mhurhangee/ep-ind-claims huggingface dataset:
Multifunctional seating system, including a floor, consisting of dovetail between crossbars and cruises to be realized by inserting such cruises ends within the inner tubular space of the crossbars, provided with a geometrically distributed plurality of protruding pins forming constraints and support of soft blades or other completion elements, wherein the interlocking between crossbars and cruises is made by means of reliefs suitable for making an elastic anchor engagement within corresponding holes located in the crossbars.
A method for coupling a wear pad (160, 260, 360, 460) into a turbine combustion system including a transition piece forward ring (130, 230, 330, 430), an impingement sleeve (140, 240, 340, 440) substantially surrounding the transition piece forward ring (130, 230, 330, 430), and a gap (146, 246, 346, 446) between the transition piece forward ring (130, 230, 330, 430) and the impingement sleeve (140, 240, 340, 440), the method comprising: installing the wear pad (160, 260, 360, 460) between the impingement sleeve (140, 240, 340, 440) and the transition piece forward ring (130, 230, 330, 430); joining the wear pad (160, 260, 360, 460) to the impingement sleeve (140, 240, 340, 440); installing a retaining element circumferentially about the impingement sleeve (140, 240, 340, 440), the retaining element placing tension on the impingement sleeve (140, 240, 340, 440) such that the gap (146, 246, 346, 446) is closed between a radially inner surface (144, 244, 344, 444) of the impingement sleeve (140, 240, 340, 440) and a radially outer surface (132, 232, 332, 432) of the transition piece forward ring (130, 230, 330, 430) at a location of the wear pad (160, 260, 360, 460). installing the wear pad (160, 260, 360, 460) between the impingement sleeve (140, 240, 340, 440) and the transition piece forward ring (130, 230, 330, 430); joining the wear pad (160, 260, 360, 460) to the impingement sleeve (140, 240, 340, 440); installing a retaining element circumferentially about the impingement sleeve (140, 240, 340, 440), the retaining element placing tension on the impingement sleeve (140, 240, 340, 440) such that the gap (146, 246, 346, 446) is closed between a radially inner surface (144, 244, 344, 444) of the impingement sleeve (140, 240, 340, 440) and a radially outer surface (132, 232, 332, 432) of the transition piece forward ring (130, 230, 330, 430) at a location of the wear pad (160, 260, 360, 460).
Process to treat siliceous non-sulfidic ores with a collector composition that comprises a phosphate compound of the formula I wherein R is linear or branched, saturated or unsaturated hydrocarbon group containing 8 to 24 carbon atoms, A is an alkylene oxide unit; Y is H, Na, K or an ammonium or alkylated ammonium, n is 1 - 3, p is 0 - 25, X is chosen from the same groups as R-Ap or Y, or wherein R is linear or branched, saturated or unsaturated hydrocarbon group that contains 1 to 12 carbon atoms and at least one unit A is present that is a propylene oxide unit.
An electromechanical actuator for a disc brake, in particular for a commercial vehicle disc brake, having an electric motor, and a transmission for generating a drive torque and a rotationally movable mounted actuating shaft operatively connected to the electric motor, wherein the electromechanical actuator has a rack and pinion gear along an axial axle operatively connected to the actuation shaft for actuating a rotary lever of the disc brake, wherein the rack and pinion gear comprises a rack and a pinion gear drive operatively connected to the rack, characterized in that the actuation shaft, with respect to a pinion gear drive axle, is arranged offset on the pinion gear drive.
A light emission apparatus comprising: an optical assembly comprising a laser driver configured to generate a driving signal, an edge-emitting laser diode, and a first sub-mount, wherein the edge-emitting laser diode includes laser bars (106A, 106B) configured to collectively output light and form an array driven by the driving signal generated by the laser driver, wherein the first sub-mount provides a platform to mount the laser driver and the edge-emitting laser diode; an optical diffuser; a holder; and a second sub-mount, wherein the optical diffuser is configured to diffuse or scatter the collectively output light, wherein the holder is arranged between the optical diffuser and the second sub-mount to hold the optical diffuser at a desired position, wherein the first sub-mount mounts the laser bars of the edge-emitting laser diode so that the light emitted by the laser bars propagates in a vertical direction; wherein the second sub-mount is arranged substantially perpendicular to the first sub-mount and is configured to stably support the first sub-mount so that the collectively output light is emitted and propagates in the same vertical direction as the light emitted by the laser bars. an optical assembly comprising a laser driver configured to generate a driving signal, an edge-emitting laser diode, and a first sub-mount, wherein the edge-emitting laser diode includes laser bars (106A, 106B) configured to collectively output light and form an array driven by the driving signal generated by the laser driver, wherein the first sub-mount provides a platform to mount the laser driver and the edge-emitting laser diode; a laser driver configured to generate a driving signal, an edge-emitting laser diode, and a first sub-mount, wherein the edge-emitting laser diode includes laser bars (106A, 106B) configured to collectively output light and form an array driven by the driving signal generated by the laser driver, wherein the first sub-mount provides a platform to mount the laser driver and the edge-emitting laser diode; an optical diffuser; a holder; and a second sub-mount, wherein the optical diffuser is configured to diffuse or scatter the collectively output light, wherein the holder is arranged between the optical diffuser and the second sub-mount to hold the optical diffuser at a desired position, wherein the first sub-mount mounts the laser bars of the edge-emitting laser diode so that the light emitted by the laser bars propagates in a vertical direction; wherein the second sub-mount is arranged substantially perpendicular to the first sub-mount and is configured to stably support the first sub-mount so that the collectively output light is emitted and propagates in the same vertical direction as the light emitted by the laser bars.
Guiding device for a sliding door, said sliding door being suspended at the upper edge thereof from a support rail on a cupboard, said guiding device comprising a guide means that is insertable into a guide groove from below, said guide means being vertically slidable at the sliding door and being designed such that it is insertable, from below, into the guide rail that is attached to the cupboard bottom, wherein the guide means is supported on the end of the horizontal leg of an L-shaped supporting plate of the guiding device, characterized in • that the vertical leg of the supporting plate is designed such that it is vertically slidable in a fastening plate of the guiding device, said fastening plate being connectable to the sliding door, • that the supporting plate is slidably guided within a recess in the fastening plate and • that elastically hinged or designed locking means (37, 53) for locking the supporting plate in its inserted position are formed on the fastening plate. • that the vertical leg of the supporting plate is designed such that it is vertically slidable in a fastening plate of the guiding device, said fastening plate being connectable to the sliding door, • that the supporting plate is slidably guided within a recess in the fastening plate and • that elastically hinged or designed locking means (37, 53) for locking the supporting plate in its inserted position are formed on the fastening plate.
A method for collecting, from a cut panel for obtaining predetermined articles, the articles and scraps generated by the cutting of the panel comprising following steps: a) making available a cut panel in which predetermined articles and scraps are defined; b) having available an electronic processor; c) having available at least a cutting file in which the dimensions, positioning and orientation of the articles and scraps are defined; d) memorising the cutting file in the electronic processor; e) positioning the cut panel on a support of a first station; characterised in that it further comprises following steps: f) removing, in accordance with the indications of the cutting file, at least one scrap at a time from the cut panel by separating the adjacent cut articles and/or scraps, without altering the orientation and mutual positioning of the cut articles of the panel arranged on the support of the first station and the scraps not removed from the support, transferring the at least a scrap into a scrap collecting station; g) collecting, actuated as a function of the removal of the preceding step f), the articles from the cut panel, with a following transfer of the articles, without changing orientation and mutual positioning thereof, into a second station so as to define a layer of a series of stacks, each stack being constituted by identical and superposed articles. a) making available a cut panel in which predetermined articles and scraps are defined; b) having available an electronic processor; c) having available at least a cutting file in which the dimensions, positioning and orientation of the articles and scraps are defined; d) memorising the cutting file in the electronic processor; e) positioning the cut panel on a support of a first station; f) removing, in accordance with the indications of the cutting file, at least one scrap at a time from the cut panel by separating the adjacent cut articles and/or scraps, without altering the orientation and mutual positioning of the cut articles of the panel arranged on the support of the first station and the scraps not removed from the support, transferring the at least a scrap into a scrap collecting station; g) collecting, actuated as a function of the removal of the preceding step f), the articles from the cut panel, with a following transfer of the articles, without changing orientation and mutual positioning thereof, into a second station so as to define a layer of a series of stacks, each stack being constituted by identical and superposed articles.
Underwater mining device having - a submersible working platform which can be placed onto a bed of a body of water, - a stripping means for stripping ground material from the bed of the body of water, - an adjustment means for adjusting and introducing the stripping means into the bed of the body of water and - a conveying line for conveying stripped ground material away from the stripping means, characterized in that - on the working platform a receiving part for a conveying container is designed, - the conveying container is supported and held in a releasable manner in the receiving part, and - the conveying line leads into the conveying container, wherein stripped ground material can be received in the conveying container, and - in the conveying container a separating means is provided which is designed for retaining stripped ground material of a desired particle size and for separating liquid and ground material below the desired particle size. - a submersible working platform which can be placed onto a bed of a body of water, - a stripping means for stripping ground material from the bed of the body of water, - an adjustment means for adjusting and introducing the stripping means into the bed of the body of water and - a conveying line for conveying stripped ground material away from the stripping means, characterized in that - on the working platform a receiving part for a conveying container is designed, - the conveying container is supported and held in a releasable manner in the receiving part, and - the conveying line leads into the conveying container, wherein stripped ground material can be received in the conveying container, and - in the conveying container a separating means is provided which is designed for retaining stripped ground material of a desired particle size and for separating liquid and ground material below the desired particle size.
Use of a bonding agent comprising a mixture of A) a heterocondensate, obtainable by hydrolysis and condensation of at least one hydrolysable silicon compound, selected from a silane of the general formula R n SiX 4-n wherein the residues R represent hydrolytically non-separable groups, the residues X are the same or different and represent alkoxy and n has the value of 1, wherein R represents alkyl comprising a polymerisable group selected from methacryloyl and methacryloyloxy, and a divalent bridging group for bonding to the Si, selected from alkylene bridging groups, and at least one metal compound, wherein the metal is selected from Ti, B) at least one organic, polymerisable monomer or oligomer, which has at least one C-C double bond, which is an olefinically polymerisable group selected from methacryloyl or methacryloyloxy, and C) at least one thermal polymerisation initiator without peroxide functionality, wherein the polymerisation initiator represents an azo compound, to stabilise the bonding agent gelation time in the consolidation of a geological formation in the presence of one or more catalytically active substances, wherein the catalytically active substance is transition metal ions selected from iron ions. A) a heterocondensate, obtainable by hydrolysis and condensation of at least one hydrolysable silicon compound, selected from a silane of the general formula R n SiX 4-n wherein the residues R represent hydrolytically non-separable groups, the residues X are the same or different and represent alkoxy and n has the value of 1, wherein R represents alkyl comprising a polymerisable group selected from methacryloyl and methacryloyloxy, and a divalent bridging group for bonding to the Si, selected from alkylene bridging groups, and at least one metal compound, wherein the metal is selected from Ti, B) at least one organic, polymerisable monomer or oligomer, which has at least one C-C double bond, which is an olefinically polymerisable group selected from methacryloyl or methacryloyloxy, and C) at least one thermal polymerisation initiator without peroxide functionality, wherein the polymerisation initiator represents an azo compound,
Internal combustion engine that runs on alternative fuels, analogous to alternative internal combustion engines of the compression type, comprising a working method that uses jointly as fuels vegetable oil and water, for the execution of which method the engine is provided with the following elements and operations: - A vegetable oil injector for each cylinder, located in the cylinder head, - A water injector for each cylinder, located in the cylinder head, - Two independent fuel storage tanks (69, 86), one for vegetable oil and one for water, - The vegetable oil is injected in the engine intake stroke, at any time in it, and preferably at a time in which the piston is reaching the bottom dead center point, characterized in that: - An overpressure safety valve for each cylinder, located in the combustion chamber, that is communicated through a duct with the exhaust duct, - The water or steam injection is performed in the engine compression stroke, shortly before the piston reaches the top dead center point, - The percentage by volume of vegetable oil injected is from 50% to 99%, and that of water or steam injected is from 1% to 50%. - A vegetable oil injector for each cylinder, located in the cylinder head, - A water injector for each cylinder, located in the cylinder head, - Two independent fuel storage tanks (69, 86), one for vegetable oil and one for water, - The vegetable oil is injected in the engine intake stroke, at any time in it, and preferably at a time in which the piston is reaching the bottom dead center point, - An overpressure safety valve for each cylinder, located in the combustion chamber, that is communicated through a duct with the exhaust duct, - The water or steam injection is performed in the engine compression stroke, shortly before the piston reaches the top dead center point, - The percentage by volume of vegetable oil injected is from 50% to 99%, and that of water or steam injected is from 1% to 50%.
Process for the recovery of lithium from lithium-sulfur accumulators, characterized in that the accumulators are discharged, shredded and pre-cleaned by sieving or sifting to separate the housing and current conductor parts, the remaining material is dispersed in an aqueous medium, the insoluble components are removed by filtration and the electrolyte is removed by phase separation, whereafter there is a subsequent process for separation of the lithium from the remaining aqueous lithium sulfide-containing filtrate connection.
Trailer support wheel having a measuring device for the tongue load acting on the trailer support wheel, wherein the trailer support wheel has a rotatable wheel body and a wheel carrier, characterized in that the measuring device has a measuring means mounted on the trailer support wheel, wherein the measuring means comprises an elongate wheel axle journal for the wheel body, on which a load measuring element is arranged between the journal ends.
An integrated system for the production of urea and urea ammonium nitrate, said system comprising (i) a unit for the production of urea, said unit comprising a urea synthesis section comprising a reactor, a stripper and a condenser in fluid communication with each other so as to form a urea synthesis loop, and, downstream of the synthesis section and in fluid communication therewith, a urea purification section suitable for separating off CO2 and NH3 from an aqueous urea solution comprising said CO2 and NH3, and (ii) a unit for the production of ammonium nitrate from ammonia and nitric acid; wherein an outlet for NH3 from the purification section of the urea plant is connected to an inlet for NH3 of the unit for the production of ammonium nitrate, and wherein an outlet for an aqueous urea solution from the purification section and an outlet for an aqueous ammonium nitrate solution from the unit for the production of ammonium nitrate, are connected to a unit for mixing said aqueous urea solution and said aqueous ammonium nitrate solution.
Connector head comprising an interior space, a tank connector which is in fluid communication with the interior space and which, in order to fill a tank with a fluid or empty it of a fluid, can be fluidly connected to a valve device mounted on the tank, a product connector in fluid communication with the interior space, and a discharge port in fluid communication with the interior space, wherein the connector head comprises a first valve, by means of which first valve the product connector can be shut off from the interior space, a second valve, by means of which second valve the discharge port can be shut off from the interior space, and a cleaning device formed and arranged to clean the interior space and the tank connector, characterised in that the cleaning device comprises ajet cleaner, and in that the jet cleaner has a jet outlet configured to generate a cleaning jet leaving the connector head through the tank connector.
Process for the manufacture of a powder of a reinforced alloy for which the grains forming the particles of the powder comprise a metal matrix in the volume of which crystalline oxide particles are dispersed, the process comprising the following successive stages: i) having available a mixture of powders to be ground comprising: - a parent metal powder comprising a master alloy intended to form the metal matrix, the master alloy being chosen from an iron-based alloy, a nickel-based alloy or an aluminium-based alloy; - an additional powder comprising at least one intermediate compound intended to incorporate, in the metal matrix, atoms intended to form the dispersed oxide particles; the intermediate compound intended to form the dispersed oxide particles being chosen from YFe 3, Y 2 O 3, Fe 2 O 3, Fe 2 Ti, FeCrWTi, TiH 2, TiO 2, Al 2 O 3, HfO 2, SiO 2, ZrO 2, ThO 2, MgO or their mixtures; ii) grinding the mixture of powders in a gaseous grinding medium according to a mechanical synthesis process in order to manufacture a precursor powder comprising a metal matrix incorporating said atoms; iii) subjecting the precursor powder to a thermal plasma generated by a plasma torch comprising a plasma gas, in order to obtain the reinforced alloy powder; the process being characterized in that, in stage iii), the precursor powder is injected into the plasma torch at a flow rate of between 10 grams/minute and 30 grams/minute, the power of the plasma torch is of between 20 kW and 40 kW and the pressure in the reaction chamber of the plasma torch is of between 25 kPa and 100 kPa. i) having available a mixture of powders to be ground comprising: - a parent metal powder comprising a master alloy intended to form the metal matrix, the master alloy being chosen from an iron-based alloy, a nickel-based alloy or an aluminium-based alloy; - an additional powder comprising at least one intermediate compound intended to incorporate, in the metal matrix, atoms intended to form the dispersed oxide particles; the intermediate compound intended to form the dispersed oxide particles being chosen from YFe 3, Y 2 O 3, Fe 2 O 3, Fe 2 Ti, FeCrWTi, TiH 2, TiO 2, Al 2 O 3, HfO 2, SiO 2, ZrO 2, ThO 2, MgO or their mixtures; - a parent metal powder comprising a master alloy intended to form the metal matrix, the master alloy being chosen from an iron-based alloy, a nickel-based alloy or an aluminium-based alloy; - an additional powder comprising at least one intermediate compound intended to incorporate, in the metal matrix, atoms intended to form the dispersed oxide particles; the intermediate compound intended to form the dispersed oxide particles being chosen from YFe 3, Y 2 O 3, Fe 2 O 3, Fe 2 Ti, FeCrWTi, TiH 2, TiO 2, Al 2 O 3, HfO 2, SiO 2, ZrO 2, ThO 2, MgO or their mixtures; ii) grinding the mixture of powders in a gaseous grinding medium according to a mechanical synthesis process in order to manufacture a precursor powder comprising a metal matrix incorporating said atoms; iii) subjecting the precursor powder to a thermal plasma generated by a plasma torch comprising a plasma gas, in order to obtain the reinforced alloy powder;