固相微萃取作为一种简便、快速、绿色的采样和样品前处理技术，近年来引起了广泛关注。在活体分析领域，基于相关萃取动力学理论的发展和新型活体采样探针的研制，固相微萃取技术逐步用于不同动植物体系中多种污染物的分析。本文概述了固相微萃取活体定量校正方法的开发、活体采样动力学过程的研究、新型活体采样探针的制备，以及活体固相微萃取方法在动植物组织中污染物快速检测及污染物富集和消除过程跟踪研究中的应用。此外，本文也对活体固相微萃取技术今后的发展方向和应用前景进行了展望。
As a sampling and sample preparation technique which is convenient, rapid as well as environmentally-friendly, solid-phase microextraction has attracted widespread attention. Within the scope of its application on in vivo analysis, solid-phase microextraction has been gradually used for highly-efficient detection of various analytes of interest in living animals and plants with the new illustrations on extraction kinetics of solid-phase microextraction, together with development on novel in vivo sampling fibers. In this article we give an overview of the proposal of various calibration methods for quantification, recent investigations on the extraction kinetics of in vivo sampling, and preparations of novel samplers for in vivo solid-phase microextraction, apart from rapid detection of multiple pollutants in living animals or plants, as well as continuous long-term monitoring of uptake and elimination of pollutants therein. Potential application and future trends of development of in vivo solid-phase microextraction are also discussed.
Contents
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