Wang Bing-Xin, Zhu Liang, Ma Gang, Najar-Rodriguez Adriana, Zhang Jin-Ping, Zhang Feng, Avila Gonzalo A, Ma Chun-Sen
School of Life Science, Institutes of Life Science and Green Development, Hebei University, Baoding 071002, China.
Climate Change Biology Research Group, State Key Laboratory for Biology of Plant Diseases and Insect Pests, Institute of Plant Protection, Chinese Academy of Agricultural Sciences, Beijing 100193, China.
Biology (Basel). 2023 Mar 11;12(3):435. doi: 10.3390/biology12030435.
Global trade facilitates the introduction of invasive species that can cause irreversible damage to agriculture and the environment, as well as stored food products. The raisin moth () is an invasive pest that poses a significant threat to fruits and dried foods. Climate change may exacerbate this threat by expanding moth's distribution to new areas. In this study, we used CLIMEX and MaxEnt niche modeling tools to assess the potential global distribution of the raisin moth under current and future climate change scenarios. Our models projected that the area of suitable distribution for the raisin moth could increase by up to 36.37% by the end of this century under high emission scenario. We also found that excessive precipitation decreased the probability of raisin moth establishment and that the optimum temperature range for the species during the wettest quarter of the year was 0-18 °C. These findings highlight the need for future research to utilize a combined modeling approach to predict the distribution of the raisin moth under current and future climate conditions more accurately. Our results could be used for environmental risk assessments, as well as to inform international trade decisions and negotiations on phytosanitary measures with regards to this invasive species.
全球贸易促进了入侵物种的引入,这些物种会对农业、环境以及储存的食品造成不可逆转的损害。葡萄干蛀蛾( )是一种入侵性害虫,对水果和干货构成重大威胁。气候变化可能会通过将蛀蛾的分布范围扩大到新的地区而加剧这种威胁。在本研究中,我们使用CLIMEX和MaxEnt生态位建模工具,评估了当前和未来气候变化情景下葡萄干蛀蛾在全球的潜在分布情况。我们的模型预测,在高排放情景下,到本世纪末,葡萄干蛀蛾适宜分布的面积可能会增加高达36.37%。我们还发现,过多的降水会降低葡萄干蛀蛾定殖的可能性,并且该物种在一年中最湿润的季度的最佳温度范围是0-18°C。这些发现凸显了未来研究需要采用综合建模方法,以更准确地预测当前和未来气候条件下葡萄干蛀蛾的分布。我们的结果可用于环境风险评估,以及为关于这种入侵物种的国际贸易决策和植物检疫措施谈判提供参考。