Modeling Urban–Rural Energy Mutual Assistance Through Photovoltaic–Carbon Sink Synergy: A System Dynamics Approach

China’s dual carbon goals and rural revitalization strategy necessitate innovative models that integrate energy transition with ecological conservation. However, a critical disconnect persists between photovoltaic (PV) promotion and forest carbon sink projects, limiting their collective potential for coordinated urban–rural emission reduction and common prosperity. To bridge this gap, this study pioneers an integrated “cooperation-mutual assistance” framework that synergizes PV and carbon sinks. A system dynamics model encompassing economic, energy, and environmental subsystems is developed to simulate the long-term evolution (2025–2050) of this synergy under multiple policy scenarios. The simulation results demonstrate that this integrated model can achieve substantial co-benefits: It enables a cumulative carbon emission reduction of 17.5 Gt (gigatons of CO2 equivalent) from 2025 to 2050, boosts regional GDP by 4.8% by 2050 compared to the baseline scenario, and narrows the urban–rural income gap by prioritizing rural resident income growth. The main contribution of this study is the novel integration of PV and carbon sinks into a unified analytical framework, quantitatively verifying its win–win potential. These findings provide a critical scientific basis for crafting integrated policies that combine carbon markets, green finance, and smart grid planning.

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Journal
Processes
Published
2026-01-19
DOI
https://doi.org/10.3390/pr14020347
Primary Topic
Integrated Energy Systems Optimization
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article
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article

Modeling Urban–Rural Energy Mutual Assistance Through Photovoltaic–Carbon Sink Synergy: A System Dynamics Approach

Tang Xinfa, Yujia Zhang, Guozu Hao, Lihong Wu
Processes
Integrated Energy Systems Optimization
article

Modeling Urban–Rural Energy Mutual Assistance Through Photovoltaic–Carbon Sink Synergy: A System Dynamics Approach

Tang Xinfa, Yujia Zhang, Guozu Hao, Lihong Wu
article en

Abstract

China’s dual carbon goals and rural revitalization strategy necessitate innovative models that integrate energy transition with ecological conservation. However, a critical disconnect persists between photovoltaic (PV) promotion and forest carbon sink projects, limiting their collective potential for coordinated urban–rural emission reduction and common prosperity. To bridge this gap, this study pioneers an integrated “cooperation-mutual assistance” framework that synergizes PV and carbon sinks. A system dynamics model encompassing economic, energy, and environmental subsystems is developed to simulate the long-term evolution (2025–2050) of this synergy under multiple policy scenarios. The simulation results demonstrate that this integrated model can achieve substantial co-benefits: It enables a cumulative carbon emission reduction of 17.5 Gt (gigatons of CO2 equivalent) from 2025 to 2050, boosts regional GDP by 4.8% by 2050 compared to the baseline scenario, and narrows the urban–rural income gap by prioritizing rural resident income growth. The main contribution of this study is the novel integration of PV and carbon sinks into a unified analytical framework, quantitatively verifying its win–win potential. These findings provide a critical scientific basis for crafting integrated policies that combine carbon markets, green finance, and smart grid planning.

ProcessesVol. 14(2)
Henan University of Science and Technology (CN), Jiangxi Science and Technology Normal University (CN), Jiangxi College of Applied Technology (CN), Open University Malaysia (MY)
Openalex Percentile: Top 84%
Integrated Energy Systems Optimization
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