mhurhangee/ep-ind-claims huggingface dataset:
A process for preparing a supported cobalt-containing Fischer-Tropsch synthesis catalyst, said process comprising the following steps of: (a) impregnating a support powder or granulate with a cobalt-containing compound; (b) calcining the impregnated support powder or granulate and extruding to form an extrudate; or extruding the impregnated support powder or granulate to form an extrudate and calcining the extrudate; and (c) impregnating the calcined product with a cobalt-containing compound; or forming a powder or granulate of the calcined product, impregnating with a cobalt-containing compound and extruding to form an extrudate. (a) impregnating a support powder or granulate with a cobalt-containing compound; (b) calcining the impregnated support powder or granulate and extruding to form an extrudate; or extruding the impregnated support powder or granulate to form an extrudate and calcining the extrudate; and (c) impregnating the calcined product with a cobalt-containing compound; or forming a powder or granulate of the calcined product, impregnating with a cobalt-containing compound and extruding to form an extrudate.
Measuring device (20; 50; 70; 90) for measuring a distance between a reference mark (9, 10) and a target object, comprising a beam source which is configured as an electro-optical component and emits a laser beam (37; 81; 102) along an optical axis (38; 82; 103), a detector which is configured as a further electro-optical component and receives a reception beam (46; 85; 106), reflected and/or scattered by the target object, along an optical axis (47; 86; 107), a beam-shaping system having at least one beam-shaping optical element (23; 92, 93) for shaping a laser beam (42; 104) and/or a reception beam (45; 106) along an optical axis (43, 41; 105, 107), a monolithically configured optics carrier (25; 51; 71; 91) having a first receptacle (29; 77; 98) for fastening a first of the electro-optical components (21; 22) and a second receptacle (31; 99, 101) for fastening the at least one beam-shaping optical element (23; 92, 93), a printed circuit board (26; 53; 73; 94) having a further receptacle (33; 61; 79; 112) for fastening a second of the electro-optical components (22; 21), wherein the second of the electro-optical components (22; 21), arranged on the printed circuit board (26; 53; 73; 94), is adjustable in a plane substantially perpendicular to the optical axis (47; 82; 107) of the laser beam or reception beam (46; 81; 106) associated with the second of the electro-optical components (22; 21) and can be fixed in the adjusted position, and a connecting device (27; 54; 74; 95) which connects a first contact face (35; 55; 75; 96) of the optics carrier (25; 51; 71; 91) to a second contact face (36; 56; 76; 97) of the printed circuit board (26; 53; 73; 94), characterised in that, during the adjustment of the measuring device (20; 50; 70; 90), the first of the electro-optical components (21; 22), arranged in the optics carrier (25; 51; 71; 91), and the at least one beam-shaping optical element (23; 92, 93) are adjusted relative to the optics carrier (25; 51; 71; 91) exclusively in the direction of the associated optical axes (38, 41, 43; 84, 87; 103, 105, 107).
An optical device formed by sealing a light emitting diode with a silicone material containing an Si-R 1 -Si bond in the structure, where R 1 is an alkylene group or an arylene group characterised in that the silicone material satisfies the following conditions in an elemental composition percentage of the silicone material according to X-ray photoelectron spectroscopy (ESCA): (i) the elemental composition percentage of carbon atoms is from 60.0 to 68.0 atom%; and (ii) a ratio of the elemental composition percentage of carbon atoms to the elemental composition percentage of silicon atoms (C/Si) is from 3.0 to 4.5; (i) the elemental composition percentage of carbon atoms is from 60.0 to 68.0 atom%; and (ii) a ratio of the elemental composition percentage of carbon atoms to the elemental composition percentage of silicon atoms (C/Si) is from 3.0 to 4.5;
A tower assembly for a wind turbine having an adjustable height, the tower assembly comprising: at least one base tower section comprising a cylindrical base wall defining an overall length extending from a first end to a second end, the cylindrical base wall further defining an outer diameter that is uniform along the entire length from the first end to the second end; and, an adjustable upper tower section arranged atop the base tower section, the upper tower section comprising a first tower portion integral with a second tower portion, the first tower portion comprising a first tower wall portion defining a first length extending from a first end to a second end, the first tower wall portion comprising a tapering cross-section from the first end to the second end of the first length thereof, the second tower portion comprising a second tower wall portion defining a second length extending from a first end to a second end, the second tower wall portion defining a uniform cylindrical cross-section from the first end to the second end of the second length thereof; wherein the second tower portion of the upper tower section further comprises an upper tower can mountable to a nacelle of the wind turbine, the upper tower can providing a cylindrical region at the top of the upper tower section; and wherein the second tower portion of the upper tower section is constructed of one or more removable tower cans arranged below the upper tower can. at least one base tower section comprising a cylindrical base wall defining an overall length extending from a first end to a second end, the cylindrical base wall further defining an outer diameter that is uniform along the entire length from the first end to the second end; and, an adjustable upper tower section arranged atop the base tower section, the upper tower section comprising a first tower portion integral with a second tower portion, the first tower portion comprising a first tower wall portion defining a first length extending from a first end to a second end, the first tower wall portion comprising a tapering cross-section from the first end to the second end of the first length thereof, the second tower portion comprising a second tower wall portion defining a second length extending from a first end to a second end, the second tower wall portion defining a uniform cylindrical cross-section from the first end to the second end of the second length thereof; wherein the second tower portion of the upper tower section further comprises an upper tower can mountable to a nacelle of the wind turbine, the upper tower can providing a cylindrical region at the top of the upper tower section; and wherein the second tower portion of the upper tower section is constructed of one or more removable tower cans arranged below the upper tower can.
Method for operating a lighting device of a vehicle with at least one upper beam, with an automatic mode being provided for automatically switching the upper beam corresponding to a desired switching state and with a manual mode being provided for manually switching the upper beam, in which case manual switching of the upper beam results in a change from the automatic mode to the manual mode, characterized in that there is an automatic change to the automatic mode when the present switching state corresponds to the desired switching state.
An apparatus comprising: an input for receiving images from an image sensor of a camera unit; a processor configured to: monitor locations of different objects in the received images; determine which if any of the different objects is a primary object that is or should be of interest to a user; detect if any primary object becomes occluded by another one of the different objects and responsively to detection of such occlusion to trigger a first action; characterized in that the processor is further configured to determine how much the camera unit should be moved laterally to avoid occlusion of primary objects. an input for receiving images from an image sensor of a camera unit; a processor configured to: monitor locations of different objects in the received images; determine which if any of the different objects is a primary object that is or should be of interest to a user; detect if any primary object becomes occluded by another one of the different objects and responsively to detection of such occlusion to trigger a first action; characterized in that the processor is further configured to determine how much the camera unit should be moved laterally to avoid occlusion of primary objects. monitor locations of different objects in the received images; determine which if any of the different objects is a primary object that is or should be of interest to a user; detect if any primary object becomes occluded by another one of the different objects and responsively to detection of such occlusion to trigger a first action; characterized in that the processor is further configured to determine how much the camera unit should be moved laterally to avoid occlusion of primary objects.
A beverage font comprising a housing for mounting to a bar or similar surface, one or more taps for dispensing beverage, one or more beverage lines routed through said housing for supplying said taps with beverage, and a cooling line through which, in use, a cooling medium can flow, the cooling line being in thermal contact with the housing, characterized in that the cooling line is only in thermal contact with a front face of the housing to provide, in use, only one cooled exterior face on which condensation, frost or ice is formed, further comprising at least one cooling loop comprising a font cooling line and a condensation mechanism located at or near said front face of the housing, which condensation mechanism comprises a portion of the cooling loop and a condensation plate in thermal contact with one another..
A spark-ignited gas engine system comprising: a first cylinder bank and a second cylinder bank, each including at least one cylinder; a first camshaft and a second camshaft coupled respectively to the first cylinder bank and the second cylinder bank, and comprising at least one cam (70, 72), the first and second camshafts being driven by a crankshaft via a crankshaft gear connected to the crankshaft; a camphaser, the camphaser associated with a compound gear that includes an inner gear and an outer gear, wherein the outer gear of the compound gear couples the camphaser to the crankshaft and the inner gear of the compound gear couples the camphaser to the first and second camshafts; and a controller including a memory having instructions stored therein that are executable by the controller to simultaneously adjust a cam angle operation of an intake valve and an exhaust valve of the at least one cylinder in each of the first cylinder bank and the second cylinder bank by adjusting the camphaser to a desired phase position to meet a target rotational phase of the first and second camshafts. a first cylinder bank and a second cylinder bank, each including at least one cylinder; a first camshaft and a second camshaft coupled respectively to the first cylinder bank and the second cylinder bank, and comprising at least one cam (70, 72), the first and second camshafts being driven by a crankshaft via a crankshaft gear connected to the crankshaft; a camphaser, the camphaser associated with a compound gear that includes an inner gear and an outer gear, wherein the outer gear of the compound gear couples the camphaser to the crankshaft and the inner gear of the compound gear couples the camphaser to the first and second camshafts; and a controller including a memory having instructions stored therein that are executable by the controller to simultaneously adjust a cam angle operation of an intake valve and an exhaust valve of the at least one cylinder in each of the first cylinder bank and the second cylinder bank by adjusting the camphaser to a desired phase position to meet a target rotational phase of the first and second camshafts.
A metal ion battery cell comprising a plurality of electrodes and an electrolyte encased within a housing, the housing comprising a safety valve or vent configured to allow gas build up within the housing to vent outside the housing, and a fabric band surrounding the housing, wherein the fabric band covers the safety valve or vent, such that gas may pass through the fabric band, but sparks are contained by the fabric band, characterised in that the fabric band surrounds the housing a multiple number of times.
Plug-in connector having a plug-in side and a connection side, comprising a housing, a frame and at least one contact insert, wherein the housing and the frame are embodied from a metal or from another conductive material, wherein the frame may be accommodated in the housing and wherein the at least one contact insert may be inserted into the frame, wherein the at least one contact insert comprises at least one contact, at least one sensor that is allocated to the respective contact, and also a circuit board, wherein the circuit board comprises an interface in the plug-in region of the plug-in connector, wherein the circuit board comprises an electronic evaluating system, and wherein the electronic evaluating system receives and evaluates data from the at least one sensor and transmits said data via the interface, wherein the plug connector comprises a cooling element, wherein the cooling element is curved in a U-shaped manner and comprises two parallel limbs, wherein one of the two parallel limbs is in contact with the frame, wherein the circuit board is arranged curved in a U-shaped manner in the contact insert and comprises two parallel limbs, and wherein the cooling element protrudes with one of the two parallel limbs of the cooling element into the region between the two parallel limbs of the circuit board without coming into contact with said circuit board.
Applicator pen (10 - 80) for dispensing a liquid, particularly in a planar manner, comprising a hollow pen body (11 - 81) made of plastic with a closed end and an open end and with an applicator head (15; 25; 45; 55; 65; 75) sitting at the open end of the pen body, which applicator head (15; 25; 45; 55; 65; 75) has a porous material, particularly a foam, felt or fibre body, wherein the applicator head has an end portion fitting into the open end of the pen body, and mechanical fastening means (17; 27; 47a; 47b; 57a; 57b) for form-fit and/or frictional engagement with the outer circumference of the end portion of the applicator head are provided on the pen body and are configured in such a way that they bring about the form-fit and/or frictional engagement without substantial deformation of the end portion of the applicator head protruding into the open end of the pen body, wherein at least the end portion of the applicator head and at least the open end of the pen body are cylindrical in shape, and the fastening means have an inner thread on the pen body, characterized in that the inner thread cuts or presses into the circumference of the end portion of the applicator head.
Method for charging and/or discharging an energy store with a current I 0, wherein the energy store has at least one cell block having a number J of series-connected battery cells (3, 4, 5, 6, 7), at least some of the battery cells (3, 4, 5, 6, 7) of which may have different efficiencies η N, where 1 ≤ N ≤ J, with the following method steps: - determining the battery cell (3, 4, 5, 6, 7) having the lowest efficiency η min, - adjusting the efficiency η N of all the other battery cells (3, 4, 5, 6, 7) to this lowest efficiency η min such that for the adjusted efficiency η N ' of the battery cells applies: η N ' = η min. - determining the battery cell (3, 4, 5, 6, 7) having the lowest efficiency η min, - adjusting the efficiency η N of all the other battery cells (3, 4, 5, 6, 7) to this lowest efficiency η min such that for the adjusted efficiency η N ' of the battery cells applies: η N ' = η min.
A heating assembly for an atomizer, the heating assembly comprising an adsorption member, and at least one heating element for generating heat after being electrified; wherein the adsorption member comprises at least one surface defining at least one fixing groove therein, the at least one heating element being disposed in the at least one fixing groove; the heating assembly being characterised in that the heating element is a heating track formed by silk-screening printing.
A method of coating a fireproofing material comprising (i) spray applying a coating composition to the fireproofing material, wherein the fireproofing material includes one or more inorganic binder and one or more fillers, and has a water content of at least 20 wt%, and wherein the coating composition is a water-based epoxy composition comprising an epoxy resin, an aliphatic polyamine hardener and water, and forms a uniform coating on the fireproofing material, and (ii) applying a caulk coating to the applied coating composition, wherein the caulk composition comprises silicone, polyurethane, polysulfide, polyacrylic polymers or polyacrylic copolymers. (i) spray applying a coating composition to the fireproofing material, wherein the fireproofing material includes one or more inorganic binder and one or more fillers, and has a water content of at least 20 wt%, and wherein the coating composition is a water-based epoxy composition comprising an epoxy resin, an aliphatic polyamine hardener and water, and forms a uniform coating on the fireproofing material, and (ii) applying a caulk coating to the applied coating composition, wherein the caulk composition comprises silicone, polyurethane, polysulfide, polyacrylic polymers or polyacrylic copolymers.
A tracking system comprising: a first tracking unit and a second tracking unit each unit comprising a satellite signal receiver, a microprocessor, a radio frequency transmitter and receiver; and an indicator means; and in which upon activation of the first unit, the first unit satellite signal receiver is arranged to receive satellite signals and to determine a location of the first unit; the first unit microprocessor is arranged in operation to receive the location from the first unit satellite signal receiver and generate a first unit location signal including said location; and the first unit RF transmitter is arranged to transmit said signal; the second unit is arranged to receive satellite signals and determine the second unit location; the second unit microprocessor is arranged in operation to receive the second unit location from the second unit satellite receiver; the second unit RF receiver is arranged to receive said first unit location signal; and the second unit microprocessor is arranged upon receipt of said first unit location signal to determine the first unit location; and determine a bearing and distance in dependence upon the first unit location and the second unit location; and indicate said bearing and distance on said second unit indicator means, characterised in that the first and second tracking units also include a line of sight obstruction detecting means for detecting the presence of nearby obstructions, and a height position determining means for determining the relative height of the first and second tracking units, wherein the respective first and second unit microprocessors include means of calculating, with reference to a time source, an optimum communications window, based on the RF signal data, to transmit and receive an RF signal in the future, based on the detected nearby obstructions, if any, and the height position data, and calculated predicted values for a wave height and period, and sends an instruction to the RF transmitter to transmit, and the RF receiver to receive a signal in the optimum communications window.
A vertical take-off and landing aerial vehicle (VTOL) (1, 10, 100, 1000, 1010, 1020) comprising a plurality of rotors (14, 140, 1400, 1410, 1420) for producing lift, for each respective rotor the VTOL comprising an auxiliary power source (18, 180, 1800, 1810, 1820) and a transformation gear set (2, 200, 210, 220, 230, 240, 250, 260, 270, 280, 290, 2000, 2010, 2020, 71, 711L, 711U, 712L, 712U, 713L, 713U, 714L, 714U, 72, 73, 74) both being associated with the respective rotor, and the VTOL further comprising at least one main power source arranged for supplying power to a plurality of rotors of the VTOL, each TGS being configured to form an outgoing power towards its respective rotor from input powers received into the TGS from the MPS and from the APS associated with the respective rotor, characterized in that each TGS is of a planetary type gearbox or a differential type gearbox, and wherein each TGS is a transformation gearbox, that is configured to receive power input from the MPS and from the APS associated with the respective rotor simultaneously, and output them into a single combined power output. for each respective rotor the VTOL comprising an auxiliary power source (18, 180, 1800, 1810, 1820) and a transformation gear set (2, 200, 210, 220, 230, 240, 250, 260, 270, 280, 290, 2000, 2010, 2020, 71, 711L, 711U, 712L, 712U, 713L, 713U, 714L, 714U, 72, 73, 74) both being associated with the respective rotor, and the VTOL further comprising at least one main power source arranged for supplying power to a plurality of rotors of the VTOL, each TGS being configured to form an outgoing power towards its respective rotor from input powers received into the TGS from the MPS and from the APS associated with the respective rotor, characterized in that each TGS is of a planetary type gearbox or a differential type gearbox, and wherein each TGS is a transformation gearbox, that is configured to receive power input from the MPS and from the APS associated with the respective rotor simultaneously, and output them into a single combined power output.