Xiaoyuan Zhang, Shudong Wang, Kai Liu, Xiankai Huang, Jinlian Shi, Xueke Li
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We further explored the spatiotemporal variations of EV and their potential socioeconomic impacts at the watershed scale. Our results show significant geospatial variations in future EV under the three scenarios, with the northern region of the upstream area being the most severely affected. Under the ecological conservation management scenario and historical trend scenario, the ecological environment of the basin improves, with a decrease in very high vulnerability areas by 4.45% and 3.08%, respectively, due to the protection and restoration of ecological land. Conversely, under the urban development and construction scenario, intensified climate change and increased land use artificialization exacerbate EV, with medium and high vulnerability areas increasing by 1.86% and 7.78%, respectively. The population in high and very high vulnerability areas is projected to constitute 32.75–33.68% and 34.59–39.21% of the YRB’s total population in 2040 and 2060, respectively, and may continue to grow. Overall, our scenario analysis effectively demonstrates the positive impact of ecological protection on reducing EV and the negative impact of urban expansion and economic development on increasing EV. 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引用次数: 0
摘要
探索土地利用和生态脆弱性(EV)对未来气候变化和人类生态恢复政策的动态响应,对于优化区域生态系统服务和制定可持续的社会经济发展战略至关重要。黄河流域是一个气候敏感、生态脆弱的地区,本研究通过整合各种情景下的气候变化、土地管理和生态保护政策,全面评估了黄河流域未来的土地利用变化和生态脆弱性。为此,我们开发了一个结合情景权重矩阵、马尔科夫链、斑块生成土地利用模拟模型和暴露-敏感-适应的 EV 评估框架。我们进一步探讨了流域尺度上的 EV 时空变化及其潜在的社会经济影响。我们的研究结果表明,在三种情景下,未来电动汽车的时空变化非常明显,其中上游北部地区受到的影响最为严重。在生态保护管理情景和历史趋势情景下,由于生态用地的保护和恢复,流域生态环境有所改善,极高脆弱性区域分别减少了 4.45% 和 3.08%。相反,在城市发展和建设情景下,气候变化加剧,土地利用人工化程度提高,加剧了环境脆弱程度,中度和高度脆弱地区分别增加了 1.86% 和 7.78%。预计到 2040 年和 2060 年,高脆弱区和极高脆弱区的人口将分别占长三角地区总人口的 32.75%-33.68% 和 34.59-39.21%,并可能继续增长。总体而言,我们的情景分析有效地证明了生态保护对减少电动汽车的积极影响,以及城市扩张和经济发展对增加电动汽车的消极影响。我们的工作为土地资源分配和生态恢复政策的制定提供了新的见解。
Projecting Response of Ecological Vulnerability to Future Climate Change and Human Policies in the Yellow River Basin, China
Exploring the dynamic response of land use and ecological vulnerability (EV) to future climate change and human ecological restoration policies is crucial for optimizing regional ecosystem services and formulating sustainable socioeconomic development strategies. This study comprehensively assesses future land use changes and EV in the Yellow River Basin (YRB), a climate-sensitive and ecologically fragile area, by integrating climate change, land management, and ecological protection policies under various scenarios. To achieve this, we developed an EV assessment framework combining a scenario weight matrix, Markov chain, Patch-generating Land Use Simulation model, and exposure–sensitivity–adaptation. We further explored the spatiotemporal variations of EV and their potential socioeconomic impacts at the watershed scale. Our results show significant geospatial variations in future EV under the three scenarios, with the northern region of the upstream area being the most severely affected. Under the ecological conservation management scenario and historical trend scenario, the ecological environment of the basin improves, with a decrease in very high vulnerability areas by 4.45% and 3.08%, respectively, due to the protection and restoration of ecological land. Conversely, under the urban development and construction scenario, intensified climate change and increased land use artificialization exacerbate EV, with medium and high vulnerability areas increasing by 1.86% and 7.78%, respectively. The population in high and very high vulnerability areas is projected to constitute 32.75–33.68% and 34.59–39.21% of the YRB’s total population in 2040 and 2060, respectively, and may continue to grow. Overall, our scenario analysis effectively demonstrates the positive impact of ecological protection on reducing EV and the negative impact of urban expansion and economic development on increasing EV. Our work offers new insights into land resource allocation and the development of ecological restoration policies.
期刊介绍:
Remote Sensing (ISSN 2072-4292) publishes regular research papers, reviews, letters and communications covering all aspects of the remote sensing process, from instrument design and signal processing to the retrieval of geophysical parameters and their application in geosciences. Our aim is to encourage scientists to publish experimental, theoretical and computational results in as much detail as possible so that results can be easily reproduced. There is no restriction on the length of the papers. The full experimental details must be provided so that the results can be reproduced.