用时间分辨光声显微镜监测微血管钙化

IF 7.1 1区 医学 Q1 ENGINEERING, BIOMEDICAL
Haigang Ma , Yinshi Yu , Yahui Zhu , Hongjun Wu , Haixia Qiu , Ying Gu , Qian Chen , Chao Zuo
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引用次数: 0

摘要

监测微血管钙化(MC)对于理解病理生理过程和描述某些生理状态(如药物滥用、代谢异常和慢性肾炎)至关重要。在这项工作中,我们开发了一种新颖有效的时间分辨光声显微镜(TR-PAM)技术,它可以观察到 MC 在发展过程中由于钙沿血管壁沉积而产生的明显的微血管生物弹性变化。此外,还构建了 MC 病理动物模型,并利用 TR-PAM 进行了原位和活体成像,以证明其在 MC 生物力学监测和表征方面的能力,实验结果与病理知识相符。利用 TR-PAM 监测 MC 的可行性研究证明,该技术有潜力发展成为一种浅表微血管生物力学评估方法,以补充目前临床预测和监测某些疾病的策略。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Monitoring of microvascular calcification by time-resolved photoacoustic microscopy
Monitoring of microvascular calcification (MC) is essential for the understanding of pathophysiological processes and the characterization of certain physiological states such as drug abuse, metabolic abnormality, and chronic nephrosis. In this work, we develop a novel and effective time-resolved photoacoustic microscopy (TR-PAM) technology, which can observe the obvious microvascular bio-elastic change in the development process of the MC owing to the calcium deposition along vascular walls.The feasibility of the TR-PAM imaging was validated using a group of agar phantoms and ex vivo tissues. Furthermore, MC pathological animal models were constructed and imaged in situ and in vivo by the TR-PAM to demonstrate its capability for the bio-mechanical monitoring and characterization of MC, and experimental results were consistent with the pathological knowledge. The feasibility study of monitoring MC by the TR-PAM proves that this technique has potential to be developed as a superficial microvascular bio-mechanical assessment method to supplement current clinical strategy for prediction and monitoring of some diseases.
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来源期刊
Photoacoustics
Photoacoustics Physics and Astronomy-Atomic and Molecular Physics, and Optics
CiteScore
11.40
自引率
16.50%
发文量
96
审稿时长
53 days
期刊介绍: The open access Photoacoustics journal (PACS) aims to publish original research and review contributions in the field of photoacoustics-optoacoustics-thermoacoustics. This field utilizes acoustical and ultrasonic phenomena excited by electromagnetic radiation for the detection, visualization, and characterization of various materials and biological tissues, including living organisms. Recent advancements in laser technologies, ultrasound detection approaches, inverse theory, and fast reconstruction algorithms have greatly supported the rapid progress in this field. The unique contrast provided by molecular absorption in photoacoustic-optoacoustic-thermoacoustic methods has allowed for addressing unmet biological and medical needs such as pre-clinical research, clinical imaging of vasculature, tissue and disease physiology, drug efficacy, surgery guidance, and therapy monitoring. Applications of this field encompass a wide range of medical imaging and sensing applications, including cancer, vascular diseases, brain neurophysiology, ophthalmology, and diabetes. Moreover, photoacoustics-optoacoustics-thermoacoustics is a multidisciplinary field, with contributions from chemistry and nanotechnology, where novel materials such as biodegradable nanoparticles, organic dyes, targeted agents, theranostic probes, and genetically expressed markers are being actively developed. These advanced materials have significantly improved the signal-to-noise ratio and tissue contrast in photoacoustic methods.
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