mhurhangee/ep-ind-claims huggingface dataset:
A 3D-printed product made of an alloy comprising a metal matrix and grains of carbides embedded in the metal matrix; wherein the alloy comprises Carbon: equal to or greater than 2.47 and equal to or less than 2.55 weight%, Tungsten: equal to or greater than 10 and equal to or less than 12 weight%, Chromium: equal to or greater than 3.5 and equal to or less than 4.5 weight% Cobalt: equal to or greater than 14 and equal to or less than 18 weight%; Molybdenum: equal to or greater than 4 and equal to or less than 6 weight%; Vanadium: equal to or greater than 5 and equal to or less than 8 weight%; optionally trace amount of impurities; Iron: balance; and wherein the total amount of carbide is 20-30 volume%. wherein the alloy comprises Carbon: equal to or greater than 2.47 and equal to or less than 2.55 weight%, Tungsten: equal to or greater than 10 and equal to or less than 12 weight%, Chromium: equal to or greater than 3.5 and equal to or less than 4.5 weight% Cobalt: equal to or greater than 14 and equal to or less than 18 weight%; Molybdenum: equal to or greater than 4 and equal to or less than 6 weight%; Vanadium: equal to or greater than 5 and equal to or less than 8 weight%; optionally trace amount of impurities; Iron: balance; and Carbon: equal to or greater than 2.47 and equal to or less than 2.55 weight%, Tungsten: equal to or greater than 10 and equal to or less than 12 weight%, Chromium: equal to or greater than 3.5 and equal to or less than 4.5 weight% Cobalt: equal to or greater than 14 and equal to or less than 18 weight%; Molybdenum: equal to or greater than 4 and equal to or less than 6 weight%; Vanadium: equal to or greater than 5 and equal to or less than 8 weight%; optionally trace amount of impurities; Iron: balance; and wherein the total amount of carbide is 20-30 volume%.
An improved asphaltene separation process, comprising the steps: a. a target feedstock is mixed with a solvent; b. the feedstock/solvent mix is introduced near to the top of a separator having three parts in fluid communication, spaced vertically: i. an upper section ii. a middle section, and iii. a lower section; c. fresh solvent is introduced to the middle section; d. fresh solvent is introduced to the lower portion of the lower section; e. a DAO-rich solvent/DAO solution is removed from near the top of the upper section; f. a slurry of particulate asphaltene solid precipitate and solvent is removed at an outlet near, or at the bottom of, the lower section; g. the removed slurry of particulate asphaltene solid precipitate and solvent is processed in a low temperature inertial separator unit creating a dry solid asphaltene stream and a recovered solvent stream; and h. the DAO-rich solvent/DAO stream is sent to a stripping unit to create a product DAO stream and a recovered solvent stream, wherein the middle section of the separator has a diameter of between 8 to 55% of the upper section. a. a target feedstock is mixed with a solvent; b. the feedstock/solvent mix is introduced near to the top of a separator having three parts in fluid communication, spaced vertically: i. an upper section ii. a middle section, and iii. a lower section; i. an upper section ii. a middle section, and iii. a lower section; c. fresh solvent is introduced to the middle section; d. fresh solvent is introduced to the lower portion of the lower section; e. a DAO-rich solvent/DAO solution is removed from near the top of the upper section; f. a slurry of particulate asphaltene solid precipitate and solvent is removed at an outlet near, or at the bottom of, the lower section; g. the removed slurry of particulate asphaltene solid precipitate and solvent is processed in a low temperature inertial separator unit creating a dry solid asphaltene stream and a recovered solvent stream; and h. the DAO-rich solvent/DAO stream is sent to a stripping unit to create a product DAO stream and a recovered solvent stream, wherein the middle section of the separator has a diameter of between 8 to 55% of the upper section.
A computer-implemented method for creating a model of the geological properties in a volume of the earth, the method comprising: distributing a plurality of points (210, 215, 220, 230, 305, 606, 608, 610, 612, 614, 616, 618, 620, 622, 624, 626, 628, 630, 632, 634, 636, 638) in the volume in the absence of a grid, each point having a location; assigning a first vector to a first point of the plurality of points, the first vector having a length, a magnitude, and a direction derived from a geological property in the neighborhood of the location of the first point; the magnitude of the first vector representing the value of the geological property in the neighborhood of the first point; the direction of the first vector representing the direction of maximum continuity, the direction of maximum continuity being the direction in the volume along which the magnitude of the geological property stays substantially the same for the greatest distance when moving away from the first point; and the length of the first vector representing the distance through the volume from the first point in the direction of the first vector that the magnitude and direction of maximum continuity of the geological property stay substantially the same. distributing a plurality of points (210, 215, 220, 230, 305, 606, 608, 610, 612, 614, 616, 618, 620, 622, 624, 626, 628, 630, 632, 634, 636, 638) in the volume in the absence of a grid, each point having a location; assigning a first vector to a first point of the plurality of points, the first vector having a length, a magnitude, and a direction derived from a geological property in the neighborhood of the location of the first point; the magnitude of the first vector representing the value of the geological property in the neighborhood of the first point; the direction of the first vector representing the direction of maximum continuity, the direction of maximum continuity being the direction in the volume along which the magnitude of the geological property stays substantially the same for the greatest distance when moving away from the first point; and the length of the first vector representing the distance through the volume from the first point in the direction of the first vector that the magnitude and direction of maximum continuity of the geological property stay substantially the same.
A manufacturing method of a semiconductor device, comprising the steps of: forming a first film that contains an oxide including at least a first metal element and a second metal element, over a substrate; segregating the first metal element to a surface of the first film by heating, the first film thereby becoming a crystal in form of a crystalline semi-conductive first layer that contains a crystal of an oxide including the first metal element as a main metal component and an insulating second layer that is on a side closer to the substrate than the first layer and contains an oxide including the second metal element as a main metal component; forming a semi-conductive oxide film as second film that is in contact with the first layer; and heating the first layer and the second film to crystallize the second film using the crystal of the semi-conductive first layer as a nucleus, wherein the vapor pressure of the first metal element is higher than the vapor pressure of the second metal element under the heating conditions of the first film. forming a first film that contains an oxide including at least a first metal element and a second metal element, over a substrate; segregating the first metal element to a surface of the first film by heating, the first film thereby becoming a crystal in form of a crystalline semi-conductive first layer that contains a crystal of an oxide including the first metal element as a main metal component and an insulating second layer that is on a side closer to the substrate than the first layer and contains an oxide including the second metal element as a main metal component; forming a semi-conductive oxide film as second film that is in contact with the first layer; and heating the first layer and the second film to crystallize the second film using the crystal of the semi-conductive first layer as a nucleus, wherein the vapor pressure of the first metal element is higher than the vapor pressure of the second metal element under the heating conditions of the first film.
An optical modulator control system implemented in an optical burst mode transmitter, said control system comprising: means for measuring a plurality of optical power sample values and associated optical wavelength data values from a modulator at a first sampling rate, wherein an average power table is adapted to be generated from said values for each sample period and stored in a memory; and means for performing a control error calculation from two or more generated stored average power tables adapted to be selected at a second sampling rate to calculate a single error value to provide gain and/or bias control signals, wherein the second sample rate is sampled at a slower rate than the first sample rate. means for measuring a plurality of optical power sample values and associated optical wavelength data values from a modulator at a first sampling rate, wherein an average power table is adapted to be generated from said values for each sample period and stored in a memory; and means for performing a control error calculation from two or more generated stored average power tables adapted to be selected at a second sampling rate to calculate a single error value to provide gain and/or bias control signals, wherein the second sample rate is sampled at a slower rate than the first sample rate.
Method for inoculation of plants to be mycorrhized with spores comprising the following steps: A) disintegration of a fruiting body of a fungus to obtain spores; B) preparation of a suspension of said spores in sterile water; C) inoculation of non-woven fabric comprising polylactic acid fibers by imbibition in said spore suspension; D) wrapping a root system of a plant to be mycorrhized with said soaked non-woven fabric. A) disintegration of a fruiting body of a fungus to obtain spores; B) preparation of a suspension of said spores in sterile water; C) inoculation of non-woven fabric comprising polylactic acid fibers by imbibition in said spore suspension; D) wrapping a root system of a plant to be mycorrhized with said soaked non-woven fabric.
An engine casing for a gas turbine engine comprising: a casing wall; and a fluid conduit integrated into the casing wall; characterised in that: said casing wall is discontinuous and integrates a segment of conduit, the conduit segment fully defining a fluid routing channel and further forming a structural portion of the casing wall. a casing wall; and a fluid conduit integrated into the casing wall; characterised in that: said casing wall is discontinuous and integrates a segment of conduit, the conduit segment fully defining a fluid routing channel and further forming a structural portion of the casing wall. said casing wall is discontinuous and integrates a segment of conduit, the conduit segment fully defining a fluid routing channel and further forming a structural portion of the casing wall.
An air conditioner comprising: a case comprising a suction panel with a suction port configured to receive air; at least one ion generator (20, 200, 20a) disposed at the suction panel adjacent to the suction port and configured to generate ions in the air to be received through the suction port, wherein the at least one ion generator (20, 200, 20a) is configured to provide ions toward an outside of the case in a direction having a preset angle (d) with respect to an outer surface of the suction panel, characterized in that the suction panel defines at least one installation groove recessed from the outer surface of the suction panel and accommodating the at least one ion generator therein, and the at least one installation groove is defined at at least one side of the suction port, a central axis of the installation groove is inclined with respect to the suction panel by the preset angle (d) and the ion generator installed at the central axis of the installation groove. a case comprising a suction panel with a suction port configured to receive air; at least one ion generator (20, 200, 20a) disposed at the suction panel adjacent to the suction port and configured to generate ions in the air to be received through the suction port, wherein the at least one ion generator (20, 200, 20a) is configured to provide ions toward an outside of the case in a direction having a preset angle (d) with respect to an outer surface of the suction panel, characterized in that the suction panel defines at least one installation groove recessed from the outer surface of the suction panel and accommodating the at least one ion generator therein, and the at least one installation groove is defined at at least one side of the suction port, a central axis of the installation groove is inclined with respect to the suction panel by the preset angle (d) and the ion generator installed at the central axis of the installation groove.
An immunochromatographic test piece for extracting and measuring a sugar chain antigen in a specimen, the immunochromatographic test piece comprising: a sample pad to which a specimen mixed with nitrite or an acid solution is added; a label region comprising a labeled antibody obtained by labeling an antibody against the sugar chain antigen; and a detection region on which the antibody against the sugar chain antigen is immobilized, wherein an antibody-sugar chain antigen-labeled antibody complex is formed in the detection region to measure the sugar chain antigen, and the immunochromatographic test piece having a region impregnated with a neutralizing reagent upstream of the label region, and further having a region impregnated with a solid acid reagent when the specimen mixed with the nitrite is used, or a region impregnated with nitrite when the specimen mixed with the acid solution is used, upstream of the region impregnated with the neutralizing reagent, characterised in that a resin-made sheet is sandwiched between the region impregnated with the solid acid reagent or the nitrite and the region impregnated with the neutralizing reagent so as to suppress the movement of a reagent or the movement of a specimen solution between the regions (5, 6), wherein the resin-made sheet is sandwiched such that the region impregnated with the solid acid reagent or the nitrite and the region impregnated with the neutralizing reagent come into partial contact with each other, or wherein the resin-made sheet is sandwiched such that the region impregnated with the solid acid reagent or the nitrite and the region impregnated with the neutralizing reagent do not come into contact with each other and that the region impregnated with the solid acid reagent or the nitrite has a shape overhanging the resin-made sheet so that a liquid within the region impregnated with the solid acid reagent or the nitrite flows on the resin-made sheet to the region impregnated with the neutralizing reagent. a resin-made sheet is sandwiched between the region impregnated with the solid acid reagent or the nitrite and the region impregnated with the neutralizing reagent so as to suppress the movement of a reagent or the movement of a specimen solution between the regions (5, 6), wherein the resin-made sheet is sandwiched such that the region impregnated with the solid acid reagent or the nitrite and the region impregnated with the neutralizing reagent come into partial contact with each other, or wherein the resin-made sheet is sandwiched such that the region impregnated with the solid acid reagent or the nitrite and the region impregnated with the neutralizing reagent do not come into contact with each other and that the region impregnated with the solid acid reagent or the nitrite has a shape overhanging the resin-made sheet so that a liquid within the region impregnated with the solid acid reagent or the nitrite flows on the resin-made sheet to the region impregnated with the neutralizing reagent.
A threaded connection which comprises a first and a second tubular component, the first component comprising a male end comprising a distal surface and a threaded zone disposed on its external peripheral surface, the second component comprising a female end comprising a distal surface and a threaded zone disposed on its internal peripheral surface, the threaded zone of the male end being threaded up into the threaded zone of the female end, the threaded zones (4, 5) comprising respective male and female threads (40, 50) having a width which increases from the distal surface, the threads comprising load flanks (43, 53) having negative angles over at least a portion of their radial dimension, and stabbing flanks (44, 54), with a radial clearance subsisting in the connected state between the crests of the male threads and the roots of the female threads and/or between the crests of the female threads and the roots of the male threads, with an axial clearance subsisting in the connected state between the stabbing flanks (44, 54) of the male and female threads, the distal surface of the male end and/or female end being brought into axial abutting contact against a corresponding abutment surface, characterized in that the female end comprises a substantially tapered surface and a recess between the threaded zone and the abutment surface, the recess having a substantially cylindrical surface and a surface of revolution disposed between the threaded zone and the substantially tapered surface, the substantially tapered surface being adjacent to the abutment surface.
A flow modification fixture (42a,b, 142a-c, 50a-c, 150a-c, 80a-c, 210, 260) for modifying gas flow inside an equipment front end module (118, 218) used in the processing of silicon wafers, the fixture comprising a sheet of material positioned within and above an opening of an equipment front end module, wherein the sheet of material includes a first side that is sized to extend along the opening of the equipment front end module when the sheet of material is positioned adjacent an interior wall (20, 120) and a second side that extends in a direction away from the interior wall of the equipment front end module and into the equipment front end module interior, the first side having a first dimension that is equal to or greater than a width of the equipment front end module opening and the second side having a second dimension that is sufficient to modify a flow of gas inside the equipment front end module when the second side extends into the equipment front end module interior and the sheet of material is adapted to act as a buffer against gas flowing into a wafer container when the wafer container is coupled to the equipment front end module, characterized in that the sheet of material comprises a plurality of openings.
A push button switch, comprising a deformable contact element having a first convex surface and an opposite second concave surface, wherein: - at least one first terminal point is disposed adjacent to an edge of and electrically connected to the deformable contact element, - at least one second terminal point is disposed so that it is electrically connectable to the first surface of the deformable contact element at a distance from the edge of the deformable contact element, and - at least one third terminal point is disposed so that it is electrically connectable to the second surface of the deformable contact element and is disposed in the volume defined by the second concave surface at a distance from the edge of the deformable contact element, and characterised in that, when in use, the deformable contact element has: - a first state in which the deformable contact element is unactivated and connects the at least one first terminal point with the at least one second terminal point, whereas there is neither contact between the at least one third terminal point and the at least one first terminal point nor between the at least one third terminal point and the at least one second terminal point, and - a second state in which the deformable contact element is activated and connects the at least one first terminal point with the at least one third terminal point, whereas there is neither contact between the at least one second terminal point and the at least one first terminal point nor between the at least one second terminal point and the at least one third terminal point. - at least one first terminal point is disposed adjacent to an edge of and electrically connected to the deformable contact element, - at least one second terminal point is disposed so that it is electrically connectable to the first surface of the deformable contact element at a distance from the edge of the deformable contact element, and - at least one third terminal point is disposed so that it is electrically connectable to the second surface of the deformable contact element and is disposed in the volume defined by the second concave surface at a distance from the edge of the deformable contact element, and - a first state in which the deformable contact element is unactivated and connects the at least one first terminal point with the at least one second terminal point, whereas there is neither contact between the at least one third terminal point and the at least one first terminal point nor between the at least one third terminal point and the at least one second terminal point, and - a second state in which the deformable contact element is activated and connects the at least one first terminal point with the at least one third terminal point, whereas there is neither contact between the at least one second terminal point and the at least one first terminal point nor between the at least one second terminal point and the at least one third terminal point.
A dielectric composition comprising: a) a glass component comprising i. from about 30 to about 75 mol% SiO 2, ii. from about 5 to about 25 mol% TiO 2, iii. from about 5 to about 40 mol% (Li 2 O+ Na 2 O + K 2 O+ Rb 2 O + Cs 2 O), and iv. from about 0.1 to about 15 mol% (P 2 O 5 +Nb 2 O 5 +V 2 O 5), b) an organic vehicle, c) a solvent, and d) a thermal conductivity enhancer, wherein the thermal conductivity enhancer is an additive enhancing thermal conductivity selected from the group consisting of boron nitride, boron carbide, silicon carbide, silicon, aluminum nitride, metal bonded diamond powder, resin bonded diamond powder, polycrystalline diamond powder, and natural diamond powder. a) a glass component comprising i. from about 30 to about 75 mol% SiO 2, ii. from about 5 to about 25 mol% TiO 2, iii. from about 5 to about 40 mol% (Li 2 O+ Na 2 O + K 2 O+ Rb 2 O + Cs 2 O), and iv. from about 0.1 to about 15 mol% (P 2 O 5 +Nb 2 O 5 +V 2 O 5), i. from about 30 to about 75 mol% SiO 2, ii. from about 5 to about 25 mol% TiO 2, iii. from about 5 to about 40 mol% (Li 2 O+ Na 2 O + K 2 O+ Rb 2 O + Cs 2 O), and iv. from about 0.1 to about 15 mol% (P 2 O 5 +Nb 2 O 5 +V 2 O 5), b) an organic vehicle, c) a solvent, and d) a thermal conductivity enhancer, wherein the thermal conductivity enhancer is an additive enhancing thermal conductivity selected from the group consisting of boron nitride, boron carbide, silicon carbide, silicon, aluminum nitride, metal bonded diamond powder, resin bonded diamond powder, polycrystalline diamond powder, and natural diamond powder.