mhurhangee/ep-ind-claims huggingface dataset:
A method for treating a liquid comprising the steps of providing a pump volute or hydrocyclone head having an inlet and an outlet, a throat (506, 602) having a first opening, a second opening and a central axis, wherein the first opening is connected to the output of the pump volute or hydrocyclone head, a parabolic reflector connected to the throat (506, 602), an actuator or a pushrod, and characterized by: providing a wave energy source comprising a first electrode within the pump volute or hydrocylone head that extends through the outlet of-the pump volute or hydrocyclone head into the first opening of the throat (506, 602) along the central axis of the throat (506, 602), and a second electrode extending into the parabolic reflector that is spaced apart and axially aligned with first electrode along the central axis; striking and maintaining an arc between the first electrode and the second electrode using the actuator or the pushrod; and passing the liquid into the inlet of the pump volute or hydrocyclone head, through the pump volute or hydrocyclone head, out of the pump volute or hydrocyclone head, into the first opening of the throat (506, 602), through the throat (506, 602), out of the second opening of the throat (506, 602), and into the parabolic reflector such that the liquid forms a thin film that-whirls around along a vortex path in close proximity to the wave energy source and is irradiated by one or more wave energies. providing a wave energy source comprising a first electrode within the pump volute or hydrocylone head that extends through the outlet of-the pump volute or hydrocyclone head into the first opening of the throat (506, 602) along the central axis of the throat (506, 602), and a second electrode extending into the parabolic reflector that is spaced apart and axially aligned with first electrode along the central axis; striking and maintaining an arc between the first electrode and the second electrode using the actuator or the pushrod; and passing the liquid into the inlet of the pump volute or hydrocyclone head, through the pump volute or hydrocyclone head, out of the pump volute or hydrocyclone head, into the first opening of the throat (506, 602), through the throat (506, 602), out of the second opening of the throat (506, 602), and into the parabolic reflector such that the liquid forms a thin film that-whirls around along a vortex path in close proximity to the wave energy source and is irradiated by one or more wave energies.
A rubber composition comprising: from 75 to 85 phr of a styrene-butadiene rubber having a bound styrene content of from 30 to 50 percent by weight, a vinyl 1,2 content of from 10 to 30 percent by weight based on the rubber weight, and a Tg (ASTM D3418) in a range of from -40oC to - 20oC; from 0 to 25 phr, alternatively from 5 phr to 15 phr, of natural rubber or synthetic polyisoprene; from 0 to 20 phr, alternatively from 5 phr to 15 phr, of cis-1,4 polybutadiene having a Tg (ASTM D3418) in a range of from -110oC to -90oC; from 100 to 150 phr of silica; from 20 to 40 phr of a combination resin comprising a polyterpene resin, an alkylphenol formaldehyde resin, and a rosin acid; from 30 to 60 phr of oil; and from 5 to 25 phr of a sulfur containing organosilicon compound. from 75 to 85 phr of a styrene-butadiene rubber having a bound styrene content of from 30 to 50 percent by weight, a vinyl 1,2 content of from 10 to 30 percent by weight based on the rubber weight, and a Tg (ASTM D3418) in a range of from -40oC to - 20oC; from 0 to 25 phr, alternatively from 5 phr to 15 phr, of natural rubber or synthetic polyisoprene; from 0 to 20 phr, alternatively from 5 phr to 15 phr, of cis-1,4 polybutadiene having a Tg (ASTM D3418) in a range of from -110oC to -90oC; from 100 to 150 phr of silica; from 20 to 40 phr of a combination resin comprising a polyterpene resin, an alkylphenol formaldehyde resin, and a rosin acid; from 30 to 60 phr of oil; and from 5 to 25 phr of a sulfur containing organosilicon compound.
A system for processing a work piece using both a charged particle beam and a laser beam, the system comprising: a vacuum chamber (112, 201, 314, 413, 510, 622) for containing a first work piece (104, 213, 316, 416, 516, 617); a charged particle beam column (110, 208, 310, 412, 511, 611, 612) for processing the first work piece in the vacuum chamber; a source (100, 203, 601) of a first laser beam (103, 209, 618) for processing the first work piece; a source (100, 204, 601) of a second laser beam (115,211, 620) for processing the first work piece or a second work piece (104, 213, 617), the first laser beam and the second laser beam having different beam properties, and at least one of the source of the first laser or the source of the second laser being adapted to direct the first laser beam or the second laser beam to the first or second work piece in the vacuum chamber, characterized in that the source of the first laser beam and the source of the second laser beam include a single laser beam generator, and at least one of the source of the first laser beam and the source of the second laser beam includes a beam conditioner (101, 603) to alter the frequency, intensity or pulse width or duration of the beam generated by the beam generator. a vacuum chamber (112, 201, 314, 413, 510, 622) for containing a first work piece (104, 213, 316, 416, 516, 617); a charged particle beam column (110, 208, 310, 412, 511, 611, 612) for processing the first work piece in the vacuum chamber; a source (100, 203, 601) of a first laser beam (103, 209, 618) for processing the first work piece; a source (100, 204, 601) of a second laser beam (115,211, 620) for processing the first work piece or a second work piece (104, 213, 617), the first laser beam and the second laser beam having different beam properties, and at least one of the source of the first laser or the source of the second laser being adapted to direct the first laser beam or the second laser beam to the first or second work piece in the vacuum chamber, characterized in that the source of the first laser beam and the source of the second laser beam include a single laser beam generator, and at least one of the source of the first laser beam and the source of the second laser beam includes a beam conditioner (101, 603) to alter the frequency, intensity or pulse width or duration of the beam generated by the beam generator.
Landing system for a spacecraft, with a foldable tether-based carrier structure configured to unfold when rotating and to assume a wheel-type shape supporting in its center a rigid carrier platform for a payload, wherein the tether-based carrier structure comprises a number of tethers each emanating from the rigid carrier platform, characterised in that the tether-based carrier structure comprises a number of perimetric tethers which, when in rotation, shape the outer circumference of a wheel like structure.
A transesterified oil and fat characterized by a lauric acid content of 5 to 25 wt%, a palmitic acid content of 5 to 25 wt% and a stearic acid content of 10 to 35 wt% with respect to all constituent fatty acids, and a weight ratio of stearic acid/palmitic acid of 0.5 to 3, wherein a rising melting point is 30 to 40 °C, a solid fat content at 20 °C is 20 to 50%, and an SFC at 35 °C is 12% or less.
A three-dimensional structure metamaterial preparation method, the preparation method comprising the following steps: making a formed substrate according to a shape of a three-dimensional structure metamaterial; dividing the surface of the three-dimensional structure metamaterial according to a Gaussian curvature of the surface into geometrical areas formed by parts of the surface with similar Gaussian curvature wherein the geometric areas are expandable into planes; arranging artificial microstructures onto a flexible substrate; attaching the flexible substrate onto the formed substrate; and performing thermosetting formation; wherein the flexible substrate is attached onto the surface of the formed substrate in the following steps: expanding each of the geometric areas into a respective plane, cutting the flexible substrate into multiple flexible subsubstrates corresponding to the respective planes, and attaching the flexible subsubstrates to the respective geometric areas of the formed substrate. making a formed substrate according to a shape of a three-dimensional structure metamaterial; dividing the surface of the three-dimensional structure metamaterial according to a Gaussian curvature of the surface into geometrical areas formed by parts of the surface with similar Gaussian curvature wherein the geometric areas are expandable into planes; arranging artificial microstructures onto a flexible substrate; attaching the flexible substrate onto the formed substrate; and performing thermosetting formation; expanding each of the geometric areas into a respective plane, cutting the flexible substrate into multiple flexible subsubstrates corresponding to the respective planes, and attaching the flexible subsubstrates to the respective geometric areas of the formed substrate.
Method for producing a laminate for shielding electromagnetic radiation, comprising the steps of: arranging a first layer of plastic, a second layer of plastic and an insert arranged between the first and second layers of plastic, wherein the insert is designed for shielding electromagnetic radiation; heating the laminate to a moulding temperature by means of a heating device; and moulding the laminate into a predetermined shape by means of a moulding device, characterized in that the laminate is encapsulated with a thermoplastic material by means of an injection-moulding device. arranging a first layer of plastic, a second layer of plastic and an insert arranged between the first and second layers of plastic, wherein the insert is designed for shielding electromagnetic radiation; heating the laminate to a moulding temperature by means of a heating device; and moulding the laminate into a predetermined shape by means of a moulding device, characterized in that the laminate is encapsulated with a thermoplastic material by means of an injection-moulding device.
The use of an electrical cable having a cable core and an external jacket with an exterior surface defining the outermost exterior surface of the cable wherein the external jacket of the cable is formed of extruded plastic material characterized in that: the electrical cable is utilised in installation through wall or ceiling cavities conduits or ducts; the cable core is comprised of an electrical conductor; the jacket incorporates lubricating material that blooms, migrates toward the exterior surface of or permeates the jacket, the jacket being formed by incorporating lubricating material into the jacket during or prior to the extruding; and the jacket contains sufficient lubricating material to provide a reduced coefficient of friction of the exterior surface of said external jacket sufficient to reduce an amount of force required to pull the cable through said wall or ceiling cavities conduits or ducts during its installation. the electrical cable is utilised in installation through wall or ceiling cavities conduits or ducts; the cable core is comprised of an electrical conductor; the jacket incorporates lubricating material that blooms, migrates toward the exterior surface of or permeates the jacket, the jacket being formed by incorporating lubricating material into the jacket during or prior to the extruding; and the jacket contains sufficient lubricating material to provide a reduced coefficient of friction of the exterior surface of said external jacket sufficient to reduce an amount of force required to pull the cable through said wall or ceiling cavities conduits or ducts during its installation.
A murine monoclonal antibody that antagonistically inhibits the binding of the vascular endothelial growth factor to the receptor thereof, characterized by that: the amino acid sequence of the light-chain variable region of this antibody is shown by SEQ ID NO:1, and the amino acid sequence of the heavy-chain variable region is shown by SEQ ID NO:2.
A permanent magnet, wherein a work face of the permanent magnet comprises a first edge and a second edge which are perpendicular to each other, a head endpoint of the first edge is connected to a tail endpoint of the second edge by means of a transition edge, the transition edge is located at a side, adjacent to a center of the work face, of a line connecting the head endpoint with the tail endpoint, and the transition edge comprises at least one sub-arc segment, or a combination of at least one sub-arc segment and at least one sub-straight segment; characterized by: wherein a first extension line, extending from the head endpoint, of the first edge intersects a second extension line, extending from the tail endpoint, of the second edge at a point of intersection, and the permanent magnet satisfies WL / W 2 + L 2 ≤ Dx ≤ 0.9 W 2 + L 2; wherein W denotes a distance between the point of intersection and the head endpoint, L denotes a distance between the point of intersection and the tail endpoint, Dx denotes a distance between the point of intersection and a midpoint of any sub-arc segment. wherein a first extension line, extending from the head endpoint, of the first edge intersects a second extension line, extending from the tail endpoint, of the second edge at a point of intersection, and the permanent magnet satisfies WL / W 2 + L 2 ≤ Dx ≤ 0.9 W 2 + L 2; wherein W denotes a distance between the point of intersection and the head endpoint, L denotes a distance between the point of intersection and the tail endpoint, Dx denotes a distance between the point of intersection and a midpoint of any sub-arc segment.
A display device comprising a display panel for actively displaying transparent images, and first and second light sources, the display device comprising: a light redirection element for directing light through the display panel and having a first groove structure; the first light source; the second light source; a light guide for directing light towards the light redirection element and having a second groove structure; the first light source being coupled to the light guide so as to couple light into the light guide in a first direction; the second light source being coupled to the light guide so as to couple light into the light guide in a second direction; and the display being characterized by the first and second groove structures (9, 7) being arranged in a configuration operable to direct light from the first light source through the display panel with a first angular distribution and light from the second light source with a second angular distribution. a light redirection element for directing light through the display panel and having a first groove structure; the first light source; the second light source; a light guide for directing light towards the light redirection element and having a second groove structure; the first light source being coupled to the light guide so as to couple light into the light guide in a first direction; the second light source being coupled to the light guide so as to couple light into the light guide in a second direction; and the display being characterized by the first and second groove structures (9, 7) being arranged in a configuration operable to direct light from the first light source through the display panel with a first angular distribution and light from the second light source with a second angular distribution.
Use of an indexable insert suitable for chamfering, which is provided with cutting edges and a bore from the flank to the bearing surface of the indexable insert for the passage of a fastening means having a head, and with a possibility of turning by rotating the indexable insert about the axis of the bore, and has shallow hollows formed in the flank, said hollows producing in each case an indented cutting edge (24; 25) with outlets at rake faces, characterized in that the cutting edges are ground, and in that the use is carried out for rounding edges of a workpiece only by lips with one of the indented cutting edges by means of a conical or cylindrical milling head.
A sealing device comprising: i. A waterproofing membrane having a first and a second primary exterior surface, ii. An adhesive sealant layer covering at least portion of the second primary exterior surface of the waterproofing membrane, and iii. Optionally a release liner, wherein the adhesive sealant layer is composed of a first composition comprising: a) At least one elastomer, b) At least one at 25 °C liquid polyolefin resin, and c) At least one inert mineral filler, wherein the first composition comprises less than 20 wt.-%, preferably less than 15 wt.-%, based on the total weight of the first composition, of water-swellable mineral fillers. i. A waterproofing membrane having a first and a second primary exterior surface, ii. An adhesive sealant layer covering at least portion of the second primary exterior surface of the waterproofing membrane, and iii. Optionally a release liner, wherein the adhesive sealant layer is composed of a first composition comprising: a) At least one elastomer, b) At least one at 25 °C liquid polyolefin resin, and c) At least one inert mineral filler, wherein the first composition comprises less than 20 wt.-%, preferably less than 15 wt.-%, based on the total weight of the first composition, of water-swellable mineral fillers. a) At least one elastomer, b) At least one at 25 °C liquid polyolefin resin, and c) At least one inert mineral filler,
An actuator for driving a rotatable component, comprising: a first, rotating member comprising a screw; a second member comprising a nut threaded to said screw, wherein rotation of said first member causes axial movement of said first or second member (12, 14); a third member coupled to said second member, wherein axial movement of said first or second member (12, 14) causes axial movement of said third member; a fourth, rotating member coupled to said third member and connectable to said component; and a bearing system located between said third member and said fourth member, said bearing system configured to cause said fourth member to rotate upon said axial movement of said third member so as to drive said component; wherein said bearing system comprises roller bearings axially moveable with said third member, or rotatable with said fourth member; characterized in that said fourth member comprises a first helical rail configured to contact said roller bearings, and said third member comprises a second helical rail configured to contact said roller bearings. a first, rotating member comprising a screw; a second member comprising a nut threaded to said screw, wherein rotation of said first member causes axial movement of said first or second member (12, 14); a third member coupled to said second member, wherein axial movement of said first or second member (12, 14) causes axial movement of said third member; a fourth, rotating member coupled to said third member and connectable to said component; and a bearing system located between said third member and said fourth member, said bearing system configured to cause said fourth member to rotate upon said axial movement of said third member so as to drive said component; wherein said bearing system comprises roller bearings axially moveable with said third member, or rotatable with said fourth member; characterized in that said fourth member comprises a first helical rail configured to contact said roller bearings, and said third member comprises a second helical rail configured to contact said roller bearings.
A pump apparatus for a large diesel engine, wherein the pump apparatus includes: a scavenging inlet, a scavenging line, wherein the scavenging inlet is in flow communication with the scavenging line, and a closing element, wherein the closing element is made from a first material and the first material has a different thermal coefficient of expansion than a second material in which the scavenging inlet is formed and the closing element is configured and is arranged at the scavenging inlet such that the scavenging inlet can be closed by the closing element in dependence on the temperature characterized in that the pump apparatus includes a spring chamber and the spring chamber is arranged in a region between the scavenging inlet and a scavenging outlet, wherein the scavenging inlet and the spring chamber are in flow communication with by the scavenging line so that the scavenging fluid can flow into the spring chamber with an open scavenging inlet. a scavenging inlet, a scavenging line, wherein the scavenging inlet is in flow communication with the scavenging line, and a closing element, wherein the closing element is made from a first material and the first material has a different thermal coefficient of expansion than a second material in which the scavenging inlet is formed and the closing element is configured and is arranged at the scavenging inlet such that the scavenging inlet can be closed by the closing element in dependence on the temperature characterized in that the pump apparatus includes a spring chamber and the spring chamber is arranged in a region between the scavenging inlet and a scavenging outlet, wherein the scavenging inlet and the spring chamber are in flow communication with by the scavenging line so that the scavenging fluid can flow into the spring chamber with an open scavenging inlet.
A composition for lead-acid battery construction comprising: a plurality of discrete carbon nanotube fibers, the nanotubes having an aspect ratio of 10 to 500; wherein the carbon nanotube fibers have an oxidation level from 1 weight percent to 15 weight percent, wherein the oxidation level is the amount by weight of oxygenated species covalently bound to carbon nanotube. a plurality of discrete carbon nanotube fibers, the nanotubes having an aspect ratio of 10 to 500; wherein the carbon nanotube fibers have an oxidation level from 1 weight percent to 15 weight percent, wherein the oxidation level is the amount by weight of oxygenated species covalently bound to carbon nanotube.
A separator arrangement, comprising a separator having a drum with a vertical rotational axis, which is placed onto a rotatable drive spindle and is surrounded by a hood, and which is rotatable in operation by a drive device having a speed of more than 1000 rpm and preferably less than 8500 rpm, characterized by a dividing wall which divides the separator arrangement into a sanitary chamber with the drum and the hood and into a drive chamber with the drive device, wherein the separator with a machine frame having the hood and the drum and the drive device is decoupled as a unit in vibration terms from the dividing wall and optionally from a foundation attachment, wherein the sanitary chamber is arranged above the dividing wall and the drive chamber beneath the dividing wall.