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    • 44. 发明申请
    • Optical fiber-mounted porous photonic crystals and sensors
    • 光纤安装多孔光子晶体和传感器
    • US20100008619A1
    • 2010-01-14
    • US12218330
    • 2008-07-14
    • Michael J. Sailor
    • Michael J. Sailor
    • G02B6/00
    • G01N21/7703G01N2021/772G01N2021/773G01N2021/7773G02B2006/12138
    • An embodiment of the invention is a remote sensor that has an optical fiber terminating in a tip. A thin film porous particle having a characteristic optical response that changes in the presence of an analyte is optically coupled and physically attached to the tip of the optical fiber. The optical response of the particle changes in the presence of analyte, and the particle also serves to concentrate analyte. The thin film porous particle can be functionalized toward sensitivity for a predetermined analyte or analytes. A method of remote sensing exposes the remote sensor to an environment to be monitored for analyte. The thin film porous particle is probed with a beam of light. Reflected light is monitored through the optical fiber for a shift in frequency or intensity.
    • 本发明的实施例是一种远程传感器,其具有端接在尖端中的光纤。 具有在分析物存在下发生变化的特征光学响应的​​薄膜多孔颗粒被光学耦合并且物理地附着到光纤的末端。 颗粒的光学响应在分析物的存在下发生变化,并且颗粒也用于浓缩分析物。 薄膜多孔颗粒可以针对预定的分析物或分析物的灵敏度进行功能化。 遥感方法将远程传感器暴露在待分析物监测的环境中。 用光束探测薄膜多孔颗粒。 通过光纤监测反射光的频率或强度偏移。
    • 48. 发明授权
    • Photonic sensor particles and fabrication methods
    • 光子传感器粒子和制造方法
    • US07318903B2
    • 2008-01-15
    • US10567917
    • 2004-08-13
    • Jamie R. LinkMichael J. Sailor
    • Jamie R. LinkMichael J. Sailor
    • C23F1/00B32B3/00
    • B29D11/00663B82Y20/00G01N21/4788G01N21/774G02B6/1225Y10T428/249969
    • The invention is related to optical particles (10), use of optical particles in sensing applications, and methods of fabricating optical particles that can target a desired analyte. The invention is also related to the self assembly of individual optical particles. An advantage of the invention is that it includes self-assembling individual photonic crystal sensors onto a target. In an embodiment of the invention, a processed sensor structure having two generally opposing surfaces is provided, wherein each of the opposing surfaces have different surface affinities, with a first optical structure formed on one of the opposing surfaces, and a second optical structure formed on the other of the opposing surfaces. The chemically and optically asymmetric opposing surfaces will spontaneously align at an organic liquid/water interface. Changes in the optical response of at least one of the opposing surfaces indicate the presence of a particular analyte for sensing applications.
    • 本发明涉及光学粒子(10),光学粒子在感测应用中的应用,以及制造可靶向所需分析物的光学粒子的方法。 本发明还涉及单个光学颗粒的自组装。 本发明的一个优点是它包括将单独的光子晶体传感器自组装到目标上。 在本发明的一个实施例中,提供具有两个大致相对的表面的经处理的传感器结构,其中每个相对表面具有不同的表面亲和力,其中形成在一个相对表面上的第一光学结构和形成在 另一个相对的表面。 化学和光学上不对称的相对表面将在有机液体/水界面处自发排列。 至少一个相对表面的光学响应的​​变化表示存在用于感测应用的特定分析物。