Zhang Mengyan, Xu Xiaodong, Zhang Tianhao, Liu Zhenya, Wang Xingyi, Shi Xiaoya, Peng Wenjing, Wang Xu, Chen Zhuyifu, Zhao Ruoyan, Wang Wenrui, Zhang Yi, Jin Zhongxin, Zhou Yongfeng, Ma Zhiyao
National Key Laboratory of Tropical Crop Breeding, Shenzhen Branch, Guangdong Laboratory of Lingnan Modern Agriculture, Key Laboratory of Synthetic Biology, Ministry of Agriculture and Rural Affairs, Agricultural Genomics Institute at Shenzhen, Chinese Academy of Agricultural Sciences, Buxin road No. 97, Dapeng district, Shenzhen, China.
School of Agriculture and Food Science, University College Dublin, Belfield, Dublin 4, Ireland.
Hortic Res. 2025 Apr 10;12(7):uhaf104. doi: 10.1093/hr/uhaf104. eCollection 2025 Jul.
Climate change presents significant challenges to agricultural suitability and food security, largely due to the limited adaptability of domesticated crops. However, crop wild relatives maintain greater diversity and are well adapted to various environments. This study evaluates the potential distributional responses of grapevine ( L.) and its wild relatives ( spp.) to future climate change using the maximum entropy model. We reveal that the annual mean temperature is the primary factor determining the potential distribution of cultivated grapes. By 2080, under the SSP585 scenario, suitable areas for wine and table grapes are predicted to decline by 1.5 million and 1.3 million km , respectively. The results suggest that grape cultivation, especially for table grapes, is highly vulnerable to future climate change. In contrast, approximately 70% of wild grapes are projected to demonstrate robust adaptability to future conditions. For example, wild grapes from North America, such as and , and from East Asia, such as and , are projected to demonstrate significant adaptability in response to future climate change. These wild grapes are valuable genetic resources for improving the resilience of cultivated grapes through rootstock development and breeding programs to face the climate change. Our results predict the potential future distribution areas of wild grapes and highlight the critical role of their genetic resources in grape breeding for promoting adaptation to climate change.
气候变化给农业适宜性和粮食安全带来了重大挑战,这主要是由于驯化作物的适应能力有限。然而,作物野生近缘种具有更丰富的多样性,并且能很好地适应各种环境。本研究使用最大熵模型评估了葡萄(Vitis vinifera L.)及其野生近缘种(Vitis spp.)对未来气候变化的潜在分布响应。我们发现年平均温度是决定栽培葡萄潜在分布的主要因素。到2080年,在SSP585情景下,预计酿酒葡萄和鲜食葡萄的适宜种植面积将分别减少150万平方千米和130万平方千米。结果表明,葡萄种植,尤其是鲜食葡萄种植,极易受到未来气候变化的影响。相比之下,预计约70%的野生葡萄对未来气候条件具有较强的适应能力。例如,来自北美的野生葡萄,如河岸葡萄(Vitis riparia)和沙地葡萄(Vitis rupestris),以及来自东亚的野生葡萄,如华东葡萄(Vitis pseudoreticulata)和山葡萄(Vitis amurensis),预计对未来气候变化将表现出显著的适应能力。这些野生葡萄是宝贵的遗传资源,可通过砧木培育和育种计划来提高栽培葡萄应对气候变化的恢复力。我们的研究结果预测了野生葡萄未来的潜在分布区域,并强调了其遗传资源在葡萄育种中促进适应气候变化的关键作用。