Kerwin R W, Pilowsky L S
Institute of Psychiatry, London, UK.
Eur J Nucl Med. 1995 Jul;22(7):699-710. doi: 10.1007/BF01254574.
The mathematical, biological discipline of receptor pharmacology and the graphical methods of describing receptor behaviour evolved over a century of painstaking observation and model testing. Laws regarding in vitro theories are classically considered inoperative in vivo. Nevertheless, functional imaging techniques have rapidly evolved to allow receptor measurement and rules of thumb have been developed which clearly prove valid receptor parameters can be derived from functional imaging studies. The field is evolving so rapidly now that nuclear medicine researchers are in danger in applying these techniques without recourse to an understanding of the orthodox discipline of receptor pharmacology. This review attempts to document the basis of receptor pharmacology and to give an account of the theoretical and practical basis on which this can be applied in vivo. The review is targeted towards single-photon emission tomography because of the rapid growth in the area, but many parts draw on the literature relating to positron emission tompgraphy since the first translation of in vitro to in vivo measurement was performed with this technique.
受体药理学的数学和生物学学科以及描述受体行为的图形方法是在一个多世纪的艰苦观察和模型测试中发展起来的。关于体外理论的定律传统上被认为在体内不起作用。然而,功能成像技术迅速发展,使得能够进行受体测量,并且已经制定了经验法则,清楚地证明可以从功能成像研究中得出有效的受体参数。现在这个领域发展得如此之快,以至于核医学研究人员在应用这些技术时,如果不求助于对受体药理学正统学科的理解,就会有危险。这篇综述试图记录受体药理学的基础,并阐述其在体内应用的理论和实践基础。由于该领域的快速发展,这篇综述以单光子发射断层扫描为目标,但许多部分借鉴了与正电子发射断层扫描相关的文献,因为首次从体外到体内测量的转换就是用这种技术进行的。