Magnetic Resonance Imaging Meets Fiber Optics: a Brief Investigation of Multimodal Studies on Fiber Optics-Based Diagnostic / Therapeutic Techniques and Magnetic Resonance Imaging

Jong-ryul Choi, S. Oh
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Abstract

optics can be integrated with magnetic resonance imaging (MRI) diagnostic systems to acquire valuable information on biological tissues and organs based on a magnetic field. In this article, we explored the combination of MRI and optical sensing/imaging techniques by classifying them into the following topics: 1) functional near-infrared spectroscopy with functional MRI for brain studies and brain disease diagnoses, 2) integration of fiber-optic molecular imaging and optogenetic stimulation with MRI, and 3) optical therapeutic applications with an MRI guidance system. Through these investigations, we believe that a combination of MRI and optical sensing/imaging techniques can be employed as both research methods for multidisciplinary studies and clinical diagnostic/therapeutic devices. oxygenated hemoglobin dynamics captured by fNIRS and BOLD fMRI in this experiment. ΔHbO-BOLD indicates a correlation between changes in BOLD fMRI signals and oxygenated hemoglobin measured by fNIRS. ΔHbR-BOLD indicates a correlation between changes in BOLD fMRI signals and deoxygenated hemoglobin measured by fNIRS. Deriving the relationship between hemodynamics measured by fNIRS and BOLD fMRI signals and acquiring a highly relevant brain region for the specific brain functions could be utilized to analyze brain activities and functions in more various scenarios compared with using MRI only. Reprint of figures in (32) is permitted by Springer Nature under the terms of the Creative Commons CC BY license.
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磁共振成像与光纤:基于光纤的诊断/治疗技术和磁共振成像的多模态研究综述
光学可以与磁共振成像(MRI)诊断系统集成,以获得基于磁场的生物组织和器官的有价值信息。在本文中,我们探讨了MRI与光学传感/成像技术的结合,并将其分为以下几个主题:1)功能近红外光谱与功能MRI在脑研究和脑疾病诊断中的应用;2)光纤分子成像和光遗传刺激与MRI的集成;3)光学治疗与MRI引导系统的应用。通过这些研究,我们相信MRI和光学传感/成像技术的结合可以作为多学科研究的研究方法和临床诊断/治疗设备。本实验采用fNIRS和BOLD功能磁共振成像捕捉氧合血红蛋白动态。ΔHbO-BOLD表示BOLD fMRI信号变化与fNIRS测量的含氧血红蛋白之间的相关性。ΔHbR-BOLD表示BOLD fMRI信号变化与fNIRS测量的脱氧血红蛋白之间的相关性。推导fNIRS测量的血流动力学与BOLD fMRI信号之间的关系,获得与特定脑功能高度相关的脑区域,与仅使用MRI相比,可以用于分析更多场景下的脑活动和功能。b施普林格Nature在知识共享CC by许可条款下允许对(32)中的数据进行转载。
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