Endomicroscopy and biocompatible fluorescent nanocomplexes for clinical translation of high-resolution optical molecular imaging

Jiefeng Xi, Yicong Wu, Tae Hee Kim, Yongping Chen, Desheng Zheng, Li Huo, M. Cobb, S. Pun, J. Hwang, Xingde Li
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Abstract

This paper reports on our recent development of two-types of all-fiber-optic scanning endomicroscopy technologies for high-resolution optical imaging of internal organs. The first one is an OCT balloon catheter technology that permits systematic imaging of fine architectural morphologies of internal luminal organs over a large area. The second is a two-photon fluorescence endomicroscopy technology that enables assessment of tissue biochemical/metabolic information with a superb spatial resolution. Both endomicroscopes have a small diameter (1.2–2.4 mm) and can be readily integrated with a standard clinical gastroscope, providing complementary information about tissue structure and function and helping improve diagnostic yield. We will discuss the basic design principles, major engineering challenges, solutions, and some preliminary results. In addition, we will also present our approach in developing near infrared (NIR) fluorescent nanocomplexes (ICG-micelles), which can be functionalized for active molecular targeting to improve molecular specificity and imaging contrast. These nanocomplexes, made of FDA approved building blocks, are biocompatible and very promising for clinical translation. Ultimately the NIR nanocomplexes can be used in conjunction with endomicroscopy technologies for performing high-resolution optical molecular imaging in vivo and in real time.
用于高分辨率光学分子成像临床翻译的内镜显微镜和生物相容性荧光纳米复合物
本文报道了两种全光纤扫描显微内镜技术的最新进展,用于内脏器官的高分辨率光学成像。第一个是OCT球囊导管技术,它允许在大范围内对内腔器官的精细建筑形态进行系统成像。第二种是双光子荧光内窥镜技术,能够以极高的空间分辨率评估组织生化/代谢信息。这两种内镜显微镜的直径都很小(1.2-2.4 mm),可以很容易地与标准的临床胃镜集成,提供有关组织结构和功能的补充信息,有助于提高诊出率。我们将讨论基本设计原则、主要工程挑战、解决方案和一些初步结果。此外,我们还将介绍我们开发近红外(NIR)荧光纳米复合物(icg -胶束)的方法,该方法可以被功能化用于活性分子靶向,以提高分子特异性和成像对比度。这些纳米复合物由FDA批准的构建块制成,具有生物相容性,非常有希望用于临床翻译。最终,近红外纳米复合物可以与内窥镜技术结合使用,在体内和实时进行高分辨率光学分子成像。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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