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若你视而不见,便会错失良机:生物医学成像在放射肿瘤学中的作用。

If you can't see it, you can miss it: the role of biomedical imaging in radiation oncology.

作者信息

Schlegel W

机构信息

DKFZ, Department of Medical Physics in Radiooncology, Im Neuenheimer Feld 280, D 69120 Heidelberg, Germany.

出版信息

Radiat Prot Dosimetry. 2010 Apr-May;139(1-3):321-6. doi: 10.1093/rpd/ncq022. Epub 2010 Mar 11.

Abstract

During the last three decades, 3D imaging as X-ray computerised tomography and magnetic resonance imaging was introduced to characterise tumour morphology for an improved delineation of the gross target volume and the clinical target volume. At present, the time has come to also start the assessment and correction of the temporal changes of the target volume. This is the basis of 'image-guided radiotherapy' (IGRT), which is characterised by the integration of 2D and 3D imaging modalities into the radiotherapy workflow. The vision is to detect deformations and motion between radiotherapy fractions (inter-fractional IGRT) and during beam delivery (intra-fractional IGRT). Another challenge in radiotherapy is to develop concepts to include and integrate biological imaging into radiotherapy, first by extending the morphological towards a biological planning target volume and second by delivering appropriate inhomogeneous dose distributions, e.g. with the new tools of photon- and particle- Intensity Modulated Radiotherapy (IMRT) techniques ('dose painting').

摘要

在过去三十年中,X射线计算机断层扫描和磁共振成像等三维成像技术被引入,用于表征肿瘤形态,以更好地勾勒大体靶区和临床靶区。目前,也到了开始评估和校正靶区随时间变化的时候了。这是“图像引导放射治疗”(IGRT)的基础,其特点是将二维和三维成像模式整合到放射治疗工作流程中。其愿景是检测放射治疗分次之间(分次间IGRT)以及射束传输过程中(分次内IGRT)的变形和运动。放射治疗中的另一个挑战是开发相关概念,将生物成像纳入并整合到放射治疗中,首先是将形态学靶区扩展为生物计划靶区,其次是通过光子和粒子调强放射治疗(IMRT)技术的新工具(“剂量描绘”)提供适当的非均匀剂量分布。

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