Integrated Optical Coherence Tomography and Microscopy for Molecular-Targeted Ima

光学相干断层扫描（OCT）是一种强大的工具，用于评估体内和实时的三维（3D）组织结构形态，其分辨率接近标准组织病理学。光学相干显微镜（OCM）将OCT与共聚焦显微镜相结合，以实现高横向分辨率和细胞特征的三维可视化。然而，目前的OCT和OCM成像技术还不能利用分子靶向造影剂的进步，因为没有。使用OCT和OCM生成分子对比的已知方法。我们的假设是，3D、多尺度OCT和OCM结合分子靶向造影剂，将提高早期癌症检测的敏感性和特异性。该项目的目标是在初步研究的基础上，开发3D-0CT和OCM成像的分子对比技术。

Optical coherence tomography (OCT) is a powerful tool for assessing three-dimensional (3D) tissue architectural morphology in vivo and in real-time, with a resolution approaching that of standard histopathology. Optical coherence microscopy (OCM) combines OCT with confocal microscopy in order to achieve high transverse resolution and 3D visualization of cellular features. However, current OCT and OCM imaging technologies have not been able to leverage the advances in molecular-targeted contrast agents because there is no. known method to generate molecular contrast using OCT and OCM. Our hypothesis is that 3D, multi-scale OCT and OCM, in combination with molecular-targeted contrast agents, will improve the sensitivity and specificity of early cancer detection. The goal of this program is to develop the technology that will enable molecular contrast for 3D-0CT and OCM imaging, building upon preliminary studies. This program will vertically integrate technical development in OCT and OCM, and leverage recent advances in molecular-targeted contrast agents and nanotechnology. The successful completion of this program will: 1) transform the OCT field by enabling molecularly sensitive contrast and 3D structural imaging; 2) open the way for the highly sensitive and specific detection of cancer markers that can be readily combined with photothermal therapeutic techniques; and 3) serve as a launching point for additional OCT and OCM studies of other pathologies associated with abnormal protein expression levels, such as neurodegenerative and cardiovascular diseases. These advances will enable both the structure and pathological states of tissue to be imaged in 3D, in vivo, in real time, and with micron-level spatial resolutions at multiple scales.