Tummon Simmons, Sarah J Werezak, Benjamin R Ecclestone, James E D Tweel, Hager Gaouda, Parsin Haji Reza
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引用次数: 0
摘要
目的:血管功能成像是早期检测和预防疾病的重要方法。现有的非接触式血管成像技术主要捕捉结构信息。本研究开发了一种新型非接触式无标记体内光子吸收遥感(PARS)显微镜,用于血管结构和功能成像:方法:所介绍的活体 PARS 显微镜可捕捉绿光(532 纳米)的内源性吸收,从而形成血管和周围组织的完整图像。通过强大的瞬态吸收信号提取和最先进的实时对准方法,成像系统的可重复性得到了提高:结果:通过对小鼠耳部和鸡胚胎这两种已建立的动物模型进行活体显微成像,展示了血管结构的详细成像。通过对鸡胚毛细血管网络中红细胞动态的视频速率成像,实现了初步的功能对比:结论:所展示的活体 PARS 显微镜成功捕捉到了详细的血管结构和功能对比:这种创新的非接触式无标记成像技术有望成为一种预防性医疗工具,因为功能性变化往往先于结构性变化。
Label-Free Non-Contact Vascular Imaging using Photon Absorption Remote Sensing.
Objective: Functional vascular imaging is a critical method for early detection and prevention of disease. Established non-contact vascular imaging techniques capture predominantly structural information. In this study, a novel non-contact label-free in vivo Photon Absorption Remote Sensing (PARS) microscope is developed for structural and functional vascular imaging.
Methods: The presented in vivo PARS microscope captures the endogenous absorption of green (532nm) light to form a complete picture of vasculature and surrounding tissues. Imaging system repeatability is enhanced through robust transient absorption signal extraction, and state-of-the-art real-time alignment methods.
Results: Detailed imaging of vascular structure is demonstrated through in vivo microscopy of two established animal models: mouse ear and chicken embryo. Preliminary functional contrast is realized through video rate imaging of red blood cell dynamics in the capillary networks of chicken embryos.
Conclusion: The presented in vivo PARS microscope successfully captures detailed structural and functional vascular contrast.
Significance: This innovative non-contact label-free imaging technique holds promise as a tool for preventative medical care, as functional change often precedes structural change.
期刊介绍:
IEEE Transactions on Biomedical Engineering contains basic and applied papers dealing with biomedical engineering. Papers range from engineering development in methods and techniques with biomedical applications to experimental and clinical investigations with engineering contributions.