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应用生态学报 ›› 2026, Vol. 37 ›› Issue (6): 2000-2008.doi: 10.13287/j.1001-9332.202606.024

• 研究论文 • 上一篇    下一篇

基于生态系统服务供需和敏感性的河北省武安市生态安全格局构建

霍海鹰, 白宇航*   

  1. 河北工程大学建筑与艺术学院, 河北邯郸 056038
  • 收稿日期:2025-11-24 修回日期:2026-04-25 出版日期:2026-06-18 发布日期:2026-12-18
  • 通讯作者: *E-mail: 1348049416@qq.com
  • 作者简介:霍海鹰, 女, 1977年生, 硕士, 教授。主要从事城乡规划设计研究。E-mail: 271723813@qq.com
  • 基金资助:
    河北省社会科学发展研究项目(HBSKFZ25ZD023)

Construction of an ecological security pattern in Wu’an City, Hebei Province based on ecosystem service supply-demand and sensitivity

HUO Haiying, BAI Yuhang*   

  1. School of Architecture and Art, Hebei University of Engineering, Handan 056038, Hebei, China
  • Received:2025-11-24 Revised:2026-04-25 Online:2026-06-18 Published:2026-12-18

摘要: 为解决区域生态系统服务供需失衡及水土流失严重等生态安全问题,构建科学的生态安全格局已成为国土空间治理的核心议题。本研究以太行山国家级水土流失重点治理区——河北省武安市为研究对象,采用InVEST模型和生态系统服务供需比评估方法,识别生态系统服务供给水平较高的初始生态源地;结合水土流失分析,确定水土流失敏感性高但生态结构完整的地区为潜在生态源地;基于上述两类生态源地的空间分布特征,将其进行综合叠加分析,构建区域生态阻力面;综合运用最小累计阻力模型和电路理论方法,系统识别研究区内的关键生态廊道、生态夹点及生态障碍点,构建适用于水土流失重点治理区的生态安全格局框架。结果表明:研究区共识别出49个生态源地(总面积752.16 km2,占研究区面积的41.4%)、98条生态廊道(总长421.45 km)、18处生态夹点以及6处生态障碍点。本研究构建了“四轴多片区”的生态修复格局,形成了与国土空间规划相衔接的“保护区-廊道-修复区”三级空间治理体系,增强了生态安全格局在水土流失治理区的科学性和适用性。本研究通过耦合生态系统服务供需和水土流失敏感性,对传统生态源地识别方法进行了拓展和改进,提高了对水土流失问题的针对性。

关键词: 生态系统服务供需, 水土流失敏感性, 水土流失治理区, 生态安全格局

Abstract: To address ecological security issues such as the imbalance between supply and demand of regional ecosystem services as well as severe soil erosion, constructing a scientific ecological security pattern has become a core issue in territorial spatial governance. Wu’an City in Hebei Province is a key national-level soil erosion control area in the Taihang Mountains. We identified initial ecological source areas with high levels of ecosystem service supply in Wu’an by using the InVEST model and ecosystem service supply-demand ratio assessment method. Combined with soil erosion analysis, we assessed areas with high soil erosion sensitivity but intact ecological structures as potential ecological source areas. Based on the spatial distribution characteristics of these two types of ecological source areas, we conducted a comprehensive overlay analysis to construct a regional ecological resistance surface. The minimum cumulative resistance model and circuit theory methods were used to identify key ecological corridors, ecological pinch points, and ecological barriers, thereby constructing an ecological security pattern framework suitable for key soil erosion control areas. The results showed that a total of 49 ecological source areas (with a total area of 752.16 km2, accounting for 41.4% of the study area), 98 ecological corridors (with a total length of 421.45 km), 18 ecological pinch points, and 6 ecological barriers were identified. We found a “four-axis multi-zone” ecological restoration pattern, forming a three-level spatial governance system of “protected areas-corridors-restoration areas” that was aligned with territorial spatial planning, enhancing the scientificity and applicability of the ecological security pattern in soil erosion control areas. By coupling ecosystem service supply and demand with soil erosion sensitivity, this study expanded and improved traditional methods for identifying ecological source areas, improving the pertinence to soil erosion issues.

Key words: supply and demand of ecosystem services, soil erosion sensitivity, soil erosion control area, ecological security pattern