College of Ecology and Environmental Science, Qinghai University of Science and Technology, Xining 810016, China.
Qinghai Provincial Key Laboratory of Plateau Climate Change and Corresponding Ecological and Environmental Effects, Xining 810016, China.
Ying Yong Sheng Tai Xue Bao. 2024 Jul 18;35(7):2013-2024. doi: 10.13287/j.1001-9332.202407.028.
Plants could effectively adsorb and remove particulate matter from the air, while could be suffered from the adverse effects. Therefore, exploring the interaction between plants and atmospheric particulate matter is crucial for profound understanding of ecological balance, microenvironmental climate, and environmental quality improvement. Few systematic literature have elaborated the adsorption and response mechanisms of atmospheric particulate matter by plants. We summarized the causes and composition of atmospheric particulate matter, as well as the adsorption methods and factors of plants on atmospheric particulate matter. Moreover, we elaborated the impact of atmospheric particulate matter stress on phenotypic and physiological characteristics, as well as molecular mechanisms. For the future researches, we proposed 1) to select plant species with strong adaptability and high dust retention capacity. Subsequently, there should be a universal green dust retention plan on account of comprehensive factors such as plant community structure, street morphology, and planting space; 2) to extend the research from urban areas to agricultural and pastoral areas, with a systematic analysis of the comprehensive dust retention capacity of communities with different plant configuration; 3) to effectively combine the dust retention capacity of plants with their own resistance. Subsequently, we should explore the physiological and molecular mechanisms of plants responding to atmospheric particulate matter stress and establish a comprehensive evaluation system and criteria; 4) to develop labeling detection technology, which would be a valuable tool for accurately tracing and quanti-fying the dynamics of atmospheric particulate matter within plant at the cellular level.
植物可以有效地从空气中吸附和去除颗粒物,但同时也会受到颗粒物的负面影响。因此,探索植物与大气颗粒物之间的相互作用对于深刻理解生态平衡、微环境气候和改善环境质量至关重要。目前还很少有系统的文献阐述植物对大气颗粒物的吸附和响应机制。我们总结了大气颗粒物的成因和组成,以及植物对大气颗粒物的吸附方法和影响因素。此外,还阐述了大气颗粒物胁迫对植物表型和生理特性以及分子机制的影响。对于未来的研究,我们提出:1)选择适应性强、滞尘能力高的植物物种。随后,应该根据植物群落结构、街道形态和种植空间等综合因素,制定普遍适用的绿色滞尘方案;2)将研究从城市扩展到农业和牧区,系统分析不同植物配置群落的综合滞尘能力;3)有效结合植物的滞尘能力及其自身的抗性。随后,探索植物对大气颗粒物胁迫响应的生理和分子机制,建立综合评价体系和标准;4)开发标记检测技术,这将是在细胞水平上准确跟踪和量化植物内大气颗粒物动态的有价值工具。