| Literature DB >> 33368770 |
Tatjana Kleine1, Thomas Nägele2, H Ekkehard Neuhaus3, Christian Schmitz-Linneweber4, Alisdair R Fernie5, Peter Geigenberger6, Bernhard Grimm7, Kerstin Kaufmann8, Edda Klipp9, Jörg Meurer1, Torsten Möhlmann3, Timo Mühlhaus10, Belen Naranjo1, Jörg Nickelsen11, Andreas Richter12, Hannes Ruwe4, Michael Schroda13, Serena Schwenkert14, Oliver Trentmann3, Felix Willmund15, Reimo Zoschke16, Dario Leister1.
Abstract
Acclimation is the capacity to adapt to environmental changes within the lifetime of an individual. This ability allows plants to cope with the continuous variation in ambient conditions to which they are exposed as sessile organisms. Because environmental changes and extremes are becoming even more pronounced due to the current period of climate change, enhancing the efficacy of plant acclimation is a promising strategy for mitigating the consequences of global warming on crop yields. At the cellular level, the chloroplast plays a central role in many acclimation responses, acting both as a sensor of environmental change and as a target of cellular acclimation responses. In this Perspective article, we outline the activities of the Green Hub consortium funded by the German Science Foundation. The main aim of this research collaboration is to understand and strategically modify the cellular networks that mediate plant acclimation to adverse environments, employing Arabidopsis, tobacco (Nicotiana tabacum) and Chlamydomonas as model organisms. These efforts will contribute to 'smart breeding' methods designed to create crop plants with improved acclimation properties. To this end, the model oilseed crop Camelina sativa is being used to test modulators of acclimation for their potential to enhance crop yield under adverse environmental conditions. Here we highlight the current state of research on the role of gene expression, metabolism and signalling in acclimation, with a focus on chloroplast-related processes. In addition, further approaches to uncovering acclimation mechanisms derived from systems and computational biology, as well as adaptive laboratory evolution with photosynthetic microbes, are highlighted.Entities:
Keywords: zzm321990Camelinazzm321990; zzm321990Chlamydomonaszzm321990; Arabidopsis; Tobacco; acclimation; adaptive laboratory evolution; gene expression; metabolism; signalling; systems biology
Year: 2021 PMID: 33368770 DOI: 10.1111/tpj.15144
Source DB: PubMed Journal: Plant J ISSN: 0960-7412 Impact factor: 6.417