Water Hammer Phenomenon in Coronary Arteries: Scientific Basis for Diagnostic and Predictive Modeling with Acoustic Action Mapping.

IF 3.3 3区 医学 Q1 MEDICINE, GENERAL & INTERNAL Diagnostics Pub Date : 2025-02-25 DOI:10.3390/diagnostics15050553
Khiem D Ngo, Thach Nguyen, Huan Dat Pham, Hadrian Tran, Dat Q Ha, Truong S Dinh, Imran Mihas, Mihas Kodenchery, C Michael Gibson, Hien Q Nguyen, Thang Nguyen, Vu T Loc, Chinh D Nguyen, Hoang Anh Tien, Ernest Talarico, Marco Zuin, Gianluca Rigatelli, Aravinda Nanjundappa, Quynh T N Nguyen, The-Hung Nguyen
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Abstract

Background: In the study of coronary artery disease, the mechanisms underlying atherosclerosis initiation and progression or regression remain incompletely understood. Our research conceptualized the cardiovascular system as an integrated network of pumps and pipes, advocating for a paradigm shift from static imaging of coronary stenosis to dynamic assessments of coronary flow. Further review of fluid mechanics highlighted the water hammer phenomenon as a compelling analog for processes in coronary arteries. Methods: In this review, the analytical methodology employed a comprehensive, multifaceted approach that incorporated a review of fluid mechanics principles, in vitro acoustic experimentation, frame-by-frame visual angiographic assessments of in vivo coronary flow, and an artificial intelligence (AI) protocol designed to analyze the water hammer phenomenon within an acoustic framework. In the analysis of coronary flow, the angiograms were selected from patients with unstable angina if they had previously undergone one or more coronary angiograms, allowing for a longitudinal comparison of dynamic flow and phenomena. Results: The acoustic investigations pinpointed pockets of contrast concentrations, which might correspond to compression and rarefaction zones. Compression antinodes were correlated to severe stenosis, due to rapid shifts from low-pressure diastolic flow to high-pressure systolic surges, resulting in intimal injury. Rarefaction antinodes were correlated with milder lesions, due to de-escalating transitions from high systolic pressure to lower diastolic pressure. The areas of nodes remained without lesions. Based on the locations of antinodes and nodes, a coronary acoustic action map was constructed, enabling the identification of existing lesions, forecasting the progression of current lesions, and predicting the development of future lesions. Conclusions: The results suggested that intimal injury was likely induced by acoustic retrograde pressure waves from the water hammer phenomenon and developed new lesions at specifically exact locations.

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冠状动脉水锤现象:声学作用图诊断和预测建模的科学依据。
背景:在冠状动脉疾病的研究中,动脉粥样硬化发生、进展或消退的机制尚不完全清楚。我们的研究将心血管系统概念化为泵和管道的综合网络,倡导从冠状动脉狭窄的静态成像到冠状动脉血流的动态评估的范式转变。流体力学的进一步回顾强调了水锤现象是冠状动脉过程的一个令人信服的类比。方法:在这篇综述中,分析方法采用了一种全面的、多方面的方法,包括流体力学原理的回顾、体外声学实验、体内冠状动脉血流逐帧视觉血管造影评估,以及旨在在声学框架内分析水锤现象的人工智能(AI)协议。在冠状动脉血流的分析中,血管造影选择了不稳定型心绞痛患者,如果他们之前做过一次或多次冠状动脉造影,允许纵向比较动态血流和现象。结果:声学检查确定了造影剂浓度的口袋,这可能对应于压缩区和稀薄区。由于从低压舒张期血流迅速转变为高压收缩期血流,从而导致内膜损伤,压缩抗体与严重狭窄相关。由于从高收缩压到低舒张压的降级转变,稀少的抗体与较轻的病变相关。淋巴结未见病变。根据抗原和淋巴结的位置,构建冠状动脉声学作用图,识别现有病变,预测当前病变的进展,预测未来病变的发展。结论:水锤现象引起的声逆行压力波可能是引起大鼠内膜损伤的主要原因,并在特定部位形成新的损伤。
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来源期刊
Diagnostics
Diagnostics Biochemistry, Genetics and Molecular Biology-Clinical Biochemistry
CiteScore
4.70
自引率
8.30%
发文量
2699
审稿时长
19.64 days
期刊介绍: Diagnostics (ISSN 2075-4418) is an international scholarly open access journal on medical diagnostics. It publishes original research articles, reviews, communications and short notes on the research and development of medical diagnostics. There is no restriction on the length of the papers. Our aim is to encourage scientists to publish their experimental and theoretical research in as much detail as possible. Full experimental and/or methodological details must be provided for research articles.
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