TY - JOUR
T1 - Understand systemic risk from mangrove ecosystem through network analysis
AU - Gong, Mimi
AU - Yu, Ke
AU - Huang, Qiang
AU - A, Yinglan
AU - Aczel, Miriam
AU - Li, Ye
AU - Ran, Maofang
AU - Cheng, Yan
AU - Li, Kaiji
AU - Qu, Shen
N1 - Publisher Copyright:
© 2025
PY - 2025
Y1 - 2025
N2 - Mangrove deforestation amplifies systemic risks by worsening extreme weather events, impeding socio-economic development, and exposing governance vulnerabilities. Yet, the extent to which mangrove dynamics—both loss and restoration—interact with climate, socio-economic, and governance systems to mitigate systemic risk remains underexplored. Drawing on the economic concept of “product space,” we construct a Mangrove Multisystemic Risk Space, a network-based framework linking indicators across mangrove change, climate impacts, socio-economic development, and policy interventions. The network reveals a bipartite structure, with distinct clusters for mangrove loss and expansion, each surrounded by synergistic indicators. The mangrove loss cluster is tightly coupled with greenhouse gas emissions and climate extremes, while the expansion cluster aligns with renewable energy, economic growth, and population dynamics. Within this space, we identify two types of structurally significant indicators: “influential” (e.g., Ramsar site coverage) with high cascading potential, and “complex” indicators that require coordinated improvements across multiple dimensions, highlighting their systemic vulnerability. At the national level, the United States leads in achieving complex goals such as reducing extreme events, whereas New Zealand and Panama emerge as hubs of influential, well-performing indicators. These findings underscore the differentiated roles of mangrove-rich nations in mitigating systemic risk and call for strengthened global cooperation in mangrove conservation.
AB - Mangrove deforestation amplifies systemic risks by worsening extreme weather events, impeding socio-economic development, and exposing governance vulnerabilities. Yet, the extent to which mangrove dynamics—both loss and restoration—interact with climate, socio-economic, and governance systems to mitigate systemic risk remains underexplored. Drawing on the economic concept of “product space,” we construct a Mangrove Multisystemic Risk Space, a network-based framework linking indicators across mangrove change, climate impacts, socio-economic development, and policy interventions. The network reveals a bipartite structure, with distinct clusters for mangrove loss and expansion, each surrounded by synergistic indicators. The mangrove loss cluster is tightly coupled with greenhouse gas emissions and climate extremes, while the expansion cluster aligns with renewable energy, economic growth, and population dynamics. Within this space, we identify two types of structurally significant indicators: “influential” (e.g., Ramsar site coverage) with high cascading potential, and “complex” indicators that require coordinated improvements across multiple dimensions, highlighting their systemic vulnerability. At the national level, the United States leads in achieving complex goals such as reducing extreme events, whereas New Zealand and Panama emerge as hubs of influential, well-performing indicators. These findings underscore the differentiated roles of mangrove-rich nations in mitigating systemic risk and call for strengthened global cooperation in mangrove conservation.
KW - Cascading effects
KW - Complex network analysis
KW - Mangrove ecosystems
KW - Multidimensional evaluation
KW - Systemic risk
UR - https://www.scopus.com/pages/publications/105022661128
U2 - 10.1016/j.fmre.2025.11.003
DO - 10.1016/j.fmre.2025.11.003
M3 - Article
AN - SCOPUS:105022661128
SN - 2096-9457
JO - Fundamental Research
JF - Fundamental Research
ER -