Unveiling the potential of ultrasound in brain imaging: Innovations, challenges, and prospects

IF 3.8 2区 物理与天体物理 Q1 ACOUSTICS Ultrasonics Pub Date : 2024-09-12 DOI:10.1016/j.ultras.2024.107465
Jiahao Ren , Jian Li , Shili Chen , Yang Liu , Dean Ta
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Abstract

Within medical imaging, ultrasound serves as a crucial tool, particularly in the realms of brain imaging and disease diagnosis. It offers superior safety, speed, and wider applicability compared to Magnetic Resonance Imaging (MRI) and X-ray Computed Tomography (CT). Nonetheless, conventional transcranial ultrasound applications in adult brain imaging face challenges stemming from the significant acoustic impedance contrast between the skull bone and soft tissues. Recent strides in ultrasound technology encompass a spectrum of advancements spanning tissue structural imaging, blood flow imaging, functional imaging, and image enhancement techniques. Structural imaging methods include traditional transcranial ultrasound techniques and ultrasound elastography. Transcranial ultrasound assesses the structure and function of the skull and brain, while ultrasound elastography evaluates the elasticity of brain tissue. Blood flow imaging includes traditional transcranial Doppler (TCD), ultrafast Doppler (UfD), contrast-enhanced ultrasound (CEUS), and ultrasound localization microscopy (ULM), which can be used to evaluate the velocity, direction, and perfusion of cerebral blood flow. Functional ultrasound imaging (fUS) detects changes in cerebral blood flow to create images of brain activity. Image enhancement techniques include full waveform inversion (FWI) and phase aberration correction techniques, focusing on more accurate localization and analysis of brain structures, achieving more precise and reliable brain imaging results. These methods have been extensively studied in clinical animal models, neonates, and adults, showing significant potential in brain tissue structural imaging, cerebral hemodynamics monitoring, and brain disease diagnosis. They represent current hotspots and focal points of ultrasound medical research. This review provides a comprehensive summary of recent developments in brain imaging technologies and methods, discussing their advantages, limitations, and future trends, offering insights into their prospects.

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揭示超声波在脑成像中的潜力:创新、挑战和前景
在医学成像领域,超声波是一种重要工具,尤其是在脑成像和疾病诊断方面。与磁共振成像(MRI)和 X 射线计算机断层扫描(CT)相比,它具有更高的安全性、更快的速度和更广泛的适用性。然而,由于颅骨和软组织之间的声阻抗对比明显,成人脑成像中的传统经颅超声应用面临挑战。超声技术的最新进展涵盖了组织结构成像、血流成像、功能成像和图像增强技术等多个方面。结构成像方法包括传统的经颅超声技术和超声弹性成像技术。经颅超声可评估颅骨和大脑的结构和功能,而超声弹性成像可评估脑组织的弹性。血流成像包括传统的经颅多普勒(TCD)、超快多普勒(UfD)、对比增强超声(CEUS)和超声定位显微镜(ULM),可用于评估脑血流的速度、方向和灌注情况。功能超声成像(fUS)通过检测脑血流的变化来创建大脑活动图像。图像增强技术包括全波形反转(FWI)和相位差校正技术,重点是更准确地定位和分析大脑结构,获得更精确可靠的大脑成像结果。这些方法已在临床动物模型、新生儿和成人中得到广泛研究,在脑组织结构成像、脑血流动力学监测和脑疾病诊断方面显示出巨大潜力。它们代表了当前超声医学研究的热点和焦点。本综述全面总结了脑成像技术和方法的最新发展,讨论了其优势、局限性和未来趋势,并对其前景提出了见解。
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来源期刊
Ultrasonics
Ultrasonics 医学-核医学
CiteScore
7.60
自引率
19.00%
发文量
186
审稿时长
3.9 months
期刊介绍: Ultrasonics is the only internationally established journal which covers the entire field of ultrasound research and technology and all its many applications. Ultrasonics contains a variety of sections to keep readers fully informed and up-to-date on the whole spectrum of research and development throughout the world. Ultrasonics publishes papers of exceptional quality and of relevance to both academia and industry. Manuscripts in which ultrasonics is a central issue and not simply an incidental tool or minor issue, are welcomed. As well as top quality original research papers and review articles by world renowned experts, Ultrasonics also regularly features short communications, a calendar of forthcoming events and special issues dedicated to topical subjects.
期刊最新文献
The effect of micro-vessel viscosity on the resonance response of a two-microbubble system. Ultrasound imaging with flexible transducers based on real-time and high-accuracy shape estimation. Investigation of rare earth giant magnetostrictive transducers based on improved LTspice circuit model. Investigation of a multi-frequency ultrasonic acoustic pressure source for acoustic agglomeration. Interaction effects on acoustic emissions of submicron ultrasound contrast agents at subharmonic resonances.
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