Philips Research, Hamburg, Germany.
Department of Radiology, LUMC, Leiden, the Netherlands.
Br J Radiol. 2020 Jul;93(1111):20200113. doi: 10.1259/bjr.20200113. Epub 2020 Jun 15.
MRI developed during the last half-century from a very basic concept to an indispensable non-ionising medical imaging technique that has found broad application in diagnostics, therapy control and far beyond. Due to its excellent soft-tissue contrast and the huge variety of accessible tissue- and physiological-parameters, MRI is often preferred to other existing modalities. In the course of its development, MRI underwent many substantial transformations. From the beginning, starting as a proof of concept, much effort was expended to develop the appropriate basic scanning technology and methodology, and to establish the many clinical contrasts (, , , flow, diffusion, water/fat, etc.) that MRI is famous for today. Beyond that, additional prominent innovations to the field have been parallel imaging and compressed sensing, leading to significant scanning time reductions, and the move towards higher static magnetic field strengths, which led to increased sensitivity and improved image quality. Improvements in workflow and the use of artificial intelligence are among many current trends seen in this field, paving the way for a broad use of MRI. The 125th anniversary of the BJR is a good point to reflect on all these changes and developments and to offer some slightly speculative ideas as to what the future may bring.
MRI 在过去的半个世纪里从一个非常基本的概念发展成为一种不可或缺的非电离医学成像技术,在诊断、治疗控制等方面得到了广泛的应用。由于其出色的软组织对比度和大量可获得的组织和生理参数,MRI 通常优于其他现有模态。在其发展过程中,MRI 经历了许多实质性的转变。从一开始,作为概念验证,就投入了大量精力来开发适当的基本扫描技术和方法,并建立了 MRI 今天著名的许多临床对比( , , ,流动,扩散,水/脂肪等)。除此之外,该领域的其他突出创新是并行成像和压缩感知,这导致扫描时间显著缩短,以及向更高的静态磁场强度发展,从而提高了灵敏度和图像质量。在这个领域,工作流程的改进和人工智能的使用是许多当前趋势之一,为 MRI 的广泛应用铺平了道路。BJR 创刊 125 周年之际,正是反思所有这些变化和发展并对未来可能带来的变化进行一些略具推测性的思考的好时机。