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    • 3. 发明专利
    • Filtering device for specimen liquid
    • 样品液体过滤装置
    • JP2006003213A
    • 2006-01-05
    • JP2004179838
    • 2004-06-17
    • Stec Kkエステック株式会社
    • NAGASHIMA MASATSUGUTAKAGI KOJI
    • G01N1/10G01N1/28
    • PROBLEM TO BE SOLVED: To provide a filtering device for a specimen liquid having a filter unit simply set in a set space formed between a specimen liquid guide body and a funnel while maintaining air tightness between the guide body, filter unit, and funnel, to smooth the filtration of the specimen liquid.
      SOLUTION: This filtering device 2 comprises the filter unit 20 for filtering the specimen liquid, the specimen liquid guide body 23 for guiding the specimen liquid in a suppliable manner to the filter unit 20, and the funnel 29 for receiving the specimen liquid filtered by the filter unit 20 to supply/guide it to a filtration container 21. The guide body 23 and the funnel 29 are supported with a space for setting the filter unit 20 therein left therebetween while the filter unit 20 inserted/set in the space is fixed with the guide body 23 lowered.
      COPYRIGHT: (C)2006,JPO&NCIPI
    • 要解决的问题:提供一种用于具有过滤器单元的样品液体的过滤装置,其简单地设置在形成在样本液体引导体和漏斗之间的设定空间中,同时保持引导体,过滤器单元和 漏斗,以平滑过滤样品液体。 解决方案:该过滤装置2包括用于过滤样本液体的过滤器单元20,用于将检体液体以可供给的方式引导到过滤器单元20的检体液引导体23和用于接收检体液体的漏斗29 由过滤器单元20过滤以将其引导至过滤容器21.引导体23和漏斗29被支撑有用于将过滤器单元20设置在其中的空间,同时过滤器单元20插入/设置在空间 被引导体23固定。 版权所有(C)2006,JPO&NCIPI
    • 4. 发明专利
    • Liquid spraying structure for nozzle tube
    • 喷嘴液体喷淋结构
    • JP2005087855A
    • 2005-04-07
    • JP2003324020
    • 2003-09-17
    • Stec Kkエステック株式会社
    • NAGASHIMA MASATSUGU
    • G01N1/00B05C5/00G01N35/10
    • PROBLEM TO BE SOLVED: To provide a liquid spraying structure for a nozzle tube which can smoothly spray liquid with air without providing a control valve mechanism at a nozzle tube section. SOLUTION: In the nozzle tube 2 which pushes out the liquid supplied in the nozzle tube section 26 into a downstream side and sprays the liquid from an opening, an air feed port 30 which is connected to an air feed tube 22 for sending air under pressure from a lateral side into a nozzle hole 25 is formed at a halfway part of the nozzle tube section 26. Thus, a predetermined quantity of the liquid, which is moved by being pushed out into the downstream side of the air feed port 30 in the nozzle hole 25, is sprayed with the air fed from the air feed port 30. COPYRIGHT: (C)2005,JPO&NCIPI
    • 要解决的问题:提供一种用于喷嘴管的液体喷射结构,其可以在没有在喷嘴管部分处设置控制阀机构的情况下用空气平滑地喷射液体。

      解决方案:在喷嘴管2中,将喷嘴管部26中供应的液体推出下游侧并从开口喷射液体;空气供给口30,其与供气管22连接,用于发送 在喷嘴管部26的中途形成有从侧面到喷嘴孔25的压力空气。因此,通过被推出到进气口的下游侧而移动的预定量的液体 喷嘴孔25中的空气喷嘴30被从空气供给口30供给的空气喷雾。版权所有(C)2005,JPO&NCIPI

    • 5. 发明专利
    • METHOD AND DEVICE FOR ADJUSTING ANALYTICAL SAMPLE FOR ANLALYZING COMPONENT IN METAL
    • JP2002328125A
    • 2002-11-15
    • JP2001134889
    • 2001-05-02
    • STEC KK
    • NAGASHIMA MASATSUGUTAKAGI KOJI
    • G01N33/20
    • PROBLEM TO BE SOLVED: To efficiently treat surface of a sample for analyzing a component in metal under a vacuum condition by arc plasma, and to prevent contamination and the like in the sample to enhance analytical precision of analysis by a component-in-metal analyzer. SOLUTION: In this adjusting method for the analytical sample for analyzing the component in the metal, the sample W for analyzing the component in the metal is supplied to an arc treatment part 5 inside a treatment chamber 2a maintained in the vacuum condition, the sample W is surface-treated by the arc plasma in the arc treatment part 5 via a surface treatment space H, and the surface-treated sample W is taken out thereafter from the treatment chamber 2a to analyze the component. The adjusting device for the analytical sample for analyzing the component in the metal is provided, inside the treatment chamber 2a formed to be maintained in the vacuum condition, with the arc treatment part 5 for arc-treating the sample W for analyzing the component in the metal, a sample supplying and recovering part 6a for supplying and taking out the sample W to/from the arc treatment part 5a, and a handling part 7a for positioning the sample W supplied from the sample supplying and recovering part 6a in the arc treatment part 5a.
    • 7. 发明专利
    • GARBAGE DECOMPOSITION DEVICE
    • JPH11169825A
    • 1999-06-29
    • JP35613697
    • 1997-12-08
    • STEC KKNISHIMURA KIYOSHI
    • NISHIMURA KIYOSHI
    • B09B3/00
    • PROBLEM TO BE SOLVED: To improve the decomposition capability by preventing the closure of the aeration holes of bubbler diffusers even in a high-concn. liquid for decomposing garbage in hot water by aerobic microorganisms, obviating the emission of the froth and waste water generated in a decomposition vessel to the outside of the machine and further surely separating the concd. and treated water emitted from the decomposition vessel. SOLUTION: The inside of the base of the decomposition vessel 2 provided with heating means is provided with the bubbler diffusers 1 formed by inserting upper and lower bubble generating surface plates which are formed to an approximately truncated conical shape and are curvilinearly provided with bubble generating vibration surfaces at the outer periphery peripheral edges into the bubbler core pipe and superposing above and below. The device is provided with a defoaming gas-water separator 18 provided with the ceiling cap of the decomposition vessel 2, rotary vane plates rotating by having small spacings and a discharge port. A thickening and separating cyclone 32 which is provided with a separated water take- out cylindrical within the upper half part of the cylindrical body, is provided with a low sp. gr. riser inserted therein and is provided with a low sp. gr. take-out pipe and a heavy sp. gr. take-out pipe at the top and bottom ends of the cylindrical body is arranged in a thickening treatment feeding line between the decomposition vessel 2 and an evaporation solidification vessel 45. The discharge pipe 50 of the evaporation solidification vessel 45 is branched and provided with a vent pipe 55 communicating with the decomposition vessel 2 to return the waste heat.
    • 8. 发明专利
    • LAMINAR FLOW ELEMENT
    • JPH11101673A
    • 1999-04-13
    • JP27996297
    • 1997-09-27
    • STEC KK
    • ITO NOBUO
    • G01F1/48
    • PROBLEM TO BE SOLVED: To prevent impurities from being stuck to or retained at a flow element by winding a first belt-like body protruded with multiple ribs on the surface and a flat second belt-like body via the ribs into a tubular shape, and forming multiple holes parallel with the axial direction of the tubular shape as passage of a fluid. SOLUTION: This laminar flow element is formed out of belt-like bodies 11, 12 made of a stainless steel, and both faces of the belt-like bodies 11, 12 are mirror-finished. The belt-like body 12 is superposed on the rib forming face side of the belt-like body 11 formed with multiple parallel ribs 14 on one face, and they are wound on a cylindrical body 16 as a core member to form a tubular body 17. Many holes are formed in the axial direction of the tubular body 17 as passages of a fluid. An outer tube 18 is inserted to the tubular body 17 to form a laminar flow element having many holes centering on the cylindrical body 16. The peripheral side wall of many holes serving as the passages of the fluid is set to the mirror surface state, thereby foreign matters mingles into the fluid can be prevented from being stuck to the side walls of passages.
    • 9. 发明专利
    • MASS FLOW RATE CONTROLLER
    • JPH1164060A
    • 1999-03-05
    • JP22744297
    • 1997-08-09
    • STEC KK
    • MIZUGUCHI HIDEKAMISAKA HIROJI
    • G01P5/12G01F1/68
    • PROBLEM TO BE SOLVED: To detect the mass flow rate of a fluid by preventing the occurrence of a thermal siphon phenomenon by providing a flow passage, which is parallel to a flow passage section to which a sensor element is installed and heating the flow passage to a same temperature level as that of the heating value of a sensor section. SOLUTION: An ascending gas flow C is generated along a virtual line C by the heat generated from a heater 27. Consequently, gas circulation will not be generated, because an ascending gas flow A generated when a gas is warmed by sensor elements 12 and 13 does not reach up to a by-pass section 15 but is canceled by an ascending gas flow C produced by the heat from the heater 27. Namely, it is required to heat the heater 27 to such a state that the ascending gas flow C required for canceling the ascending gas flow A is generated. Therefore, the mass flow rate of a gas can be detected with good precision, the occurrence of a thermal siphon phenomenon can be prevented regardless of the attaching attitude of a mass flow rate controller, and the zero point fluctuation of the mass flow controller is prevented.