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    • 15. 发明申请
    • HIGH FIELD STRENGTH MAGNETIC FIELD GENERATION SYSTEM AND ASSOCIATED METHODS
    • 高强度磁场发生系统及相关方法
    • WO2007117335A2
    • 2007-10-18
    • PCT/US2007/000217
    • 2007-01-04
    • UNIVERSITY OF UTAH RESEARCH FOUNDATIONSTEPHENSON, James, C.GALE, Bruce, K.FURSE, Cynthia
    • STEPHENSON, James, C.GALE, Bruce, K.FURSE, Cynthia
    • H01F7/08
    • H01F7/0284G01R33/3806G01R33/383
    • A magnetic field generation system can comprise first (28a) and second (28b) magnetic flux concentrators each spaced apart to form a sample volume (30). The first (28a) and second (28b) magnetic flux concentrators can be formed of a material having a magnetic field saturation. A first set of auxiliary permanent magnets (10a, 10b) can be symmetrically oriented about a portion of the first magnetic flux concentrator (28a) and can be in substantial contact with the first magnetic flux concentrator. Similarly, a second set of auxiliary permanent magnets (1 Oc, 1 Od) can be symmetrically oriented about a portion of the second magnetic flux concentrator (28b) and can be in substantial contact with the second magnetic flux concentrator. Generally, the first set (10a,10b) and second set (10c,10d) of auxiliary permanent magnets can be remote from the sample volume (30). Each of the first set and second set of auxiliary permanent magnets can be oriented in a magnetically repulsive orientation with respect to at least one other member of their respective sets. The first (10a,10b) and second (10c,10d) sets of auxiliary magnets can be magnetically associated via the first (28a) and second (28b) magnetic flux concentrators. The present invention can further be configured to allow variation of the magnetic field strength across the sample volume by disrupting the field flux across the magnetic flux concentrators. This can be accomplished by orienting one or more magnetically soft shunts (38) in a sufficient proximity to at least one of the magnetic flux concentrators (28a,28b).
    • 磁场产生系统可以包括第一(28a)和第二(28b)磁通量聚集器,每个间隔开以形成样品体积(30)。 第一(28a)和第二(28b)磁通量聚集器可以由具有磁场饱和的材料形成。 第一组辅助永久磁铁(10a,10b)可围绕第一磁通量聚集器(28a)的一部分对称地取向,并且可以与第一磁通集中器实质接触。 类似地,第二组辅助永磁体(1 Oc,1 Od)可以围绕第二磁通量聚集器(28b)的一部分对称地定向,并且可以与第二磁通量集中器实质接触。 通常,辅助永磁体的第一组(10a,10b)和第二组(10c,10d)可以远离样品体积(30)。 第一组和第二组辅助永磁体中的每一个可以相对于它们各自的组的至少一个其它构件以磁性排斥取向定向。 第一(10a,10b)和第二(10c,10d)组辅助磁体可以经由第一(28a)和第二(28b)磁通量集中器磁性地相关联。 本发明还可以被配置为允许通过扰乱磁通集中器上的磁场通量来改变跨样品体积的磁场强度。 这可以通过将一个或多个磁软分流器(38)定向到至少一个磁通量聚集器(28a,28b)的足够接近来实现。
    • 17. 发明申请
    • MICROFLUIDIC FLOW CELL
    • 微流感细胞
    • WO2009111461A2
    • 2009-09-11
    • PCT/US2009/035859
    • 2009-03-03
    • UNIVERSITY OF UTAH RESEARCH FOUNDATIONSUNDBERG, Scott, O.WITTNER, Carl, T.GALE, Bruce, K.
    • SUNDBERG, Scott, O.WITTNER, Carl, T.GALE, Bruce, K.
    • C12M1/10
    • C12Q1/6844B01L3/50273B01L3/50851B01L7/52B01L2200/0642B01L2300/0806B01L2300/0887B01L2400/0409
    • A microfluidic flow cell having a body with a fluid transport channel disposed therein, the fluid transport channel having a proximal end and a distal end defining a fluid flow path, a fluid inlet port disposed at the proximal end of the fluid transport channel at a central portion of the body and an outlet port disposed at the distal end of the fluid transport channel at an outer portion of the body, and a plurality sample wells disposed in the fluid transport channel substantially perpendicular to the fluid flow path in the fluid transport channel. The microfluidic flow cell may have hundreds or thousands of individual, sub-microliter sample wells. The microfluidic flow cell can be filled by applying a flowable liquid to the inlet port and spinning the flow cell to cause fluid to flow into fluid transport channel. The microfluidic flow cells described herein can be used in a variety of applications where small sample size and/or a large number of replicates are desirable.
    • 一种微流体流动池,其具有设置在其中的流体输送通道的主体,所述流体输送通道具有限定流体流动路径的近端和远端;流体入口,其设置在所述流体输送通道的近端处的中心 主体的一部分和设置在主体的外部部分处的流体输送通道的远端处的出口端口以及设置在流体输送通道中的基本上垂直于流体输送通道中的流体流动路径的多个样本阱。 微流体流动池可以具有数百或数千个单独的亚微升样品孔。 可以通过将可流动的液体施加到入口端口并旋转流动池以使流体流入流体输送通道来填充微流体流动池。 本文所述的微流体流动池可以用于需要小样品量和/或大量重复的各种应用中。
    • 19. 发明申请
    • ENHANCED FILL-FACTOR NMR COILS AND ASSOCIATED METHODS
    • 增强填充因子NMR线圈及相关方法
    • WO2007102932A3
    • 2008-05-08
    • PCT/US2007000243
    • 2007-01-04
    • UNIV UTAH RES FOUNDSTEPHENSON JAMES CGALE BRUCE KFURSE CYNTHIA
    • STEPHENSON JAMES CGALE BRUCE KFURSE CYNTHIA
    • G01V3/00
    • G01R33/34046G01R33/34007G01R33/34053G01R33/34092
    • An NMR probe which includes a probe matrix (24) having a void sample (28) volume therein. A conductive coil (16, 26) can be at least partially embedded in the probe matrix (24). By embedding the conductive coil (16, 26) in the probe matrix (24), the fill-factor can be significantly increased. NMR probes can be formed by a method which includes wrapping a conductive wire (16) around a coil form (18) to produce a coil precursor assembly. The probe matrix (24) can be formed around the conductive wire and coil form with a matrix material using any suitable technique such as soft lithography and/or molding. The coil form can be removed from the probe matrix leaving a void sample volume (28) in the probe matrix. Advantageously, the NMR probes of the present invention allow for fill-factors approaching and achieving 100%.
    • NMR探针,其包括其中具有空隙样品(28)体积的探针基质(24)。 导电线圈(16,26)可以至少部分地嵌入在探针基体(24)中。 通过将导电线圈(16,26)嵌入探针基体(24)中,填充因子可以显着增加。 NMR探针可以通过包括围绕线圈形式(18)缠绕导线(16)以产生线圈前体组件的方法形成。 探针矩阵(24)可以使用诸如软光刻和/或模制之类的任何合适的技术在基体材料周围形成导电线和线圈形式。 可以从探针基质中除去线圈形式,留下探针基质中的空隙样品体积(28)。 有利地,本发明的NMR探针允许填充因子接近并达到100%。