超声波成像。

Q3 Medicine
Georg Schmitz, Stefanie Dencks
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引用次数: 1

摘要

超声成像在肿瘤成像中起着重要的作用,至今已有五十多年的历史。它可以应用于所有没有被骨骼或充满气体的区域阻塞的组织。超声图像的质量很大程度上得益于电子技术的改进和计算能力的提高。在形态学成像中,增加了几种功能成像方法:多普勒技术使血流可视化成为可能,作为最近增加的一项技术,组织的弹性特性可以通过瞬态横波成像的弹性成像方法成像。在分子成像的开始阶段,基于机械组织特性的超声造影剂不太可能发挥作用。然而,使用由微米大小的气泡组成的造影剂,可以以高灵敏度成像,可以使用定位血管壁目标的配体。因为即使是单个气泡也可以被检测到,这导致了各种超声分子成像技术和临床分子造影剂的不断发展。在这一章中,讨论了超声成像的基本特性,如超声成像的对比度机制和时空分辨率。解释了图像的形成及其从面向线的扫描到全体积重建的持续变化。然后,介绍了超声造影剂和成像技术,并介绍了超分辨率血管成像等新兴技术,展示了该领域的不断发展。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Ultrasound Imaging.

Ultrasound imaging plays an important role in oncological imaging for more than five decades now. It can be applied in all tissues that are not occluded by bone or gas-filled regions. The quality of ultrasound images benefitted strongly from improved electronics and increased computational power. To the morphological imaging, several functional imaging methods were added: Flow visualization became possible by Doppler techniques and as a recent addition the elastic properties of tissues can be imaged by elastographic methods with transient shear wave imaging. In the beginning of molecular imaging, ultrasound with its contrast based on mechanical tissue properties was an unlikely candidate to play a role. However, with contrast agents consisting of micrometer-sized gas bubbles, which can be imaged with high sensitivity, ligands addressing targets in the vascular wall could be used. Because even single bubbles can be detected, this led to various ultrasound molecular imaging techniques and the ongoing development of clinical molecular contrast media. In this chapter, the basic properties of ultrasonic imaging like its contrast mechanisms and spatiotemporal resolution are discussed. The image formation and its ongoing change from line-oriented scanning to full-volume reconstructions are explained. Then, the ultrasound contrast media and imaging techniques are introduced and emerging new methods like super-resolution vascular imaging demonstrate the ongoing development in this field.

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来源期刊
CiteScore
5.60
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