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氟代示踪剂在正电子发射断层扫描中的作用和未来潜力。

The role and future potential of fluorinated biomarkers in positron emission tomography.

机构信息

Cardiff University, Wales Research and Diagnostic Positron Emission Tomography (PET) Imaging Centre, School of Medicine, Heath Park, Cardiff, CF14 4XN, Wales, UK.

出版信息

Expert Opin Drug Discov. 2010 Mar;5(3):291-304. doi: 10.1517/17460441003652967.

Abstract

IMPORTANCE OF THE FIELD

Positron emission tomography (PET) is rapidly emerging as the functional imaging method of choice for in vivo imaging applications in a number of key areas of drug discovery and clinical pathology, but especially in oncology. One key limitation of PET is the requirement for rapid synthesis and purification of biomarker/drug molecules regiospecifically labelled with short-lived positron-emitting isotopes.

AREAS COVERED IN THIS REVIEW

In this review, we focus on the role of (18)F-labelled molecules in PET, presenting a perspective on the challenges associated with the synthesis and future clinical utility of a range of labelled small molecules and macromolecular structures. Further preclinical method development for the regiospecific synthesis of fluorinated biomarkers under mild conditions is required before a wide range of (18)F-labelled molecules take their place alongside clinically established oncology biomarkers such as (18)FDG and (18)FLT.

WHAT THE READER WILL GAIN

In this review, we offer insights into current and future chemical methods for the efficient synthesis of fluorinated PET biomarkers, featuring modern technologies such as microwave-promoted chemistries and microfluidic reactors, both of which possess the capability to routinely and rapidly produce the small quantities of PET-labelled molecules under the mild and efficient conditions that are required for PET tracer synthesis.

TAKE HOME MESSAGE

(18)F PET is a flourishing field with many applications in drug discovery and development, through radiolabelling of drug molecules or use of fluorinated disease biomarkers.

摘要

重要性领域

正电子发射断层扫描(PET)作为一种功能成像方法,正在迅速成为药物发现和临床病理学多个关键领域(尤其是肿瘤学)的体内成像应用的首选方法。PET 的一个关键限制是需要快速合成和纯化具有短寿命正电子发射同位素区域特异性标记的生物标志物/药物分子。

这篇综述涵盖的领域

在这篇综述中,我们专注于(18)F 标记分子在 PET 中的作用,提出了一系列与合成相关的挑战以及一系列标记小分子和大分子结构的未来临床应用。在广泛使用(18)F 标记分子替代临床建立的肿瘤生物标志物(如(18)FDG 和(18)FLT)之前,需要进一步开发针对温和条件下氟标记生物标志物的区域特异性合成的临床前方法。

读者将获得的收益

在这篇综述中,我们提供了有关用于高效合成氟代 PET 生物标志物的当前和未来化学方法的见解,这些方法采用了微波促进化学和微流反应器等现代技术,它们都有能力在温和高效的条件下常规且快速地生产 PET 标记分子,这些条件是 PET 示踪剂合成所必需的。

重要信息

(18)F PET 是一个蓬勃发展的领域,在药物发现和开发中有许多应用,包括通过药物分子的放射性标记或使用氟代疾病生物标志物。

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