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    • 3. 发明申请
    • Method and apparatus for producing a molecular film with an adjusted density
    • 用于生产具有调节密度的分子膜的方法和设备
    • US20080003666A1
    • 2008-01-03
    • US11700264
    • 2007-01-31
    • Kenji ArinagaUlrich RantErika PringsheimJelena Knezevic
    • Kenji ArinagaUlrich RantErika PringsheimJelena Knezevic
    • C12M1/00
    • G01N33/54353
    • An object of the present invention is to provide a technique that can adjust a molecular density of the film of functional molecules (e.g. DNA molecules), which is utilized for biochips such as DNA chip, to a desired degree efficiently and easily. The method for producing a molecular film with an adjusted density according to the present invention includes forming a molecular film and adjusting a molecular density. In the forming a molecular film, a molecular film composed of molecules is formed on a conductive substrate, wherein the molecule includes a region capable of binding to the conductive substrate at least in a portion thereof. In the density adjusting, a molecular density of the molecular film is adjusted by desorbing a part of the molecules which make up the molecular film from the conductive substrate.
    • 本发明的一个目的是提供一种可以有效且容易地调整用于生物芯片如DNA芯片的功能分子(例如DNA分子)的膜的分子密度达到期望的程度的技术。 根据本发明的具有调节密度的分子膜的制备方法包括形成分子膜并调节分子密度。 在形成分子膜时,在导电性基板上形成由分子构成的分子膜,其中,所述分子具有能够至少部分地与导电性基板结合的区域。 在密度调节中,分子膜的分子密度通过从导电性基材上解吸构成分子膜的一部分分子来调节。
    • 4. 发明授权
    • Method and apparatus for producing a molecular film with an adjusted density
    • 用于生产具有调节密度的分子膜的方法和设备
    • US08568966B2
    • 2013-10-29
    • US11700264
    • 2007-01-31
    • Kenji ArinagaUlrich RantErika PringsheimJelena Knezevic
    • Kenji ArinagaUlrich RantErika PringsheimJelena Knezevic
    • C12Q1/00
    • G01N33/54353
    • An object of the present invention is to provide a technique that can adjust a molecular density of the film of functional molecules (e.g. DNA molecules), which is utilized for biochips such as DNA chip, to a desired degree efficiently and easily. The method for producing a molecular film with an adjusted density according to the present invention includes forming a molecular film and adjusting a molecular density. In the forming a molecular film, a molecular film composed of molecules is formed on a conductive substrate, wherein the molecule includes a region capable of binding to the conductive substrate at least in a portion thereof. In the density adjusting, a molecular density of the molecular film is adjusted by desorbing a part of the molecules which make up the molecular film from the conductive substrate.
    • 本发明的一个目的是提供一种可以有效且容易地调整用于生物芯片如DNA芯片的功能分子(例如DNA分子)的膜的分子密度达到期望的程度的技术。 根据本发明的具有调节密度的分子膜的制备方法包括形成分子膜并调节分子密度。 在形成分子膜时,在导电性基板上形成由分子构成的分子膜,其中,所述分子具有能够至少部分地与导电性基板结合的区域。 在密度调节中,分子膜的分子密度通过从导电性基材上解吸构成分子膜的一部分分子来调节。
    • 7. 发明授权
    • Carbon nanotubes, process for their production, and catalyst for production of carbon nanotubes
    • 碳纳米管,其制备方法和用于生产碳纳米管的催化剂
    • US07311889B2
    • 2007-12-25
    • US10464847
    • 2003-06-19
    • Yuji AwanoYoshitaka YamaguchiKenji ArinagaShozo Fujita
    • Yuji AwanoYoshitaka YamaguchiKenji ArinagaShozo Fujita
    • D01F9/12
    • D01F9/12B82Y30/00D01F9/127D01F9/1272D01F9/133Y10S977/843
    • The invention provides a process for production of carbon nanotubes whereby a laminate prepared by alternating lamination of a metal catalyst and a material other than the metal catalyst is cut to expose the laminated structure, and carbon nanotubes are grown on the metal catalyst at the cut surface of the laminate. The process results in high-quality carbon nanotubes, with minimized bundle growth, which are each individually and independently arranged in a highly precise manner at prescribed locations.The invention also provides a carbon nanotube production process comprising a step of preparing a substrate which is inclined in one or two dimensions from a specific highly symmetrical crystal orientation and vapor depositing a metal catalyst along the atomic steps appearing on the surface of the substrate, and a step of growing the carbon nanotubes by chemical vapor deposition (CVD) using the metal catalyst as nuclei. It is thus possible to control the growth locations, diameters, orientation and chirality of carbon nanotubes.
    • 本发明提供一种碳纳米管的制造方法,其中通过交替层压金属催化剂和除了金属催化剂之外的材料制成的层压体被切割以暴露层压结构,并且碳纳米管在切割表面上在金属催化剂上生长 的层压板。 该方法产生高质量的碳纳米管,其最小化束生长,它们在规定的位置上以高度精确的方式各自独立地排列。 本发明还提供一种碳纳米管制造方法,其包括以下步骤:制备从特定的高度对称的晶体取向倾斜一维或二维的衬底,并沿着出现在衬底表面上的原子台阶气相沉积金属催化剂,以及 通过使用金属催化剂作为核的化学气相沉积(CVD)来生长碳纳米管的步骤。 因此可以控制碳纳米管的生长位置,直径,取向和手性。
    • 9. 发明申请
    • Cavity electrode structure, and sensor and protein detection device using the same
    • 腔电极结构,以及使用传感器和蛋白质的检测装置
    • US20050164371A1
    • 2005-07-28
    • US11074865
    • 2005-03-09
    • Kenji Arinaga
    • Kenji Arinaga
    • C12M1/34G01N27/02G01N33/543
    • G01N33/5438G01N27/3278
    • A cavity electrode structure, which is provided with a pair of opposing electrodes having a precisely formed narrow gap, and a sensor and a protein detection device, in which the cavity electrode structure is used, are provided. The cavity electrode structure comprises a first electrode, an insulating layer located on this first electrode and having a through hole that partially exposes the first electrode, and a second electrode opposed to the exposed surface of the first electrode by protruding towards the inside of the through hole of the insulating layer and provided with an opening that leads to the through hole of the insulating layer, the structure having a cavity that is formed by the exposed surface of the first electrode, the inner walls of the through hole of the insulating layer, and the surface of the second electrode that opposes the first electrode. The sensor comprises an electrically conductive bridging member of which one end is fixed to the exposed surface of the first electrode of the aforementioned cavity electrode structure, while the other end is fixed to the opposing surface of the second electrode, and which has a site that specifically binds to a target protein to be detected. The protein detection device uses a bridging member provided with a site that specifically binds to a target protein to be detected.
    • 设置有具有精确形成的窄间隙的一对相对电极的空腔电极结构以及使用空腔电极结构的传感器和蛋白质检测装置。 空腔电极结构包括第一电极,位于该第一电极上的绝缘层,并且具有部分地暴露第一电极的通孔,以及与第一电极的暴露表面相对的第二电极, 所述绝缘层的通孔设置有通向所述绝缘层的通孔的开口,所述结构具有由所述第一电极的暴露表面,所述绝缘层的通孔的内壁形成的空腔, 以及与第一电极相对的第二电极的表面。 传感器包括导电桥接构件,其一端固定到上述空腔电极结构的第一电极的暴露表面,而另一端固定到第二电极的相对表面,并且具有 特异性结合待检测的靶蛋白。 蛋白质检测装置使用具有与待检测的靶蛋白特异性结合的位点的桥接成员。