mhurhangee/ep-ind-claims huggingface dataset:
A sucker rod guide comprising a copper-nickel-tin alloy, wherein the copper-nickel-tin alloy is present on an exterior surface of the sucker rod guide, wherein the exterior surface has a first side and a second side, and at least one groove (573, 574) between the first side and second side, a longitudinal body having a first end, a second end, an outer body diameter, and the exterior surface; a smooth internal bore in the longitudinal body extending from the first end to the second end adapted to engage a sucker rod, and a sliding coefficient of friction of less than 0.4 when measured against carbon steel. a copper-nickel-tin alloy, wherein the copper-nickel-tin alloy is present on an exterior surface of the sucker rod guide, wherein the exterior surface has a first side and a second side, and at least one groove (573, 574) between the first side and second side, a longitudinal body having a first end, a second end, an outer body diameter, and the exterior surface; a smooth internal bore in the longitudinal body extending from the first end to the second end adapted to engage a sucker rod, and a sliding coefficient of friction of less than 0.4 when measured against carbon steel.
A method for producing methanol, comprising; producing oxygen in an air separation plant with air compressors driven by a gas turbine; heating a hydrocarbon feed stream using exhaust from the gas turbine; exothermically reacting a first portion of the heated hydrocarbon feed stream with at least one of steam or an oxidant gas comprising molecular oxygen to produce an exothermically generated syngas product; endothermically reforming a second portion of the hydrocarbon feed stream with steam over a catalyst in a heat exchange reformer to produce an endothermically-reformed syngas product, wherein at least a portion of heat used in generation of the endothermically-reformed syngas product is obtained by recovering heat from the exothermically-generated syngas product and the endothermically reformed syngas product; combining the exothermically generated syngas product and the endothermically-reformed syngas product to produce a combined syngas stream; producing steam in a waste heat boiler by cooling the combined syngas stream, wherein the cooled combined syngas is passed to the methanol plant at a pressure in a range from about 70 to 100 bars; separating water from the cooled combined syngas to produce a methanol plant feed at substantially reaction loop pressure and having less than about 2% molar methane content and less than about 0.2% molar water content; after separating water, passing the cooled combined syngas to a methanol plant; and combining methanol plant combustible effluent with methane fuel to the gas turbine, wherein the cooled combined syngas is passed to the methanol plant without using a feed stream compressor, wherein the cooled combined syngas is passed to the methanol plant at a pressure in a range from about 70 to 100 bars, and wherein the second portion of the hydrocarbon feed stream Includes a steam to active carbon ratio in a range of about 5.5 to 6.5 and wherein the endothermic reforming occurs at a pressure of about 70 bars or greater.
An illumination device comprising: a coherent light source which emits a coherent light; an optical scan unit which is capable of changing an optical path of the coherent light from the coherent light source; an optical path adjustment element on which the coherent light from the optical scan unit is incident, an incidence position (P1, P2, P3) of the coherent light on the optical path adjustment element varying depending on the optical path determined by the optical scan unit, an emission angle of the coherent light of the optical path adjustment element varying depending on the incidence position (P1, P2, P3); and a light diffusion element on which the coherent light from the optical path adjustment element is incident, the light diffusion element diffusing the coherent light and emitting diffused light, an emission angle of the diffused light varying depending on an incidence angle of the coherent light, wherein the optical path adjustment element makes the coherent light be incident on a particular range of the light diffusion element irrespective of the incidence position (P1, P2, P3) of the coherent light from the optical scan unit; wherein a plurality of illumination regions can be selectively illuminated with the diffused light emerging from the light diffusion element; and wherein the illumination region is changed depending on the incidence position (P1, P2, P3) of the coherent light on the optical path adjustment element. a coherent light source which emits a coherent light; an optical scan unit which is capable of changing an optical path of the coherent light from the coherent light source; an optical path adjustment element on which the coherent light from the optical scan unit is incident, an incidence position (P1, P2, P3) of the coherent light on the optical path adjustment element varying depending on the optical path determined by the optical scan unit, an emission angle of the coherent light of the optical path adjustment element varying depending on the incidence position (P1, P2, P3); and a light diffusion element on which the coherent light from the optical path adjustment element is incident, the light diffusion element diffusing the coherent light and emitting diffused light, an emission angle of the diffused light varying depending on an incidence angle of the coherent light, wherein the optical path adjustment element makes the coherent light be incident on a particular range of the light diffusion element irrespective of the incidence position (P1, P2, P3) of the coherent light from the optical scan unit; wherein a plurality of illumination regions can be selectively illuminated with the diffused light emerging from the light diffusion element; and wherein the illumination region is changed depending on the incidence position (P1, P2, P3) of the coherent light on the optical path adjustment element.
A two-plate closing unit for an injection moulding machine comprising: - a machine bed, - two mould mounting plates (2, 3) which are moveable relative to each other and of which the one mould mounting plate is displaceable along guides on the machine bed and the other mould mounting plate is fixedly connected to the machine bed, - at least one fast-stroke device for displacement of the mould mounting plates (2, 3) relative to each other, which has a spindle non-rotatably connected to the one mould mounting plate and a spindle nut which is in engagement with the spindle and is connected rotatably to the other mould mounting plate, - an electric motor in the form of a hollow-shaft motor for driving the spindle nut, wherein the spindle extends portion-wise in the hollow shaft, and - rods which pass through at least one of the mould mounting plates (2, 3), wherein the spindle is separate from the rods, characterised in that the spindle is non-rotatably connected to the mould mounting plate fixedly connected to the machine bed. - a machine bed, - two mould mounting plates (2, 3) which are moveable relative to each other and of which the one mould mounting plate is displaceable along guides on the machine bed and the other mould mounting plate is fixedly connected to the machine bed, - at least one fast-stroke device for displacement of the mould mounting plates (2, 3) relative to each other, which has a spindle non-rotatably connected to the one mould mounting plate and a spindle nut which is in engagement with the spindle and is connected rotatably to the other mould mounting plate, - an electric motor in the form of a hollow-shaft motor for driving the spindle nut, wherein the spindle extends portion-wise in the hollow shaft, and - rods which pass through at least one of the mould mounting plates (2, 3), wherein the spindle is separate from the rods,
A steerable catheter device comprising: a catheter body having a distal section, the distal section having: an inner lumen; a steering lumen radially offset from said inner lumen, and a fluid source in fluid communication with said steering lumen for supplying fluid thereto characterized in that said steering lumen has a diameter which is tapered from the distal end and along the longitudinal axis of said steering lumen, such that the proximal end has a diameter that is smaller than the diameter at the distal end, fluid supplied to said steering lumen radially distending the first end of said steering lumen such that said catheter body bends away from said steering lumen. a catheter body having a distal section, the distal section having: an inner lumen; a steering lumen radially offset from said inner lumen, and a fluid source in fluid communication with said steering lumen for supplying fluid thereto an inner lumen; a steering lumen radially offset from said inner lumen, and a fluid source in fluid communication with said steering lumen for supplying fluid thereto characterized in that said steering lumen has a diameter which is tapered from the distal end and along the longitudinal axis of said steering lumen, such that the proximal end has a diameter that is smaller than the diameter at the distal end, fluid supplied to said steering lumen radially distending the first end of said steering lumen such that said catheter body bends away from said steering lumen.
A pharmaceutical composition, wherein the pharmaceutical composition comprises one or more antisense oligonucleotides of 10-50 nucleobases in length which are complementary to a human mitochondrial chimeric RNA molecule comprising a sense or antisense 16S mitochondrial RNA covalently linked at its 5' end to the 3' end of a polynucleotide with an inverted repeat sequence, to be able to hybridize with that human mitochondrial chimeric RNA molecule to form a stable duplex, further wherein one or more of the oligonucleotides comprise at least one alternate internucleoside linkage.
A savoury concentrate having a water activity (A w) within the range of 0.15-0.6, said concentrate comprising: a) 40-55 wt.% of fat component, said fat component having a solid fat content at 20°C (N 20) of 6-20%; b) 3-30 wt.% of a particulate crystalline component selected from NaCl, KCI, sucrose, monosodium glutamate and combinations thereof, including at least 3% by weight of the composition of crystalline salt selected from NaCl, KCI and combinations thereof; c) 10-50 wt.% of particulate plant material selected from herbs, spices, vegetables and combinations thereof; d) 0-22 wt.% of particulate starch component; e) up to 10 wt.% of water; wherein the combination of components a) to e) constitutes at least 80 wt.% of the savoury concentrate, and wherein the fat component contains: • 4-20 wt.% of high melting triglycerides selected from PPP, POP and PPO wherein P represents palmitic acid and O represents oleic acid; and • 50-94 wt.% of low melting triglycerides selected from UUU, USU and UUS, wherein U represents unsaturated C 16-22 fatty acid and S represents saturated C 10-18 fatty acid. a) 40-55 wt.% of fat component, said fat component having a solid fat content at 20°C (N 20) of 6-20%; b) 3-30 wt.% of a particulate crystalline component selected from NaCl, KCI, sucrose, monosodium glutamate and combinations thereof, including at least 3% by weight of the composition of crystalline salt selected from NaCl, KCI and combinations thereof; c) 10-50 wt.% of particulate plant material selected from herbs, spices, vegetables and combinations thereof; d) 0-22 wt.% of particulate starch component; e) up to 10 wt.% of water; wherein the combination of components a) to e) constitutes at least 80 wt.% of the savoury concentrate, and wherein the fat component contains: • 4-20 wt.% of high melting triglycerides selected from PPP, POP and PPO wherein P represents palmitic acid and O represents oleic acid; and • 50-94 wt.% of low melting triglycerides selected from UUU, USU and UUS, wherein U represents unsaturated C 16-22 fatty acid and S represents saturated C 10-18 fatty acid. • 4-20 wt.% of high melting triglycerides selected from PPP, POP and PPO wherein P represents palmitic acid and O represents oleic acid; and • 50-94 wt.% of low melting triglycerides selected from UUU, USU and UUS, wherein U represents unsaturated C 16-22 fatty acid and S represents saturated C 10-18 fatty acid.
An optical waveguide comprising - a waveguide body capable of guiding light in a waveguide plane in two dimensions, and - a diffractive optical element provided on a surface or within the waveguide body, the diffractive optical element extending in said two dimensions and each location of the diffractive optical element having a diffractive optical response for light directed thereto, wherein - the diffractive optical element is a multi-region element comprising a plurality of constant-response regions each having a constant diffractive optical response, and intermediate regions between said constant-response regions; characterized in that - each of the intermediate regions being adjacent at least a first and a second constant-response region of said plurality of constant-response regions, said constant diffractive optical response of said first constant-response region having a first value, said constant diffractive optical response of said second constant-response region having a second value different from said first value, and said intermediate region being configured such that the diffractive optical response of said intermediate region has a continuous transition in the waveguide plane from said first value to said second value - a waveguide body capable of guiding light in a waveguide plane in two dimensions, and - a diffractive optical element provided on a surface or within the waveguide body, the diffractive optical element extending in said two dimensions and each location of the diffractive optical element having a diffractive optical response for light directed thereto, - the diffractive optical element is a multi-region element comprising a plurality of constant-response regions each having a constant diffractive optical response, and intermediate regions between said constant-response regions; characterized in that - each of the intermediate regions being adjacent at least a first and a second constant-response region of said plurality of constant-response regions, said constant diffractive optical response of said first constant-response region having a first value, said constant diffractive optical response of said second constant-response region having a second value different from said first value, and said intermediate region being configured such that the diffractive optical response of said intermediate region has a continuous transition in the waveguide plane from said first value to said second value
An inkjet head comprising: an ink chamber forming member (1;6) that has an ink inlet (11b;632) of an ink chamber (11;111;631) from which an ink can be discharged and an individual electrode (12;651) to which a voltage for providing the ink in the ink chamber (11;111;631) with discharge energy is to be applied arranged on one side thereof; and a substrate (3;7) provided on the one side of the ink chamber forming member (1;6), wherein a first through hole (31;71) that communicates with the ink inlet (11b;632) of the ink chamber forming member (1;6) to form an ink channel is provided in the substrate (3;7), and one end side of a wiring line (32;72) which is electrically connected with the individual electrode (12;651) is led out to a surface (3b;7b) of the substrate (3;7) on the opposite side of the ink chamber forming member (1;6) via the first through hole (31;71), wherein the one end side of the wiring line (32;72) is formed on a surface (3a;7a) of the substrate (3;7) on the ink chamber forming member side and is electrically connected with the individual electrode (12;651) on the surface (3a;7a), characterized in that the substrate (3;7) has a projecting portion that protrudes toward a lateral side of the ink chamber forming member (1;6) and is arranged to be electrically connected with an external wiring member, and wherein the other end side of the wiring line (32;72) extends to the projecting portion. an ink chamber forming member (1;6) that has an ink inlet (11b;632) of an ink chamber (11;111;631) from which an ink can be discharged and an individual electrode (12;651) to which a voltage for providing the ink in the ink chamber (11;111;631) with discharge energy is to be applied arranged on one side thereof; and a substrate (3;7) provided on the one side of the ink chamber forming member (1;6), wherein a first through hole (31;71) that communicates with the ink inlet (11b;632) of the ink chamber forming member (1;6) to form an ink channel is provided in the substrate (3;7), and one end side of a wiring line (32;72) which is electrically connected with the individual electrode (12;651) is led out to a surface (3b;7b) of the substrate (3;7) on the opposite side of the ink chamber forming member (1;6) via the first through hole (31;71), wherein the one end side of the wiring line (32;72) is formed on a surface (3a;7a) of the substrate (3;7) on the ink chamber forming member side and is electrically connected with the individual electrode (12;651) on the surface (3a;7a), characterized in that the substrate (3;7) has a projecting portion that protrudes toward a lateral side of the ink chamber forming member (1;6) and is arranged to be electrically connected with an external wiring member, and wherein the other end side of the wiring line (32;72) extends to the projecting portion.
A method performed by a terminal for providing fast and flexible call setup, the method comprising: establishing a plurality of phantom channels over a bearer channel using a Fast Media procedure, whereby the Fast Media procedure bypasses any capability negotiation; preassigning at least one of the plurality of phantom channels to a first session negotiation method, wherein the first session negotiation method comprises at least a Fast Logical Channel Setup procedure, wherein the Fast Logical Channel Setup procedure comprises a flexible H.245-type logical channel operation point negotiation; preassigning at least one of remaining phantom channels of the plurality of phantom channels to a second session negotiation method, wherein the second session negotiation method has at least one property different from the first session negotiation method; and characterised in that, if the establishment of one of the phantom channels fails, the Fast Logical Channel Setup procedure rather than the second session negotiation method is invoked, whereby either the presence of an implementation of the Fast Logical Channel Setup procedure is signaled during a Fast Media procedure using an H.245 Terminal Capability Set message, or the Fast Logical Channel Setup procedure is started in a state FM_trying of the Fast Media procedure, before the H.245 Terminal Capability Set message has been received by sending Fast Logical Channel Setup codepoints over a preassigned bearer channel. establishing a plurality of phantom channels over a bearer channel using a Fast Media procedure, whereby the Fast Media procedure bypasses any capability negotiation; preassigning at least one of the plurality of phantom channels to a first session negotiation method, wherein the first session negotiation method comprises at least a Fast Logical Channel Setup procedure, wherein the Fast Logical Channel Setup procedure comprises a flexible H.245-type logical channel operation point negotiation; preassigning at least one of remaining phantom channels of the plurality of phantom channels to a second session negotiation method, wherein the second session negotiation method has at least one property different from the first session negotiation method; and characterised in that, if the establishment of one of the phantom channels fails, the Fast Logical Channel Setup procedure rather than the second session negotiation method is invoked, whereby either the presence of an implementation of the Fast Logical Channel Setup procedure is signaled during a Fast Media procedure using an H.245 Terminal Capability Set message, or the Fast Logical Channel Setup procedure is started in a state FM_trying of the Fast Media procedure, before the H.245 Terminal Capability Set message has been received by sending Fast Logical Channel Setup codepoints over a preassigned bearer channel.
Gas turbine assembly, substantially comprising a compressor unit consisting of at least one compressor, at least one generator, at least one combustion chamber and at least one turbine, wherein the exhaust gases from the turbine can be supplied to a further thermal use, characterised in that the gas turbine assembly is equipped with at least one separate cooling fluid compressor, that this cooling fluid compressor can be supplied with fresh air and with a proportion of a recirculated exhaust gas, and that the fluid compressed in the cooling fluid compressor can be supplied for cooling thermally loaded components.
Conductor for power transportation, the conductor comprising - an elongated core constructed from a core material and - an elongated conductive casing constructed from a conductive material, wherein the elongated conductive casing is positioned around the elongated core and is constructed from various layers of wires, each layer of wires consisting of a set of wires which are positioned next to each other, and wherein at least a fraction of these wires are shaped in such a way that for the cross section of the wire, a circumscribed circle is filled only between 50% and 90% with wire material and that the cross section of the wire has a central portion filled with wire material and has a plurality of protrusions, wherein the shape of the wires is such that the wires are prevented from sliding into each other, and wherein the shape of these wires is such that the space taken up by the wire in a stack of the wires in the layers is substantially cylindrical. - an elongated core constructed from a core material and - an elongated conductive casing constructed from a conductive material, wherein the elongated conductive casing is positioned around the elongated core and is constructed from various layers of wires, each layer of wires consisting of a set of wires which are positioned next to each other, and wherein at least a fraction of these wires are shaped in such a way that for the cross section of the wire, a circumscribed circle is filled only between 50% and 90% with wire material and that the cross section of the wire has a central portion filled with wire material and has a plurality of protrusions, wherein the shape of the wires is such that the wires are prevented from sliding into each other, and wherein the shape of these wires is such that the space taken up by the wire in a stack of the wires in the layers is substantially cylindrical.