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    • 7. 发明授权
    • Reflective focusing and transmissive projection device
    • 反射聚焦和透射投影装置
    • US08633432B2
    • 2014-01-21
    • US12886779
    • 2010-09-21
    • Shuo PangChanghuei Yang
    • Shuo PangChanghuei Yang
    • H01J3/14G01J3/50G01N15/06
    • G01B9/04G02B5/10G02B17/002G02B19/0028G02B19/0076G02B21/0076G02B21/16G02B27/40
    • Embodiments of the present invention relate to a reflective focusing and transmissive projection device having a body, a set of reflective-focusing components and a light detector. The body has a surface layer with first and second surfaces, and a detecting layer outside the second surface. The set of reflective-focusing components is in the surface layer. Each reflective-focusing component has a contouring element and a curved reflective element conformed to the contouring element. The curved reflective element is configured to reflect light of a first type, transmit light of a second type and focus the light of the first type outside the first surface of the surface layer. The light detector is in the detecting layer, and is configured to receive light and generate light data associated with the received light. Also, the contouring element can be configured to focus the light of the second type on the light detector.
    • 本发明的实施例涉及一种具有主体,一组反射聚焦部件和光检测器的反射聚焦和透射投影装置。 主体具有第一表面和第二表面的表面层,以及位于第二表面外部的检测层。 该组反射聚焦组件位于表面层。 每个反射聚焦部件具有轮廓元件和符合轮廓元件的弯曲反射元件。 弯曲反射元件被配置为反射第一类型的光,透射第二类型的光并将第一类型的光聚焦在表面层的第一表面之外。 光检测器在检测层中,并且被配置为接收光并产生与所接收的光相关联的光数据。 此外,轮廓元件可以被配置为将第二类型的光聚焦在光检测器上。
    • 8. 发明授权
    • Systems and methods for phase measurements
    • 相位测量的系统和方法
    • US08334982B2
    • 2012-12-18
    • US12494605
    • 2009-06-30
    • Christopher Fang-YenGabriel PopescuChanghuei YangAdam WaxRamachandra DasariMichael Feld
    • Christopher Fang-YenGabriel PopescuChanghuei YangAdam WaxRamachandra DasariMichael Feld
    • G01B11/02
    • G01B9/02091A61B5/14532A61B5/1455A61B5/7232G01B9/02002G01B9/02007G01B9/02011G01B9/02057G01B9/02063G01B9/02067G01B9/02069G01B9/02071G01B9/02072G01B9/02078G01B9/02083G01B9/0209G01B2290/45G01B2290/60G01B2290/70G01J9/04G01N21/45
    • Preferred embodiments of the present invention are directed to systems for phase measurement which address the problem of phase noise using combinations of a number of strategies including, but not limited to, common-path interferometry, phase referencing, active stabilization and differential measurement. Embodiment are directed to optical devices for imaging small biological objects with light. These embodiments can be applied to the fields of, for example, cellular physiology and neuroscience. These preferred embodiments are based on principles of phase measurements and imaging technologies. The scientific motivation for using phase measurements and imaging technologies is derived from, for example, cellular biology at the sub-micron level which can include, without limitation, imaging origins of dysplasia, cellular communication, neuronal transmission and implementation of the genetic code. The structure and dynamics of sub-cellular constituents cannot be currently studied in their native state using the existing methods and technologies including, for example, x-ray and neutron scattering. In contrast, light based techniques with nanometer resolution enable the cellular machinery to be studied in its native state. Thus, preferred embodiments of the present invention include systems based on principles of interferometry and/or phase measurements and are used to study cellular physiology. These systems include principles of low coherence interferometry (LCI) using optical interferometers to measure phase, or light scattering spectroscopy (LSS) wherein interference within the cellular components themselves is used, or in the alternative the principles of LCI and LSS can be combined to result in systems of the present invention.
    • 本发明的优选实施例涉及用于相位测量的系统,其使用多种策略的组合来解决相位噪声问题,包括但不限于公共路径干涉测量,相位参考,主动稳定和差分测量。 实施例涉及用于用光成像小生物物体的光学装置。 这些实施方案可以应用于例如细胞生理学和神经科学领域。 这些优选实施例基于相位测量和成像技术的原理。 使用相位测量和成像技术的科学动机源于例如亚微米级别的细胞生物学,其可以包括但不限于成像发育异常起源,细胞通讯,神经元传播和遗传密码的实现。 亚细胞组分的结构和动力学目前不能使用现有的方法和技术(例如x射线和中子散射)在其天然状态下研究。 相比之下,具有纳米分辨率的基于光的技术使得能够以其天然状态研究细胞机械。 因此,本发明的优选实施例包括基于干涉测量和/或相位测量的原理的系统,并且用于研究细胞生理学。 这些系统包括使用光学干涉仪来测量相位的低相干干涉测量(LCI)原理,或使用其中使用细胞部件本身内部的干扰的光散射光谱(LSS),或者替代地,LCI和LSS的原理可以组合以产生 在本发明的系统中。
    • 9. 发明授权
    • Optofluidic microscope device with photosensor array
    • 具有光电传感器阵列的光电显微镜装置
    • US08314933B2
    • 2012-11-20
    • US12398050
    • 2009-03-04
    • Xiquan CuiXin HengLap Man LeeChanghuei Yang
    • Xiquan CuiXin HengLap Man LeeChanghuei Yang
    • G01N21/00
    • G01N21/53G01N21/6458
    • Embodiments of the present invention relate to techniques for improving optofluidic microscope (OFM) devices. One technique which may be used eliminates the aperture layer covering the light detector layer. Other techniques retain the aperture layer, reversing the relative position of the light source and light detector such that light passes through the aperture layer before passing through the fluid channel to the light detector. Another technique adds an optical tweezer for controlling the movement of objects moving through the fluid channel. Another technique adds an optical fiber bundle to relay light from light transmissive regions to a remote light detector. Another technique adds two electrodes at ends of the fluid channel to generate an electrical field capable of moving objects through the fluid channel while suppressing rotation. These techniques can be employed separately or in combination to improve the capabilities of OFM devices.
    • 本发明的实施例涉及用于改进光流体显微镜(OFM)装置的技术。 可以使用的一种技术消除了覆盖光检测器层的孔径层。 其他技术保留孔径层,反转光源和光检测器的相对位置,使得光在通过流体通道之前通过孔层,到达光检测器。 另一种技术增加了用于控制移动通过流体通道的物体运动的光学镊子。 另一种技术增加了光纤束,以将来自光透射区域的光中继到远程光检测器。 另一种技术在流体通道的端部添加两个电极,以产生能够通过流体通道移动物体同时抑制旋转的电场。 这些技术可以单独使用或组合使用以提高OFM设备的能力。