156) and a closed bottom (58; 158) and widening from opening to bottom in order to form a strong electrical field pattern around the cavity opening; characterized in that a bed (62; 162) of dielectric material is provided over the bottom (58; 158) of each cavity (54; 154) to form a reduced, apparent depth (d A), the bed surface (63; 163) being functionalized to bind to receptor moieties (64; 164); wherein the thickness of said dielectric bed is designed such that upon binding of an analyte to said receptor moieties, said analyte is at least partially located in the region of strong electric field. a dielectric substrate (52; 152; 252); a metal layer (53; 153; 253) on said substrate (52; 152; 252) with at least one array of nano-cavities (54; 154; 254) therein and adapted to support L-SPR, each of said cavities (54; 154; 254) in said metal layer having a depth, an opening (56; 156) and a closed bottom (58; 158) and widening from opening to bottom in order to form a strong electrical field pattern around the cavity opening; characterized in that a bed (62; 162) of dielectric material is provided over the bottom (58; 158) of each cavity (54; 154) to form a reduced, apparent depth (d A), the bed surface (63; 163) being functionalized to bind to receptor moieties (64; 164); wherein the thickness of said dielectric bed is designed such that upon binding of an analyte to said receptor moieties, said analyte is at least partially located in the region of strong electric field.
A method of encoding video data with compression comprising: a) receiving an original picture block containing samples; b) generating a prediction block, comprising: b1) generating, in a spatial domain, a prediction block containing samples according to an intra-prediction or inter-prediction coding scheme; and transforming the original picture block and the prediction block into a second domain; b2) preserving coefficients at a first set of predetermined locations in the prediction block; and b3) replacing coefficients at a second set of predetermined locations in the prediction block, according to a coefficient substitution process, with values calculated according to a predetermined algorithm; and c) calculating a residual signal for transmission, by subtracting the original picture block and the prediction block from each other; wherein the coefficient substitution process and the calculating of the residual signal are performed in the second domain. a) receiving an original picture block containing samples; b) generating a prediction block, comprising: b1) generating, in a spatial domain, a prediction block containing samples according to an intra-prediction or inter-prediction coding scheme; and transforming the original picture block and the prediction block into a second domain; b2) preserving coefficients at a first set of predetermined locations in the prediction block; and b3) replacing coefficients at a second set of predetermined locations in the prediction block, according to a coefficient substitution process, with values calculated according to a predetermined algorithm; and b1) generating, in a spatial domain, a prediction block containing samples according to an intra-prediction or inter-prediction coding scheme; and transforming the original picture block and the prediction block into a second domain; b2) preserving coefficients at a first set of predetermined locations in the prediction block; and b3) replacing coefficients at a second set of predetermined locations in the prediction block, according to a coefficient substitution process, with values calculated according to a predetermined algorithm; and c) calculating a residual signal for transmission, by subtracting the original picture block and the prediction block from each other;
Silencer assembly containing an insertion part which is fitted into a housing part in an assembled state of the silencer assembly, wherein the housing part has a fluid duct in which a fluid flows in an axial direction of the silencer assembly, from an inflow opening (10A-11) to an outflow opening (10B-11), and which functions simultaneously as a resonator tube for sound waves which propagate in the fluid duct, characterized in that the fluid duct comprises a first duct segment which is open on both sides, as an inflow duct with the inflow opening (10A-11) for the fluid, and a second duct segment which is open on both sides and is located coaxially with respect to the first duct segment as a feed duct with the outflow opening (10B-11) for the fluid, such that the inflow opening (10A-11) and the outflow opening (10B-11) are arranged on one side of the silencer assembly, since the fluid duct is deflected within the housing part by means of a U-shaped connecting opening on a side opposite the insertion part, wherein in the assembled state a closure element closes off the housing part on one end side without in the process closing off the U-shaped connecting opening, wherein before the assembled state the housing part and the insertion part each have an open resonator chamber (10C, 20E) for, in each case, one branching resonator (R1, R2) which branches off from the fluid duct, said branching resonators (R1, R2) being closed in the assembled state by insertion of the insertion part into the housing part and being operatively connected in a sound-transmitting fashion to the fluid duct which functions as a resonator tube.
Coupling half for an electric plug, which is configured for coupling to a further coupling half of the electric plug, comprising a housing and a contact carrier for electric contacts, the contact carrier being arranged in the housing, and comprising a sleeve, which is separate from the housing and which is arranged on the housing to be threadlessly rotatable, wherein the sleeve forms a connector of the coupling half for connecting to the further coupling half, Wherein the sleeve comprises an outer sleeve, which is threadlessly rotatably arranged on the housing, and the sleeve comprises an inner sleeve, which is separate from the outer sleeve, wherein the inner sleeve is arranged on the outer sleeve and the inner sleeve is movable in the direction of a longitudinal axis of the coupling half relative to the housing and to the outer sleeve, characterized in that between the outer sleeve and the inner sleeve a guiding is configured, through which the axial relative movement between the outer sleeve and the inner sleeve is guided, wherein the inner sleeve comprises a front edge, wherein on the front edge is arranged at least one coupling nose for coupling to a coupling bar (19, 19') arranged on the second coupling half, the coupling nose being arranged inwardly projecting in the direction perpendicular to the longitudinal axis, wherein the coupling nose thus is a fast locking part of a fast locking system, configured by such a coupling nose and a coupling bar (19, 19'), so that engaging of these two components (18, 19, 19') from behind and an azimuthal sliding along each other is thereby facilitated. Wherein the sleeve comprises an outer sleeve, which is threadlessly rotatably arranged on the housing, and the sleeve comprises an inner sleeve, which is separate from the outer sleeve, wherein the inner sleeve is arranged on the outer sleeve and the inner sleeve is movable in the direction of a longitudinal axis of the coupling half relative to the housing and to the outer sleeve, characterized in that between the outer sleeve and the inner sleeve a guiding is configured, through which the axial relative movement between the outer sleeve and the inner sleeve is guided, wherein the inner sleeve comprises a front edge, wherein on the front edge is arranged at least one coupling nose for coupling to a coupling bar (19, 19') arranged on the second coupling half, the coupling nose being arranged inwardly projecting in the direction perpendicular to the longitudinal axis, wherein the coupling nose thus is a fast locking part of a fast locking system, configured by such a coupling nose and a coupling bar (19, 19'), so that engaging of these two components (18, 19, 19') from behind and an azimuthal sliding along each other is thereby facilitated.
A method of operating an internal combustion engine, in particular a gas engine, comprising at least one combustion chamber to which a charge air is fed with a variable charge pressure (p a) and/or a variable amount of charge air, wherein a cylinder pressure value (p i) is ascertained from at least one measurement value (p c) of a sensor arranged in the at least one combustion chamber, characterised in that the cylinder pressure value (p i) is regulated by altering the charge pressure (p a) and/or by altering the amount of charge air as a setting value or values to a cylinder pressure target value (p s), wherein the cylinder pressure target value (p s) is selected in dependence on a power of the internal combustion engine, wherein the at least one measurement value (p c) is ascertained prior to an ignition in the combustion chamber, preferably in a range of between about 30 and 55 degrees crankshaft angle before a top dead center position of a piston delimiting the combustion chamber, particularly preferably at approximately a 35 degrees crankshaft angle before the top dead center position of the piston or at approximately a 49 degrees crankshaft angle before the top dead center position of the piston.
A solids heat exchanger comprising a shell and tube type heat exchanger having a shell side provided with a heating means comprising induction heating means and a tube side suitable for receiving waste material to be heated wherein one or more tubes are provided each having extending longitudinally therein a screw conveyor rotatable so as to convey said material to be heated along the length of said tube and wherein the heat exchanger further comprises a filter and condenser arrangement for separating oil, hydrocarbons and water from the output material.