mhurhangee/ep-ind-claims huggingface dataset:
A method for transporting containers or groups of containers, wherein a plurality of containers or groups of containers is conveyed along a predefined transport path and with a predefined distance between the containers or groups of containers to a conveyor unit and the conveyor unit transports the containers or groups of containers by means of at least two first conveying elements for conveying the containers or groups of containers, wherein these first conveying elements respectively move along a first predefined movement path on a circulating carrier, and wherein the first conveying elements contact the containers or groups of containers with respectively one contacting body and in this way vary a distance between the containers or groups of containers, wherein the conveying elements are driven by means of a drive unit implemented as a linear motor, wherein the drive unit is in operative connection with magnets of the conveying elements characterised in that a control unit allows an independent movement of the first conveying elements, so that the distance between two conveyed containers or groups of containers can be changed during the transport and the speed of the containers is modified during the transport thereof by the first conveying elements by way of a lateral engagement.
A gasification melting facility comprising: a fluidized bed gasification furnace that is configured to generate pyrolysis gas by thermally decomposing waste and discharges incombustibles; a melting furnace which is configured to be fed by the pyrolysis gas; a pyrolysis gas passage that connects the fluidized bed gasification furnace and the melting furnace; a grinder; a vibratory sifter that is configured to screen the incombustibles ground by the grinder; a fixed amount feeder (14; 14B) that is configured to feed at a fixed amount the incombustibles that pass through the vibratory sifter, the fixed amount feeder (14; 14B) including a plurality of transfer chambers rotatable between a position to receive the incombustibles from the vibratory sifter and a position to discharge the incombustibles; and an airflow conveyor that is configured to convey the fixed amount of the incombustibles from the fixed amount feeder (14; 14B) together with airflow to the pyrolysis gas passage, characterized in that the grinder is configured to grind the incombustibles discharged from the fluidized bed gasification furnace by passing the incombustibles through a plurality of rods and in that the grinder is configured so that a vibrating force of the grinder is such that metals contained in the incombustibles are flattened to a size at which the metals can be separated by the vibratory sifter. a fluidized bed gasification furnace that is configured to generate pyrolysis gas by thermally decomposing waste and discharges incombustibles; a melting furnace which is configured to be fed by the pyrolysis gas; a pyrolysis gas passage that connects the fluidized bed gasification furnace and the melting furnace; a grinder; a vibratory sifter that is configured to screen the incombustibles ground by the grinder; a fixed amount feeder (14; 14B) that is configured to feed at a fixed amount the incombustibles that pass through the vibratory sifter, the fixed amount feeder (14; 14B) including a plurality of transfer chambers rotatable between a position to receive the incombustibles from the vibratory sifter and a position to discharge the incombustibles; and an airflow conveyor that is configured to convey the fixed amount of the incombustibles from the fixed amount feeder (14; 14B) together with airflow to the pyrolysis gas passage, characterized in that the grinder is configured to grind the incombustibles discharged from the fluidized bed gasification furnace by passing the incombustibles through a plurality of rods and in that the grinder is configured so that a vibrating force of the grinder is such that metals contained in the incombustibles are flattened to a size at which the metals can be separated by the vibratory sifter.
A humidifier for fuel cell comprising: a membrane housing with first and second ends; a bundle of hollow fiber membranes provided in an inner space of the membrane housing, wherein both ends of the hollow fiber membranes are respectively potted into the first and second ends of the membrane housing; a humidity retainer provided in the inner space of the membrane housing; a first cover mounted on the first end of the membrane housing, the first cover including an inlet for introducing unreacted gas of high-humidity discharged from a stack; and a second cover mounted on the second end of the membrane housing, the second cover including an outlet for discharging the unreacted gas used for humidification, characterized in that the humidity retainer is sponge-shaped or braid-shaped, and formed of at least one of polyethylene and polypropylene. a membrane housing with first and second ends; a bundle of hollow fiber membranes provided in an inner space of the membrane housing, wherein both ends of the hollow fiber membranes are respectively potted into the first and second ends of the membrane housing; a humidity retainer provided in the inner space of the membrane housing; a first cover mounted on the first end of the membrane housing, the first cover including an inlet for introducing unreacted gas of high-humidity discharged from a stack; and a second cover mounted on the second end of the membrane housing, the second cover including an outlet for discharging the unreacted gas used for humidification, characterized in that the humidity retainer is sponge-shaped or braid-shaped, and formed of at least one of polyethylene and polypropylene.
A method of evaluating the interactions between a plurality of analytes and a ligand using a biosensor, which comprises the steps of: A: providing a sensor surface having the ligand immobilized thereto, B: contacting the sensor surface with the plurality of analytes, C: registering a sensor response as a function of time to obtain a sensor response curve for each one of the plurality of analytes, D: extracting interaction parameters from each sensor response curve, wherein said interaction parameters are responses at a defined time point in the sensor response curve, E: evaluating each sensor response curve as a function of time to determine whether the response curve meets one or more binding behavior criteria, F: displaying each response curve as a respective point in a diagram of interaction parameter values, whereby points in the diagram of interaction parameters relating to response curves meeting a binding behavior criteria are labelled so as to be graphically distinguishable from other points in the interaction parameters diagram relating to response curves meeting another or no binding behavior criteria, A: providing a sensor surface having the ligand immobilized thereto, B: contacting the sensor surface with the plurality of analytes, C: registering a sensor response as a function of time to obtain a sensor response curve for each one of the plurality of analytes, D: extracting interaction parameters from each sensor response curve, wherein said interaction parameters are responses at a defined time point in the sensor response curve, E: evaluating each sensor response curve as a function of time to determine whether the response curve meets one or more binding behavior criteria, F: displaying each response curve as a respective point in a diagram of interaction parameter values, whereby points in the diagram of interaction parameters relating to response curves meeting a binding behavior criteria are labelled so as to be graphically distinguishable from other points in the interaction parameters diagram relating to response curves meeting another or no binding behavior criteria,
A lighting device, comprising: a light guide plate, and at least one array of light emitting diodes (LEDs), which LEDs are accommodated in holes arranged in the light guide plate, wherein each hole has: - at least two side facets through which light from an LED arranged in said hole is to be laterally coupled into the light guide plate, and - at least one corner formed by two converging side facets of said at least two side facets, wherein a corner of said at least one corner of one hole points towards an adjacent hole. a light guide plate, and at least one array of light emitting diodes (LEDs), which LEDs are accommodated in holes arranged in the light guide plate, wherein each hole has: - at least two side facets through which light from an LED arranged in said hole is to be laterally coupled into the light guide plate, and - at least one corner formed by two converging side facets of said at least two side facets, - at least two side facets through which light from an LED arranged in said hole is to be laterally coupled into the light guide plate, and - at least one corner formed by two converging side facets of said at least two side facets, wherein a corner of said at least one corner of one hole points towards an adjacent hole.
A toothed belt comprising a belt body comprising plural core wires that extend in a belt longitudinal direction and are arranged in a belt width direction, a back portion in which the plural core wires are buried, and plural teeth that are opposite to the back portion in a belt thickness direction and arranged in the belt longitudinal direction so as to be spaced from each other, wherein the back portion and the plural teeth are molded integrally of a thermoplastic elastomer, having: a belt strength per 1-mm belt width of higher than or equal to 1.85 kN; a pitch of the plural teeth of longer than or equal to 20 mm; a height of the each of the plural teeth of greater than or equal to 5 mm; a thickness of the back portion of larger than or equal to 4 mm; and characterized in that the plural core wires: have a pitch (Pt) of 3.0 to 3.7 mm; and have an interval (d) between the plural core wires of 0.4 to 1.4 mm. a belt strength per 1-mm belt width of higher than or equal to 1.85 kN; a pitch of the plural teeth of longer than or equal to 20 mm; a height of the each of the plural teeth of greater than or equal to 5 mm; a thickness of the back portion of larger than or equal to 4 mm; and characterized in that the plural core wires: have a pitch (Pt) of 3.0 to 3.7 mm; and have an interval (d) between the plural core wires of 0.4 to 1.4 mm. have a pitch (Pt) of 3.0 to 3.7 mm; and have an interval (d) between the plural core wires of 0.4 to 1.4 mm.
Device for electrical high-voltage testing of one, two, or more semiconductor components comprising a pressure chamber whose interior can be placed under an overpressure via a pressurized gas line, wherein the pressure chamber is located on a probe card with test probes, characterized in that the pressure chamber has at least one part that can be moved relative to the probe card, and there is a gap, in which an air bearing is formed, between the front surface of the movable part of the pressure chamber facing the semiconductor wafer and the semiconductor wafer.
Apparatus for cracking a gypsum matrix of a gypsum-based panel, the apparatus comprising: an assembly, the assembly configured to receive the panel at an entrance of the assembly and convey the panel from the entrance to an exit of the assembly, wherein, between the entrance and the exit, the assembly is configured to bend the panel in a first direction, wherein the assembly comprises a roller assembly, and the roller assembly comprises at least one pair of opposed rollers (100, 210, 220, 230, 240) configured to receive the panel therebetween, the at least one pair of opposed rollers (100, 210, 220, 230, 240) including a first roller and a second roller spaced from the first roller, characterized in that the first roller and the second roller each have a non-constant radius along a length of said roller. an assembly, the assembly configured to receive the panel at an entrance of the assembly and convey the panel from the entrance to an exit of the assembly, wherein, between the entrance and the exit, the assembly is configured to bend the panel in a first direction, wherein the assembly comprises a roller assembly, and the roller assembly comprises at least one pair of opposed rollers (100, 210, 220, 230, 240) configured to receive the panel therebetween, the at least one pair of opposed rollers (100, 210, 220, 230, 240) including a first roller and a second roller spaced from the first roller, characterized in that the first roller and the second roller each have a non-constant radius along a length of said roller.
An interchangeable trigger assembly for firearms, to be applied within a break action of a rifle by insertion in a lower opening of said break action; said interchangeable assembly being characterized in that it comprises two detachable portions: a firing unit and a trigger unit, said firing unit comprising firing members (12, 13, 16, 17, 18, 19, 29); said trigger unit comprising at least one trigger which acts on actuation members of said firing members (12, 13, 16, 17, 18, 19, 29); said firing unit being detachably associated with said trigger unit.
A light-emitting diode comprising a light-emitting diode chip, and a light conversion member disposed at the front of the light-emitting diode chip for converting the color of light emitted from the light-emitting diode chip into a different color, wherein said light conversion member consists of a block that is cut out from a unidirectionally solidified body of a ceramic composite material for light conversion, which comprises two or more matrix phases with respective components being two or more oxides selected from the group consisting of metal oxides and complex oxides each produced from two or more metal oxides, wherein the matrix phases are continuously and three-dimensionally disposed and entangled with each other, and in which at least one of said matrix phases is a phosphor phase comprising an activated oxide.
A method for fabricating a nanostructure, comprising: growing a first nanowire on a substrate; forming a dielectric layer on said substrate, said dielectric layer surrounding said first nanowire, wherein a thickness (t) of said dielectric layer is smaller than a length of said first nanowire; and removing said first nanowire from said dielectric layer, thereby exposing an aperture (10; 12 1 - 12 4) in said dielectric layer; characterized by further comprising a step of growing a second nanowire (30; 30 1 - 30 4) in said aperture (10; 12 1 - 12 4) on said substrate; wherein growing said second nanowire (30; 30 1 - 30 4) comprises growing a support element in said aperture (10; 12 1 - 12 4), and extending said support element above said dielectric layer, and growing a body element around at least a portion of said support element that extends above said dielectric layer. growing a first nanowire on a substrate; forming a dielectric layer on said substrate, said dielectric layer surrounding said first nanowire, wherein a thickness (t) of said dielectric layer is smaller than a length of said first nanowire; and removing said first nanowire from said dielectric layer, thereby exposing an aperture (10; 12 1 - 12 4) in said dielectric layer; characterized by further comprising a step of growing a second nanowire (30; 30 1 - 30 4) in said aperture (10; 12 1 - 12 4) on said substrate; wherein growing said second nanowire (30; 30 1 - 30 4) comprises growing a support element in said aperture (10; 12 1 - 12 4), and extending said support element above said dielectric layer, and growing a body element around at least a portion of said support element that extends above said dielectric layer.
Method for permanently fastening at least one cam (2, 3, 4) on a tubular cam carrier, having at least the following method steps: a) positioning the at least one cam (2, 3, 4) on the cam carrier in a predefined axial and angular position such that the cam carrier extends at least in sections through a passage bore of the cam (2, 3, 4), wherein an end face of the cam carrier is aligned with an end face of the cam, b) arranging the cam segment formed from the cam carrier and the at least one cam (2, 3, 4) in an assembly device; c) deforming the cam carrier such that the at least one cam (2, 3, 4) is secured at least in a form-fitting or force-fitting manner against movement in an axial direction on the cam carrier, wherein a deformation tool of the assembly device is advanced in an axial direction onto the end face of the cam carrier, and the cam carrier is thus deformed, characterized in that material of the cam carrier is forced outward in a radial direction against the cam (2, 3, 4) that has been placed on, wherein the deformation tool has at least one deformation element which is arranged in an axially parallel bore of the deformation tool. a) positioning the at least one cam (2, 3, 4) on the cam carrier in a predefined axial and angular position such that the cam carrier extends at least in sections through a passage bore of the cam (2, 3, 4), wherein an end face of the cam carrier is aligned with an end face of the cam, b) arranging the cam segment formed from the cam carrier and the at least one cam (2, 3, 4) in an assembly device; c) deforming the cam carrier such that the at least one cam (2, 3, 4) is secured at least in a form-fitting or force-fitting manner against movement in an axial direction on the cam carrier, wherein a deformation tool of the assembly device is advanced in an axial direction onto the end face of the cam carrier, and the cam carrier is thus deformed, characterized in that material of the cam carrier is forced outward in a radial direction against the cam (2, 3, 4) that has been placed on, wherein the deformation tool has at least one deformation element which is arranged in an axially parallel bore of the deformation tool.
A method of formulating a cleaning composition, comprising the steps of: coating a granular absorbent material with a coating agent to produce a coated absorbent material, wherein the coating agent is a biocide that forms a surface-bonded film on the granular absorbent material; and mixing the coated absorbent material with a sanitation agent, wherein the coated absorbent material absorbs the sanitation agent to form the cleaning composition, wherein the granular absorbent material comprises vermiculite; and wherein the biocide is selected from the group consisting of silanes, siloxanes, aminopropyltrimethoxysilane, quaternary amines, fumed metal hydroxides, solutions of silver, solutions of copper and combinations thereof. coating a granular absorbent material with a coating agent to produce a coated absorbent material, wherein the coating agent is a biocide that forms a surface-bonded film on the granular absorbent material; and mixing the coated absorbent material with a sanitation agent, wherein the coated absorbent material absorbs the sanitation agent to form the cleaning composition, wherein the granular absorbent material comprises vermiculite; and wherein the biocide is selected from the group consisting of silanes, siloxanes, aminopropyltrimethoxysilane, quaternary amines, fumed metal hydroxides, solutions of silver, solutions of copper and combinations thereof.
An oral vaccine comprising: (a) spores of Bacillus subtilis expressing on their surface the CotC protein fused to the antigen UreB3 of Helicobacter pylori or Helicobacter acinonychis, and (b) spores of Bacillus subtilis expressing on their surface the CotB protein fused to the cytokine IL2. (a) spores of Bacillus subtilis expressing on their surface the CotC protein fused to the antigen UreB3 of Helicobacter pylori or Helicobacter acinonychis, and (b) spores of Bacillus subtilis expressing on their surface the CotB protein fused to the cytokine IL2.
A communications system for providing wireless radio frequency communication service to a coverage area, the system comprising: a first unit that comprises: downlink circuitry coupled to at least one power amplifier and configured to radiate a downlink radio frequency signal from at least one antenna into the coverage area; uplink circuity coupled to a low noise amplifier and configured to receive from the at least one antenna an uplink radio frequency signal; an RF protection function coupled to the at least one power amplifier, the RF protection function configured to disable the at least one power amplifier when the RF protection function determines that at least one parameter of the at least one power amplifier has deviated outside of an operating specification; characterised by: an emergency configuration control module executed by a controller, the emergency configuration control module configured to determine when an emergency event is occurring within the coverage area as a function of a first set of input signals, wherein emergency configuration control module is further configured to enter phase one operation and inhibit disabling of the at least one power amplifier by the RF protection function in response to determining that the emergency event is occurring. downlink circuitry coupled to at least one power amplifier and configured to radiate a downlink radio frequency signal from at least one antenna into the coverage area; uplink circuity coupled to a low noise amplifier and configured to receive from the at least one antenna an uplink radio frequency signal; an RF protection function coupled to the at least one power amplifier, the RF protection function configured to disable the at least one power amplifier when the RF protection function determines that at least one parameter of the at least one power amplifier has deviated outside of an operating specification; characterised by: an emergency configuration control module executed by a controller, the emergency configuration control module configured to determine when an emergency event is occurring within the coverage area as a function of a first set of input signals, wherein emergency configuration control module is further configured to enter phase one operation and inhibit disabling of the at least one power amplifier by the RF protection function in response to determining that the emergency event is occurring.
A wireless transmit receive unit, WTRU, comprising: a processor configured to: receive configuration information from a network device, wherein the configuration information indicates a plurality of resources to be used by the WTRU to communicate directly with one or more other WTRUs; determine, among the plurality of resources, one or more resources that have a measured energy level above a preconfigured threshold for a period of time; determine a ratio of the one or more resources to the plurality of resources; and transmit a report to the network device, wherein the report indicates the determined ratio. receive configuration information from a network device, wherein the configuration information indicates a plurality of resources to be used by the WTRU to communicate directly with one or more other WTRUs; determine, among the plurality of resources, one or more resources that have a measured energy level above a preconfigured threshold for a period of time; determine a ratio of the one or more resources to the plurality of resources; and transmit a report to the network device, wherein the report indicates the determined ratio.