THREE-DIMENSIONAL MICROFLUIDIC SYSTEMS
    1.
    发明申请
    THREE-DIMENSIONAL MICROFLUIDIC SYSTEMS 审中-公开
    三维微流体系统

    公开(公告)号:WO2011009164A1

    公开(公告)日:2011-01-27

    申请号:PCT/AU2010/000922

    申请日:2010-07-20

    Abstract: A three-dimensional microfluidic system including: at least one hydrophilic thread along which fluid can be transported through capillary wicking; and at least one hydrophobic substrate for supporting the hydrophilic thread. A method of transporting and mixing a plurality of fluids within a microfluidic system including at least two hydrophilic threads and a hydrophobic substrate having at least two zones, each of the hydrophilic threads supported on a different hydrophobic substrate zone, including: delivering each said fluid to a different hydrophilic thread; and bringing the at least two hydrophilic threads into contact to cause mixing of the fluids.

    Abstract translation: 一种三维微流体系统,包括:至少一个亲水螺纹,流体可以通过毛细管芯吸输送; 和用于支撑亲水性线的至少一个疏水性基材。 一种在包括至少两个亲水丝线的微流体系统和包含至少两个区域的疏水基底的微流体系统内输送和混合多种流体的方法,所述亲水丝线中的每一个支撑在不同的疏水基底区域上,包括:将每个所述流体递送到 不同的亲水线; 并使至少两个亲水丝接触以引起流体的混合。

    METHODS AND APPARATUS FOR AUTOMATICALLY SYNCHRONIZING AND REGULATING VOLUME IN AUDIO COMPONENT SYSTEMS
    3.
    发明申请
    METHODS AND APPARATUS FOR AUTOMATICALLY SYNCHRONIZING AND REGULATING VOLUME IN AUDIO COMPONENT SYSTEMS 审中-公开
    用于在音频组件系统中自动同步和调节音量的方法和设备

    公开(公告)号:WO9926337A9

    公开(公告)日:1999-12-23

    申请号:PCT/US9824314

    申请日:1998-11-13

    CPC classification number: H04S7/30 H03G5/165 H04S2400/13

    Abstract: A signal regulator (50) regulates an auxiliary signal (A) based upon a primary signal (P') scaled by an external amplifier. The signal regulator (50) receives the primary signal with an unscaled level (P). Processing circuitry (54) monitors the unscaled level of the primary signal. The primary signal (at 56) is then output to the external amplifier for scaling, either by amplification or attenuation. The primary signal with a scaled level (P') is fed back to the signal regulator (50) from the amplifier. The processing circuitry (54) monitors the scaled level of the primary signal (P') from the amplifier, and then generates a gain factor (G) based upon the unscaled level (P) and scaled level of the primary signal (P'). An auxiliary signal (A) is received by the signal regulator (50). Adjusting circuitry (62) adjusts a level of the auxiliary signal based upon the gain factor (G). The auxiliary signal with the adjusted level (A') is then provided to an external component, for example, a loudspeaker.

    Abstract translation: 信号调节器(50)基于由外部放大器缩放的主信号(P')来调节辅助信号(A)。 信号调节器(50)接收具有未缩放级别(P)的主信号。 处理电路(54)监视主信号的未缩放的电平。 然后将主信号(在56处)输出到外部放大器以通过放大或衰减进行缩放。 具有定标电平(P')的主信号从放大器反馈到信号调节器(50)。 处理电路(54)监测来自放大器的主信号(P')的经缩放的电平,然后基于未经缩放的电平(P)和主信号(P')的经缩放的电平来生成增益因子(G) 。 信号调节器(50)接收辅助信号(A)。 调整电路(62)根据增益因子(G)调整辅助信号的电平。 然后将具有调节后的电平(A')的辅助信号提供给外部部件,例如扬声器。

    QUANTITATIVE AND SELF-CALIBRATING CHEMICAL ANALYSIS USING PAPER-BASED MICROFLUIDIC SYSTEMS
    8.
    发明申请
    QUANTITATIVE AND SELF-CALIBRATING CHEMICAL ANALYSIS USING PAPER-BASED MICROFLUIDIC SYSTEMS 审中-公开
    使用基于纸张的微流体系统的量化和自我校准化学分析

    公开(公告)号:WO2011000047A1

    公开(公告)日:2011-01-06

    申请号:PCT/AU2010/000837

    申请日:2010-06-30

    Abstract: A method of determining the concentration of a test fluid sample using a paper-based microfluidic system having a plurality of hydrophilic testing zones, including: a) depositing said test fluid sample on at least one said testing zone; b) depositing a plurality of standard fluid samples or reactives of differing known concentrations on other said testing zones; c) introducing an indicator solution to each said test zone to thereby react with the deposited fluid sample and result in a colour intensity change which is a function of the fluid sample concentration; and d) comparing the differences in colour intensity between the test fluid sample and the standard fluid samples or reactives to thereby determine the concentration of said test fluid sample.

    Abstract translation: 一种使用具有多个亲水测试区域的基于纸的微流体系统确定测试流体样品的浓度的方法,包括:a)将所述测试流体样品沉积在至少一个所述测试区域上; b)在其他所述测试区域上沉积不同已知浓度的多个标准流体样品或反应物; c)向每个所述测试区域引入指示剂溶液,从而与沉积的流体样品反应并导致作为流体样品浓度的函数的颜色强度变化; 以及d)比较测试流体样品和标准流体样品或反应物之间的颜色强度的差异,从而确定所述测试流体样品的浓度。

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