Sustainability nexus in China’s forestation initiatives

<h2>Abstract</h2> The broader impacts of forestation on sustainability under growing land resource pressure remain poorly understood. In this study, we develop a "<i>Sustainability Nexus</i>" framework that leverages an integrated assessment model, an ecosystem service model, and a biodiversity model to evaluate how forestation policies may intensify land competition and reshape ecosystem services, food security, energy transitions, emission mitigation cost, and water consumption. Taking China as a case study, we find that the 30.7% forest cover goal can deliver a gross carbon sink of 18.1 Pg C this century, yet land conversion offsets nearly two-thirds of this gain, leaving a net land use, land use-change, and forestry sector carbon sink of only 5.6 Pg C. While forestation reverses national habitat loss, decreases renewable energy demand by 1.5%, lowers the shadow carbon price by 3.2%, and reduces irrigation water consumption by 2.4% and fertilizer inputs by 5.9%, it simultaneously raises food and bioenergy prices, placing an additional 34.4 million people at risk of hunger. These findings underscore the need to explicitly account for sustainability nexus in forestation planning. Synergistic agricultural measures will be critical for maximizing co-benefits and mitigating unintended trade-offs in future land-based mitigation strategies.

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Publication Details

Journal
Nexus
Published
2025-11-17
DOI
https://doi.org/10.1016/j.ynexs.2025.100106
Primary Topic
Forest Management and Policy
Type
article
Field-Weighted Citation Impact
0.00
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article

Sustainability nexus in China’s forestation initiatives

Shilong Piao, Zhangcai Qin, Ou Yang, Wei Shen et al.
Nexus
Forest Management and Policy
article

Sustainability nexus in China’s forestation initiatives

Shilong Piao, Zhangcai Qin, Ou Yang, Wei Shen, Shiyu Deng, Zhifu Mi, Haoran Zhang, Hao Xu, Zhao Yang
article en

Abstract

<h2>Abstract</h2> The broader impacts of forestation on sustainability under growing land resource pressure remain poorly understood. In this study, we develop a "<i>Sustainability Nexus</i>" framework that leverages an integrated assessment model, an ecosystem service model, and a biodiversity model to evaluate how forestation policies may intensify land competition and reshape ecosystem services, food security, energy transitions, emission mitigation cost, and water consumption. Taking China as a case study, we find that the 30.7% forest cover goal can deliver a gross carbon sink of 18.1 Pg C this century, yet land conversion offsets nearly two-thirds of this gain, leaving a net land use, land use-change, and forestry sector carbon sink of only 5.6 Pg C. While forestation reverses national habitat loss, decreases renewable energy demand by 1.5%, lowers the shadow carbon price by 3.2%, and reduces irrigation water consumption by 2.4% and fertilizer inputs by 5.9%, it simultaneously raises food and bioenergy prices, placing an additional 34.4 million people at risk of hunger. These findings underscore the need to explicitly account for sustainability nexus in forestation planning. Synergistic agricultural measures will be critical for maximizing co-benefits and mitigating unintended trade-offs in future land-based mitigation strategies.

NexusVol. 2(4)
International Institute for Applied Systems Analysis (AT), Peking University (CN), Southern Marine Science and Engineering Guangdong Laboratory (Guangzhou) (CN), University College London (GB)
Openalex Percentile: Top 68%
Forest Management and Policy
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