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    • 1. 发明专利
    • Microparticle dispenser and microparticle dispensing method
    • 微波分配器和微波分配方法
    • JP2010117197A
    • 2010-05-27
    • JP2008289474
    • 2008-11-12
    • Sony Corpソニー株式会社
    • TAKASHIMIZU TORU
    • G01N15/14B81B1/00G01N37/00
    • PROBLEM TO BE SOLVED: To provide a microparticle dispenser capable of dispensing microparticles at a high speed without imparting damage even if a special dispensing mechanism is not provided in a chip and capable of preventing the movement and deformation of a microchip during dispensation, and a microparticle dispensing method.
      SOLUTION: A pressure regulating part 2 is provided to the microparticle dispenser for separating and recovering the microparticles 3a from a liquid containing the microparticles 3a and 3b using the microchip 1 provided with an introducing flow passage 11 and the branched flow passages 12a and 12b communicating with the introducing flow passage 11. Then, the pressure in the branched flow passage 12a is increased by the pressure regulating part 2 without bringing about the contact with the microchip 1, and the microparticles 3a are allowed to flow into the branched flow passage 12b.
      COPYRIGHT: (C)2010,JPO&INPIT
    • 要解决的问题:为了提供即使在芯片中没有设置特殊的分配机构并且能够防止在分配期间微芯片的移动和变形的情况下,能够高速分配微粒而不会损坏微粒分散器, 和微粒分配方法。 解决方案:使用设置有引导流路11和分支流路12a的微芯片1,将微粒子3a从微粒子3a,3b的液体分离回收到微粒分配器上, 12b与引入流路11连通。然后,通过压力调节部件2增加分支流路12a中的压力,而不会导致与微芯片1的接触,并且使微粒子3a流入分支流路 12B。 版权所有(C)2010,JPO&INPIT
    • 4. 发明专利
    • Electron beam irradiation unit and method of working material to be worked using the same
    • 电子束辐照单元及使用其工作的材料的工作方法
    • JP2004219586A
    • 2004-08-05
    • JP2003005053
    • 2003-01-10
    • Sony Corpソニー株式会社
    • TAKASHIMA KAZUOTAKASHIMIZU TORU
    • G03F7/20G11B7/26H01L21/027
    • PROBLEM TO BE SOLVED: To provide an electron beam irradiation unit in which electron beam is precisely focused on a material to be worked on the surface of which the resist is applied, and also to provide a method of working the material to be worked, using the unit. SOLUTION: In one embodiment of the method of working the material to be worked, factors of a n-order function by which the height of a vertically moving focusing stage Tb is aligned to the height of a working stage Ta having fixed height or rotatable are previously determined using a set of an sir jetting nozzle and an air micrometer134. Then, the height of the working stage Ta is determined using the air jetting nozzle 133 and the air micrometer 134. The focusing stage Tb is vertically moved by a voltage corresponding to the resultant voltage. The focus of the electron beam is adjusted at the upper surface of the focusing stage Tb. A master disk D on the working stage Ta is rotated and moved in the diameter direction and the resist coated on the master disk D is irradiated with the focused electron beam to form pits for information to be recorded. COPYRIGHT: (C)2004,JPO&NCIPI
    • 要解决的问题:提供一种电子束照射单元,其中电子束精确地聚焦在施加抗蚀剂的表面上的待加工材料上,并且还提供了将材料加工成的方法 工作,使用单位。 解决方案:在待加工材料的加工方法的一个实施例中,垂直移动聚焦段Tb的高度与具有固定高度的工作台Ta的高度对齐的n阶函数的因素 预先使用一组先进喷嘴和空气千分尺134来确定或可旋转。 然后,使用空气喷射喷嘴133和气流千分尺134确定工作台Ta的高度。聚焦台Tb垂直移动与所得到的电压对应的电压。 在聚焦阶段Tb的上表面处调整电子束的焦点。 工作台Ta上的主盘D沿直径方向旋转移动,并且涂覆在母盘D上的抗蚀剂被聚焦的电子束照射以形成用于要记录的信息的凹坑。 版权所有(C)2004,JPO&NCIPI
    • 6. 发明专利
    • Microchip and channel structure for the same
    • MICROCHIP和通道结构相同
    • JP2011064706A
    • 2011-03-31
    • JP2010291785
    • 2010-12-28
    • Sony Corpソニー株式会社
    • SHINODA MASATAKATAKASHIMIZU TORU
    • G01N35/08G01N37/00
    • PROBLEM TO BE SOLVED: To provide a microchip for implementing clipping sample liquid laminar flow by sheath liquid laminar flow in a vertical direction (the depth direction) of a channel too and obtaining high analytical precision. SOLUTION: A microchip 1 includes a channel 11 permitting a sheath liquid to flow therethrough and introduces a sample liquid into a laminar flow of the sheath liquid flowing through the channel 11. In the microchip 1, by introducing the sample liquid into a laminar flow of the sheath liquid, liquid feeding is performed in the condition where a laminar flow of the sample liquid is surrounded by the laminar flow of the sheath liquid. A narrow-down part 115 isotropically reduces and narrows down the sheath liquid laminar flow and the sample liquid laminar flow before they are fed. COPYRIGHT: (C)2011,JPO&INPIT
    • 要解决的问题:提供一种用于通过鞘液层流在通道的垂直方向(深度方向)上实现夹取样品液体层流并获得高分析精度的微芯片。 解决方案:微芯片1包括允许鞘液流过其中的通道11,并将样品液体引入流过通道11的鞘液的层流中。在微芯片1中,通过将样品液体引入 鞘液的层流,在样品液体的层流被鞘液的层流包围的状态下进行液体供给。 狭窄部分115在喂入之前各向同性地降低并缩小了鞘液层流和样品液体层流。 版权所有(C)2011,JPO&INPIT
    • 7. 发明专利
    • Microchip
    • MICROCHIP
    • JP2010169701A
    • 2010-08-05
    • JP2010111985
    • 2010-05-14
    • Sony Corpソニー株式会社
    • SHINODA MASATAKATAKASHIMIZU TORU
    • G01N35/08G01N37/00
    • PROBLEM TO BE SOLVED: To provide a microchip capable of interleaving a sample liquid laminar flow by a sheath liquid laminar flow along the vertical direction (depth direction) of a channel, and providing a high-precision analysis.
      SOLUTION: The microchip 1 includes a channel 11 permitting a sheath liquid to flow therethrough, and a microtube 14 for introducing a sample liquid into the sheath liquid laminar flow flowing through the channel 11. In the microchip 1, liquid is fed under the condition where the sample liquid laminar flow is surrounded by the sheath liquid laminar flow because the sample liquid is introduced through the microtube 14 into the sheath liquid laminar flow.
      COPYRIGHT: (C)2010,JPO&INPIT
    • 要解决的问题:提供一种能够沿着通道的垂直方向(深度方向)的鞘液层流交错样品液体层流并提供高精度分析的微芯片。 解决方案:微芯片1包括允许鞘液流过的通道11,以及用于将样品液体引入流过通道11的鞘液层流中的微管14.在微芯片1中, 由于样品液体通过微管14引入鞘液层流中,样品液体层流被鞘液层流包围的状态。 版权所有(C)2010,JPO&INPIT
    • 9. 发明专利
    • Sample solution supply method and vessel
    • 样品解决方案供应方式和船只
    • JP2010133843A
    • 2010-06-17
    • JP2008310661
    • 2008-12-05
    • Sony Corpソニー株式会社
    • TAKASHIMIZU TORU
    • G01N35/08G01N37/00
    • PROBLEM TO BE SOLVED: To provide a sample solution supply method and a vessel, which dispense with washing operation, are free from any fear of contamination of sample solution, and are also free from pulsating flow and precipitation during feeding of the solution.
      SOLUTION: A liquid outlet 12 prepared in a vial body 1a and a sample solution feed hole 21 prepared in a microchip 2 are closely contacted. Then a tube 7 is inserted into a gas introducing hole 11 prepared in a lid 1b of the vial 1, the pressure in the vial 1 is increased by introducing a pressure feed gas such as compressed air from the tube 7 into the vial 1, and the sample solution 5 filled in the vial 1 is supplied to a channel 23 communicating with the feed hole 21.
      COPYRIGHT: (C)2010,JPO&INPIT
    • 要解决的问题:为了提供不需要洗涤操作的样品溶液供给方法和容器,没有任何对样品溶液污染的担心,并且在进料期间也没有脉动流动和沉淀 。 解决方案:制备在小瓶体1a中的液体出口12和在微芯片2中制备的样品溶液供给孔21紧密接触。 然后,将管7插入到准备在小瓶1的盖1b中的气体导入孔11中,通过将来自管7的压缩空气等压力进料气体引入小瓶1而增加小瓶1内的压力, 填充在样品瓶1中的样品溶液5被供给到与进料孔21连通的通道23中。(C)2010,JPO&INPIT