Ingvarsson, Pär
- Department of Plant Biology, Swedish University of Agricultural Sciences
Review article2024Peer reviewedOpen access
Feng, Jiajun; Dan, Xuming; Cui, Yangkai; Gong, Yi; Peng, Minyue; Sang, Yupeng; Ingvarsson, Par K.; Wang, Jing
Global climate change is leading to rapid and drastic shifts in environmental conditions, posing threats to biodiversity and nearly all life forms worldwide. Forest trees serve as foundational components of terrestrial ecosystems and play a crucial and leading role in combating and mitigating the adverse effects of extreme climate events, despite their own vulnerability to these threats. Therefore, understanding and monitoring how natural forests respond to rapid climate change is a key priority for biodiversity conservation. Recent progress in evolutionary genomics, driven primarily by cutting-edge multi-omics technologies, offers powerful new tools to address several key issues. These include precise delineation of species and evolutionary units, inference of past evolutionary histories and demographic fluctuations, identification of environmentally adaptive variants, and measurement of genetic load levels. As the urgency to deal with more extreme environmental stresses grows, understanding the genomics of evolutionary history, local adaptation, future responses to climate change, and conservation and restoration of natural forest trees will be critical for research at the nexus of global change, population genomics, and conservation biology. In this review, we explore the application of evolutionary genomics to assess the effects of global climate change using multi-omics approaches and discuss the outlook for breeding of climate-adapted trees.
forest trees; climate change; multi-omics; evolutionary genomics; breeding
Plant Communications
2024, volume: 5, number: 10, article number: 101044
Publisher: CELL PRESS
SDG13 Climate action
SDG15 Life on land
Environmental Sciences
Forest Science
https://res.slu.se/id/publ/133138