mhurhangee/ep-ind-claims huggingface dataset:
A maintenance management device comprising: an inspection device configured to inspect an exchangeable element in a component mounting machine configured to mount a component on a circuit board; and an information management section configured to store statistical information in which results of multiple inspections performed by the inspection device are linked to identification information for each of multiple exchangeable elements as a target of the inspection, wherein the exchangeable element is a suction nozzle configured to be supplied with negative pressure to pick up the component, and the inspection with the inspection device includes a good-bad quality determination of the suction nozzle, characterized in that the information management section is configured to link a passing rate, which indicates a ratio of passes with respect to the number of good-bad quality determinations of the exchangeable element to the identification information of the exchangeable element and store the linked passing rate and the identification information of the exchangeable element as the statistical information, and a nozzle cleaner is configured to set at least one of a cleaning type, a cleaning combination, and a number of cleanings of the suction nozzle based on the statistical information. an inspection device configured to inspect an exchangeable element in a component mounting machine configured to mount a component on a circuit board; and an information management section configured to store statistical information in which results of multiple inspections performed by the inspection device are linked to identification information for each of multiple exchangeable elements as a target of the inspection, wherein the exchangeable element is a suction nozzle configured to be supplied with negative pressure to pick up the component, and the inspection with the inspection device includes a good-bad quality determination of the suction nozzle, characterized in that the information management section is configured to link a passing rate, which indicates a ratio of passes with respect to the number of good-bad quality determinations of the exchangeable element to the identification information of the exchangeable element and store the linked passing rate and the identification information of the exchangeable element as the statistical information, and a nozzle cleaner is configured to set at least one of a cleaning type, a cleaning combination, and a number of cleanings of the suction nozzle based on the statistical information.
An extracting device supplying fixed quantity of exhaust gas for industrial facility comprising: a first gas supply pipe configured to extract part of exhaust gas from a stack and to form a first horizontal area, installed on top for horizontally penetrating into the side of the stack, a vertical area, vertically bent from the first horizontal area in the direction of ground, and a second horizontal area, horizontally located from the vertical area; a first branch gas supply pipe configured to be installed at the bottom side of the vertical area of the first gas supply pipe; a second branch gas supply pipe configured to be connected in parallel to the first branch gas supply pipe at the bottom side of the vertical area of the first gas supply pipe; a second gas supply pipe configured to supply exhaust gas, coming from the first branch gas supply pipe and the second branch gas supply pipe, to sources; a first blower configured to be operated in accordance with external power control at the first branch gas supply pipe; a second blower configured to be operated in accordance with external power control at the second branch gas supply pipe; a first pressure gauge configured to be installed on the first branch gas supply pipe and output a contact signal if the measured internal pressure of the pipe is out of a predetermined range of a first reference pressure value; a second pressure gauge configured to be installed on the second branch gas supply pipe and output a contact signal if the measured internal pressure of the pipe is out of a predetermined range of a second reference pressure value; and a switching element configured to supply power to the first and second blowers in accordance with contact signal, outputted from the first and second pressure gauges.
Use of a species selected from: (i) detergents; and (ii) mixtures containing both a lubricity improver and a conductivity improver; in a diesel fuel formulation containing 60 to 99% v/v of paraffinic hydrocarbons and an antioxidant, for the purpose of increasing the oxidative stability of the formulation, as measured according to ASTM D7545-09, wherein the antioxidant is selected from phenolic antioxidants, amines and mixtures thereof, wherein the species (i) comprises a polyisobutenyl succinimide detergent, wherein the species (ii) comprises a fatty acid ester lubricity improver, wherein the species (ii) comprises a sulphonic acid conductivity improver, and wherein the diesel fuel formulation contains 75% v/v or more of a Fischer-Tropsch derived diesel fuel component or mixture thereof. (i) detergents; and (ii) mixtures containing both a lubricity improver and a conductivity improver;
A positioning device for locating a planar light beam emitted by an optical triangulation sensor across a diameter of a hole formed in a surface of an object, the positioning device comprising: a platform that is securable to the optical triangulation sensor, the platform having a mounting portion for abutting the surface of the object and an aperture through which the planar light beam is transmittable; a guiding element mounted on the platform and movable with respect to the platform along an adjustment path that extends through the aperture, wherein the guiding element comprises a body which is insertable into the hole, the body having a pair of contact surfaces for contacting diametrically opposed portions of the hole, the pair of contact surfaces (42, 44) being opposed to each other in a direction orthogonal to the plane of the planar light beam. a platform that is securable to the optical triangulation sensor, the platform having a mounting portion for abutting the surface of the object and an aperture through which the planar light beam is transmittable; a guiding element mounted on the platform and movable with respect to the platform along an adjustment path that extends through the aperture, wherein the guiding element comprises a body which is insertable into the hole, the body having a pair of contact surfaces for contacting diametrically opposed portions of the hole, the pair of contact surfaces (42, 44) being opposed to each other in a direction orthogonal to the plane of the planar light beam.
A pump rotor (10, 110, 210), comprising: a hub (20, 120, 220) defining a major longitudinal axis; a magnet (40, 140) disposed within the hub along the major longitudinal axis; and a plurality of rotor blades (30, 130) projecting outwardly from the hub away from the longitudinal axis and being spaced apart from one another in a circumferential direction around the longitudinal axis, each of the plurality of rotor blades (30, 130) defining a hydrodynamic bearing (32, 34, 132,,134) at an outer extremity thereof remote from the hub (20, 120, 220), the plurality of rotor blades (30, 130) defining a plurality of flow channels, each of the plurality of rotor blades (30, 130) being configured to drive a fluid through the flow channels upon rotation of the rotor around the axis, the magnet (40, 140) is a unitary solid and is coaxial with the hub (20, 120, 220), the magnet being radially magnetized and defining a plurality of radial poles, the magnet being the only magnetic component within the rotor. a hub (20, 120, 220) defining a major longitudinal axis; a magnet (40, 140) disposed within the hub along the major longitudinal axis; and a plurality of rotor blades (30, 130) projecting outwardly from the hub away from the longitudinal axis and being spaced apart from one another in a circumferential direction around the longitudinal axis, each of the plurality of rotor blades (30, 130) defining a hydrodynamic bearing (32, 34, 132,,134) at an outer extremity thereof remote from the hub (20, 120, 220), the plurality of rotor blades (30, 130) defining a plurality of flow channels, each of the plurality of rotor blades (30, 130) being configured to drive a fluid through the flow channels upon rotation of the rotor around the axis, the magnet (40, 140) is a unitary solid and is coaxial with the hub (20, 120, 220), the magnet being radially magnetized and defining a plurality of radial poles, the magnet being the only magnetic component within the rotor.
A battery accommodating assembly, comprising a plurality of separators, wherein adjacent separators are detachably connected with each other via a snapping structure and define a battery chamber, wherein the snapping structure comprises: a snapping groove formed in one of the adjacent separators; and a snapping tongue disposed on the other of the adjacent separators and adapted to snap in the snapping groove to fasten the adjacent separators together, characterized in that the snapping structure further comprises: a snap-fit groove formed in the separator; and a snap-fit pin having at least two mounting parts respectively fitted in the snap-fit grooves of at least two separators to connect the at least two separators, the snap-fit pin preferably further comprising a connection bridge, and two mounting parts are disposed at two ends of the connection bridge respectively and fitted in the snap-fit grooves of adjacent separators to connect the adjacent separators with each other, the snap-fit groove preferably having an opening, and the openings of the snap-fit grooves in the adjacent separators are aligned to each other to receive the connection bridge. a snapping groove formed in one of the adjacent separators; and a snapping tongue disposed on the other of the adjacent separators and adapted to snap in the snapping groove to fasten the adjacent separators together, characterized in that the snapping structure further comprises: a snap-fit groove formed in the separator; and a snap-fit pin having at least two mounting parts respectively fitted in the snap-fit grooves of at least two separators to connect the at least two separators, the snap-fit pin preferably further comprising a connection bridge, and two mounting parts are disposed at two ends of the connection bridge respectively and fitted in the snap-fit grooves of adjacent separators to connect the adjacent separators with each other, the snap-fit groove preferably having an opening, and the openings of the snap-fit grooves in the adjacent separators are aligned to each other to receive the connection bridge. a snap-fit groove formed in the separator; and a snap-fit pin having at least two mounting parts respectively fitted in the snap-fit grooves of at least two separators to connect the at least two separators, the snap-fit pin preferably further comprising a connection bridge, and two mounting parts are disposed at two ends of the connection bridge respectively and fitted in the snap-fit grooves of adjacent separators to connect the adjacent separators with each other, the snap-fit groove preferably having an opening, and the openings of the snap-fit grooves in the adjacent separators are aligned to each other to receive the connection bridge.
A crop husbandry composition, the crop husbandry composition comprising: an alcohol or mixture of alcohols of the formula R 1 -OH and an alcohol alkoxylate or mixture of alcohol alkoxylates of the formula R 2 -O-(C z H 2z O) x -H wherein: R 1 and R 2 are independently of one another a linear or branched alkyl, each having a total number of carbon atoms from 20 to 32, z has a value of 2 or 3, and x has a value of from 1 to 150, and wherein the alcohol or mixture of alcohols and the alcohol alkoxylate or mixture of the alcohol alkoxylates are in a mass ratio of from 99:1 to 51:49. an alcohol or mixture of alcohols of the formula R 1 -OH and an alcohol alkoxylate or mixture of alcohol alkoxylates of the formula R 2 -O-(C z H 2z O) x -H wherein: R 1 and R 2 are independently of one another a linear or branched alkyl, each having a total number of carbon atoms from 20 to 32, z has a value of 2 or 3, and x has a value of from 1 to 150, and wherein the alcohol or mixture of alcohols and the alcohol alkoxylate or mixture of the alcohol alkoxylates are in a mass ratio of from 99:1 to 51:49. R 1 and R 2 are independently of one another a linear or branched alkyl, each having a total number of carbon atoms from 20 to 32, z has a value of 2 or 3, and x has a value of from 1 to 150, and wherein the alcohol or mixture of alcohols and the alcohol alkoxylate or mixture of the alcohol alkoxylates are in a mass ratio of from 99:1 to 51:49.
An optical fiber cable, comprising: an optical fiber; and a jacket layer formed on the periphery of the optical fiber, wherein the jacket layer comprises chlorinated polyolefin resin and polyolefin resin, characterized in that the jacket layer further comprises a melt tension improver, and wherein the melt tension improver is at least either an acrylic resin melt tension improver or a fluororesin melt tension improver. an optical fiber; and a jacket layer formed on the periphery of the optical fiber, wherein the jacket layer comprises chlorinated polyolefin resin and polyolefin resin, characterized in that the jacket layer further comprises a melt tension improver, and wherein the melt tension improver is at least either an acrylic resin melt tension improver or a fluororesin melt tension improver.
A cloud service device comprising: a) a service communication unit configured to transmit and receive information to and from one or more terminals and a content providing dev ice for providing a web page; b) a service storage unit configured to store a predefined script code for cloud streaming; c) a service control unit configured to receive a request for the web page from a terminal through the service communication unit, to insert the predefined script code for cloud streaming into the web page provided from the content providing device, to create a capture image by capturing the web page having the inserted script code, to encode the capture image, and to transmit the encoded image to the terminal through the service communication unit; wherein d1) a cloud streaming service is not available for a separate window, such as an open of a new window or a display of a popup window, other than a main window during the operation of a browser; and d2) wherein the service control unit is further configured, when creating the capture image by capturing the web page having the inserted script code, to execute the script code inserted in the web page, to redefine a designated object in the web page so as to display a designated message of the web page in a main window, and to create the capture image by capturing the web page. a) a service communication unit configured to transmit and receive information to and from one or more terminals and a content providing dev ice for providing a web page; b) a service storage unit configured to store a predefined script code for cloud streaming; c) a service control unit configured to receive a request for the web page from a terminal through the service communication unit, to insert the predefined script code for cloud streaming into the web page provided from the content providing device, to create a capture image by capturing the web page having the inserted script code, to encode the capture image, and to transmit the encoded image to the terminal through the service communication unit; wherein d1) a cloud streaming service is not available for a separate window, such as an open of a new window or a display of a popup window, other than a main window during the operation of a browser; and d2) wherein the service control unit is further configured, when creating the capture image by capturing the web page having the inserted script code, to execute the script code inserted in the web page, to redefine a designated object in the web page so as to display a designated message of the web page in a main window, and to create the capture image by capturing the web page.
A dual-phase cement precursor system comprising: first and second discrete pastes, said first paste comprising a first calcium phosphate compound selected from the group consisting of dicalcium phosphate anhydrous, dicalcium phosphate dihydrate, and mixtures thereof, said second paste comprising tetracalcium phosphate, at least one of the forgoing calcium phosphate compositions being provided in the form of particles having a nonmonomial particle size distribution, and said first and second pastes forming a biocompatible cement upon mixing, said system including an organic acid or salt thereof selected from succinic acid and citric acid in an amount effective to increase the working time of the biocompatible cement formed upon mixing relative to the working time of a similar cement prepared in the absence of said organic acid or salt thereof, said system further comprising a setting accelerator selected from monocalcium phosphate anhydrous and monocalcium phosphate monohydrate.
Heating unit having a burner which is supported by a blower, having a fuel-air mixing device which feeds in particular gaseous fuel to flowing air via a fuel feed line, and wherein the fuel-air mixing device has an air opening, a constriction and at least one fuel opening in the region of the constriction for the feeding of in particular gaseous fuel, characterized in that the fuel opening has an adjustable needle, and in that the opening cross section of the fuel opening is able to be set by the needle.
A method of fabricating two-dimensional nanoflakes comprising: fabricating a nanoparticle; and refluxing the nanoparticle in a solvent to chemically cut the nanoparticle to form the two-dimensional nanoflakes, wherein the solvent is selected from: saturated alkyl amines; unsaturated fatty amines; fatty acids; phosphines; phosphine oxides; alcohols; and non-coordinating solvents. fabricating a nanoparticle; and refluxing the nanoparticle in a solvent to chemically cut the nanoparticle to form the two-dimensional nanoflakes, wherein the solvent is selected from: saturated alkyl amines; unsaturated fatty amines; fatty acids; phosphines; phosphine oxides; alcohols; and non-coordinating solvents.
A continuously operating energy release/conversion system comprising a main flow path having an inlet, the inlet having an opening, a recirculation zone having an interior surface, said interior surface being characterized by a lack of discontinuities, a structure defining the opening of said inlet of said main flow path, a heat release region, and a fuel/air premixing apparatus separate from said heat release region wherein said structure defining the opening of said inlet of said main flow path and said fuel/air premixing apparatus are combined, wherein in said energy release/conversion system energy is released from fluids comprising fuel and air, wherein said fluids pass in major portion along said main flow path and in a lesser portion through said recirculation zone, the flow from said recirculation zone rejoining said main flow path at a return point proximate the inlet of said main flow path, said recirculation flow flowing along the interior surface of said recirculation zone, and said recirculation flow moving in substantially the same direction as said main flow after said recirculation flow exits said recirculation zone and after said main flow passes said return point, resulting in a high intake velocity in said energy release/conversion system.
A thermoplastic resin composition, comprising a base resin including: 75 to 85 wt% of a polycarbonate resin; 7 to 13 wt% of an acrylic rubber modified aromatic vinyl-vinyl cyanide graft copolymer; and 7 to 13 wt% of an aromatic vinyl-vinyl cyanide copolymer, wherein the amounts of,, and are based on a total weight of the base resin, and further comprising, based on 100 parts by weight of the base resin: 1 to 5 parts by weight of zinc oxide (ZnO); and 3 to 5 parts by weight of a polyolefin-aromatic vinyl-glycidyl (meth)acrylate graft copolymer. 75 to 85 wt% of a polycarbonate resin; 7 to 13 wt% of an acrylic rubber modified aromatic vinyl-vinyl cyanide graft copolymer; and 7 to 13 wt% of an aromatic vinyl-vinyl cyanide copolymer, wherein the amounts of,, and are based on a total weight of the base resin, and further comprising, based on 100 parts by weight of the base resin: 1 to 5 parts by weight of zinc oxide (ZnO); and 3 to 5 parts by weight of a polyolefin-aromatic vinyl-glycidyl (meth)acrylate graft copolymer. wherein the amounts of,, and are based on a total weight of the base resin, and further comprising, based on 100 parts by weight of the base resin: 1 to 5 parts by weight of zinc oxide (ZnO); and 3 to 5 parts by weight of a polyolefin-aromatic vinyl-glycidyl (meth)acrylate graft copolymer. 1 to 5 parts by weight of zinc oxide (ZnO); and 3 to 5 parts by weight of a polyolefin-aromatic vinyl-glycidyl (meth)acrylate graft copolymer.
A spark ignition type internal combustion engine comprising a variable compression ratio mechanism able to change a mechanical compression ratio and a variable valve timing mechanism able to individually control an opening timing and closing timing of an intake valve, wherein the variable valve timing mechanism is adapted to maintain the opening timing of the intake valve at a target opening timing of substantially intake top dead center in a noninterference region where a piston is not interfered with at least during the time in which the mechanical compression ratio is made maximum, characterized in that the variable valve timing mechanism is adapted to shift the closing timing of the intake valve in a direction away from intake bottom dead center the lower the engine load to feed an amount of suction air in accordance with the required load into a combustion chamber, and the variable compression ratio mechanism is adapted to make the mechanical compression ratio maximum so that the maximum expansion ratio of 20 or more is obtained at the time of engine low load operation, wherein an actual compression ratio at the time of engine low load operation is made an actual compression ratio substantially the same as that at the time of engine medium and high load operation, and wherein, at the time of engine low speed, regardless of the engine load, said actual compression ratio is made a range of about ±10% with respect to the actual compression ratio at the time of engine medium and high load operation.