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    • 1. 发明申请
    • SELF-REPLICATING MATERIALS
    • 自我更换材料
    • WO2008076414A2
    • 2008-06-26
    • PCT/US2007/025749
    • 2007-12-17
    • NEW YORK UNIVERSITYSEEMAN, NadrianCHAIKIN, Paul MichaelPINE, DavidGRIER, David G.
    • CHAIKIN, Paul MichaelPINE, DavidGRIER, David G.
    • C12Q1/68
    • C12Q1/682B82Y5/00B82Y20/00C12N15/10C12N15/1031C12N15/1068C12Q2563/155C12Q2565/113
    • The invention provides micron and sub-micron scale particles designed to recognize and selectively interact with each other by exploiting the recognition and specificity enabled by DNA-sequence-encoded coatings. Such materials possess sufficient information coded in their chemical and physical interactions to self assemble and self replicate. The invention further provides methods of using such materials to create self replicating and organizing materials. Replicated copies are permanently linked and then thermally detached, freeing them to act as templates for further growth. This new class of condensed matter systems, provides means to design and control the structure and function of materials and machines from the microscopic to life-size. In another aspect of the invention, depletion type forces and depletion zones can be utilized in the implementation of the self assembly and self replication of materials, including without limitation colloidal particles. The invention further provides novel means of synthesis and materials built by such synthesis, which may be used in a variety of applications, including microelectronics.
    • 本发明提供通过利用由DNA序列编码的涂层实现的识别和特异性来设计用于识别和选择性相互作用的微米级和亚微米级粒子。 这样的材料具有足够的信息,以其化学和物理相互作用编码,以自组装和自我复制。 本发明还提供了使用这种材料来创建自我复制和组织材料的方法。 复制副本永久链接,然后热分离,释放它们作为进一步增长的模板。 这种新型凝结物系统,提供了从微观到真实尺寸的材料和机器的结构和功能的设计和控制的手段。 在本发明的另一方面,耗尽型力和耗尽区可以用于实现材料的自组装和自我复制,包括但不限于胶体颗粒。 本发明还提供了新的合成方法和通过这种合成制备的材料,其可以用于包括微电子学在内的各种应用中。
    • 7. 发明申请
    • OPTICAL FRACTIONATION METHODS AND APPARATUS
    • 光分解方法和装置
    • WO2004104551A2
    • 2004-12-02
    • PCT/US2004/015327
    • 2004-05-14
    • UNIVERSITY OF CHICAGOGRIER, David G.
    • GRIER, David G.
    • G01N
    • H05H3/04G01N15/1484G01N2015/0288G01N2015/1075G01N2015/149G01N2015/1493G03H2001/0077Y10S359/90
    • Static arrays of optical traps can be used to sort microscopic objects with exponential sensitivity to size. Such optical fractionation relies on competition between an externally applied force and the moving objects' differing affinities for optical gradient traps. In a reverse fractionation method, objects that are more strongly influenced by the traps tend to become kinetically locked in to the array and are systematically deflected back into an input flow. In a thermal ratcheting method, patterns are spaced to allow particle diffusion, thus providing the opportunity for forward or reverse movement through the patterns. Unlike other sorting techniques, optical fractionation can operate continuously and can be continuously optimized. The exponential sensitivity arises quite generally from the particle size dependence of the potential wells' apparent widths.
    • 光阱的静态阵列可用于对具有指数敏感度的微观物体进行分类。 这种光学分级依赖于外部施加的力与运动物体对光学梯度陷阱的不同亲和力之间的竞争。 在反向分馏方法中,受陷阱更强烈影响的物体趋向于动力学地锁定到阵列中并被系统地偏转回到输入流中。 在热棘轮方法中,图案间隔开以允许颗粒扩散,从而提供通过图案的正向或反向移动的机会。 与其他分选技术不同,光学分级可以连续工作,可以不断优化。 指数敏感性通常来自潜在井的表观宽度的粒子尺寸依赖性。