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用于脑成像的超声方法:技术与影响

Ultrasonic Methods for Brain Imaging: Techniques and Implications.

作者信息

Zheng Yinfei, Yang Yuming, Zhang Qiongwen, Jiang Dong, Tu Juan, Zhang Dong, Duan Huilong

出版信息

IEEE Trans Biomed Eng. 2022 Nov;69(11):3526-3537. doi: 10.1109/TBME.2022.3173035. Epub 2022 Oct 19.

DOI:10.1109/TBME.2022.3173035
PMID:35522631
Abstract

Brain imaging technology is widely used in the diagnosis of brain diseases. Computed tomography and magnetic resonance imaging are the most common imaging modalities used for clinical brain imaging, whereas ultrasound is rarely used because the skull substantially reduces the incident energy of ultrasonic waves to levels too low for imaging. However, remarkable developments of novel technologies in ultrasound brain imaging have been achieved recently, including Doppler-based imaging, contrast agent imaging, ultrasound elastography, and phase compensation imaging. Doppler-based imaging, including ultrafast Doppler imaging and functional ultrasound, is able to obtain reliable cerebral blood volume changes and has the best penetration depth and a better spatiotemporal resolution. Contrast agent brain imaging, including ultrasound localization microscopy, can obtain super spatial resolution vasculature maps over a large region within a few minutes of acquisition and reconstruction time. Ultrasound elastography reflects the stiffness of brain tissues. Phase correction imaging, such as time reversal mirror and spatiotemporal inverse filter, aims at focusing smoothly in the skull. These methods have been widely performed on animal models, newborn children, and adults in preclinical studies, with results demonstrating great potential in the diagnosis and treatment of brain diseases. This review discusses the ultrasound methods developed in recent years for brain imaging and highlights the promising future they hold.

摘要

脑成像技术广泛应用于脑部疾病的诊断。计算机断层扫描和磁共振成像 是临床脑部成像最常用的成像方式,而超声很少使用,因为颅骨会大幅降低超声波的入射能量,使其低至无法成像的水平。然而,近年来超声脑成像新技术取得了显著进展,包括基于多普勒的成像、造影剂成像、超声弹性成像和相位补偿成像。基于多普勒的成像,包括超快多普勒成像和功能超声,能够获得可靠的脑血容量变化,具有最佳的穿透深度和更好的时空分辨率。造影剂脑成像,包括超声定位显微镜检查,能够在几分钟的采集和重建时间内获得大面积的超空间分辨率血管图谱。超声弹性成像反映脑组织的硬度。相位校正成像,如时间反转镜和时空逆滤波器,旨在在颅骨内实现平滑聚焦。这些方法已在临床前研究中广泛应用于动物模型、新生儿和成人,结果表明其在脑部疾病的诊断和治疗方面具有巨大潜力。本综述讨论了近年来开发的用于脑成像的超声方法,并强调了它们的光明前景。

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