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Tansley Review No. 109.
Author(s) -
COGDELL R. J.,
LINDSAY J. GORDON
Publication year - 2000
Publication title -
new phytologist
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 3.742
H-Index - 244
eISSN - 1469-8137
pISSN - 0028-646X
DOI - 10.1046/j.1469-8137.2000.00571.x
Subject(s) - computational biology , photosynthesis , function (biology) , structural genomics , plant science , genome , biology , data science , structural biology , computer science , protein structure , gene , genetics , botany , biochemistry
This review sets out the case that now is the time for plant science to establish the technologies required for routinely studying the structure and function of plant proteins. The impact that protein structural information can have is illustrated here with reference to photosynthesis. Our understanding of the precise molecular mechanisms of the light‐reactions of photosynthesis has been transformed by the combination of high‐resolution protein structural data and detailed functional studies. The past few years have been a particularly exciting time to be engaged in basic plant science research. The application of modern techniques of molecular biology has allowed many key questions to be addressed. The stage is now set for an even bigger revolution as the current plant genome sequencing projects are completed. If these advances are going to be fully exploited, plant science must get to grips with studying proteins, not just genes. Reliable methods for the overexpression of proteins in their native state coupled with routine access to structure determination must become the norm rather than the exception. In 1998 there were about 9000 protein structures deposited in the Brookhaven database. Very few of these are plant proteins. This trend will have to be reversed if research in molecular plant science is to fulfil its potential.contentsSummary 167 I. introduction 168 II. the impact of protein structural information on the understanding of the primary reactions in photosynthesis 169 III. developing overexpression systems for the study of plant protein 188 IV. conclusions 190