基于MSPA-InVEST模型的太行山生态网络演化分析

Q2 Environmental Science
Yao Chen, Chang-Chun Zhang, Feng Hu, Guo-Hao Hu, Yu Lang, Hao-Lin Huang
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引用次数: 0

摘要

构建生态网络是缓解生态保护与经济发展矛盾的有效途径,利用生态系统服务功能的重要性和形态空间格局分析科学识别太行山生态网络的演变,对保护区域生态环境安全具有重要意义。以太行山为研究区,基于2000年、2010年和2020年的时间序列数据,计算了太行山生态系统保水、固碳、保土和生境质量四项生态系统服务功能水平。结合形态空间格局分析,确定太行山生态源区。利用循环理论提取生态廊道,构建生态网络,并分析其时空演化特征。研究结果表明:①2000 ~ 2020年,太行山生态源区面积从13 168.76 km2增加到15 007.17 km2,呈现南北密集、中部散疏分布的格局;②生态廊道由101条增加到105条,其中重要生态廊道由84条增加到86条,潜在生态廊道由16条增加到19条。廊道空间分布呈南北集聚、周边稀疏的格局。③生态支点和生态屏障恢复区主要分布在生态廊道周围,且变化频繁。生态尖点识别面积超过2万km2,呈现出先下降后小幅回升的趋势。生态屏障点识别面积超过3 000 km2,呈稳定下降后反弹的“v”型趋势。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
[Analysis of Ecological Network Evolution in Taihang Mountains Based on MSPA-InVEST Model].

Building an ecological network is an effective way to alleviate the contradiction between ecological protection and economic development, and utilizing the importance of ecosystem service functions and morphological spatial pattern analysis to identify the evolution of the ecological network in the Taihang Mountains scientifically has great significance for protecting regional ecological environment security. Taking the Taihang Mountains as the research area, based on time-series data from 2000, 2010, and 2020, the levels of four ecosystem service functions, namely, water conservation, carbon storage, soil conservation, and habitat quality, were calculated. Morphological spatial pattern analysis was coupled to identify the ecological source areas of the Taihang Mountains. Using circuit theory, ecological corridors were extracted to construct the ecological network and analyze its spatiotemporal evolution characteristics. The study produced several important results: ① From 2000 to 2020, the ecological source area of the Taihang Mountains, with dense distribution in the north and south and scattered and sparse distribution in the middle, increased from 13 168.76 km2 to 15 007.17 km2. ② The number of ecological corridors increased from 101 to 105, among which the number of important ecological corridors increased from 84 to 86, and the number of potential ecological corridors increased from 16 to 19. The corridors showed a spatial distribution pattern of north-south clustering and sparse surroundings. ③ Ecological pinch points and ecological barrier restoration areas were mainly distributed around ecological corridors, and exhibited frequent changes. The identified area of ecological pinch points exceeds 20 000 km2 and showed a significant decline followed by a slight rebound trend. The identified area of ecological barrier points exceeds 3 000 km2 and showed a V-shaped trend of stable decline followed by rebound.

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来源期刊
环境科学
环境科学 Environmental Science-Environmental Science (all)
CiteScore
4.40
自引率
0.00%
发文量
15329
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