气候变化研究进展

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“双碳”时期中国陆上风电技术潜力评估

桑文文1,王艳君1,姜彤1,2,姜涵1,苏布达1,3   

  1. 1 南京信息工程大学灾害风险管理研究院/地理科学学院,南京 210044;
    2 江苏第二师范学院气候风险模拟与城乡智慧治理江苏省高校重点实验室/地理科学学院,南京 210013;
    3 南京信息工程大学气候系统预测与变化应对国家重点实验室,南京 210044
  • 收稿日期:2025-03-25 修回日期:2025-06-04 出版日期:2025-11-11 发布日期:2025-11-11
  • 通讯作者: 王艳君
  • 基金资助:
    江苏省研究生科研与实践创新计划项目

Assessment of onshore wind power technical potential in China during the “Dual Carbon” periods

SANG Wen-Wen1, WANG Yan-Jun1, JIANG Tong1, 2, JIANG Han1, SU Bu-Da1, 3   

  1. 1 School of Geographical Sciences/Institute for Disaster Risk Management, University of Information Science & Technology, Nanjing 210044, China;
    2 Jiangsu Key Laboratory of Climate Risk Simulation and Urban-Rural Intelligent Governance, Jiangsu Second Normal University / School of Geographical Sciences, Nanjing 210013, China;
    3 The State Key Laboratory of Climate System Prediction and Response, Nanjing University of Information Science and Technology, Nanjing 210044, China
  • Received:2025-03-25 Revised:2025-06-04 Online:2025-11-11 Published:2025-11-11
  • Contact: yanjun 无wang

摘要: 明确陆上风电潜力对实现“双碳”目标和制定精准的风能资源发展策略具有重要意义。文中基于2400多个观测站点和包含7个气候情景的5个CMIP6(第六次国际耦合模式比较计划)模式逐日风速数据,结合风电机组适宜开发区的地理限制因素,利用风力发电机功率曲线评估了风能发电技术的潜力。分析了中国观测期(1961—2021年)、“碳达峰”(2026—2035年)和“碳中和”时期(2056—2065年)陆上风速与风电技术潜力(包括陆上装机潜力和发电量潜力)的时空变化特征,比较了陆上风电技术潜力与规划开发量的时空差异。研究主要发现:(1)1961—2021年,陆上风能装机潜力为7880.36 GW,内蒙古、新疆占比47%。(2)2013—2021年,中国风能实际装机容量占装机潜力的比重由1.5%增长至5.0%,实际风能发电量在全社会总用电量的占比从2.5%增长至7.9%。(3)相较基准期(1995—2014年),“碳达峰”时期装机潜力和发电量潜力分别下降3.06%(0.79%~4.54%)和5.12%(2.81%~7.02%);“碳中和”时期分别下降5.00%(3.75%~6.47%)和7.80%(5.95%~10.37%),四川和北京风电技术潜力降幅最大。(4)“双碳”时期,中国规划风能装机容量占装机潜力的比重分别为12.99%(12.69%~13.19%)和36.82%(36.33%~37.37%),“碳达峰”时期,除重庆市外,其他省份潜力均能满足规划需求;“碳中和”时期,中国西部和东北部地区省份的装机潜力仍可满足规划要求,而重庆、上海、江苏、陕西、河北、贵州、福建、山西和天津难以支撑其规划装机容量。此外,中国风能发电量潜力在“双碳”时期分别满足全社会用电需求的90.13%(88.33%~92.33%)和36.64%(35.62%~37.37%),其中,西藏、内蒙古、青海、新疆、黑龙江和甘肃的比重超过100%,天津、北京、上海和重庆不足5%,难以满足本地用电需求。总体来看,“双碳”时期的风能装机和发电量潜力能够满足规划开发量要求,但在区域分布上存在显著差异,需优化能源供应结构,实现多种清洁能源互补,促进能源高效利用和均衡分配。

关键词: “双碳”时期, 陆上风能, 装机潜力, 发电量潜力, 规划装机容量

Abstract: Clarifying the potential of onshore wind power is crucial for achieving the “Dual Carbon” goals and formulating precise wind energy development strategies. Based on daily wind speed data from over 2400 observation stations and five CMIP6 (Coupled Model Intercomparison Project Phase 6) models under seven climate scenarios, the technical exploitable potential of wind power generation was evaluated by using wind turbine power curves and considering geographical constraints for suitable wind farm development zones. The spatiotemporal variations were analyzed in onshore wind speed and wind power technical potential (including onshore installed capacity potential and power generation potential) in China during the observation period (1961―2021), the “Carbon Peak” period (2026―2035), and the “Carbon Neutrality” period (2056―2065). Additionally, the spatial and temporal differences were compared between onshore wind power technical potential and planned development capacity. The key findings are as follows. (1) From 1961 to 2021, the onshore wind power installed capacity potential was 7.88 TW, with Inner Mongolia and Xinjiang accounting for 47% of the total. (2) Compared to the baseline period (1995―2014), the installed capacity potential and power generation potential during the “Carbon Peak” period are projected to decrease by 3.06% (0.79%―4.54%) and 5.12% (2.81%―7.02%), respectively. During the “Carbon Neutrality” period, these figures further decline by 5.00% (3.75%―6.47%) and 7.8% (5.95%―10.37%), with Sichuan and Beijing experiencing the most significant reductions in wind power technical potential. (3) From 2013 to 2021, the ratio of China’s actual installed wind power capacity to its potential increased from 1.5% to 5.0%, with Chongqing, Shanghai, Jiangsu, and Hebei accounting for over 55%. The share of actual wind power generation in total electricity consumption rose from 2.5% to 7.9%, with Inner Mongolia and Ningxia exceeding 24%. (4) During the “Dual Carbon” periods (encompassing both the “Carbon Peak” and “Carbon Neutrality” periods), China’s planned wind power installed capacity accounts for 12.99% (12.69%―13.19%) and 36.82% (36.33%―37.37%) of the total potential, respectively. In the “Carbon Peak” period, all provinces except Chongqing have sufficient potential to meet planned demand. However, in the “Carbon Neutrality” period, while most provinces in western and northeastern China can still meet planned capacity requirements, Chongqing, Shanghai, Jiangsu, Shaanxi, Hebei, Guizhou, Fujian, Shanxi, and Tianjin will struggle to support their planned installations. Furthermore, China’s wind power generation potential during the “Dual Carbon” periods could meet 90.13% (88.33%―92.33%) and 36.64% (35.62%―37.37%) of the total electricity demand, respectively. Regions such as Tibet, Inner Mongolia, Qinghai, Xinjiang, Heilongjiang, and Gansu exceed 100% self-sufficiency, whereas Tianjin, Beijing, Shanghai, and Chongqing fall below 5%, making them reliant on external power sources. In summary, the wind power installed capacity and generation potential during the “Dual Carbon” periods are sufficient to meet planned development targets. However, significant regional disparities exist, necessitating optimization of the energy supply structure, complementary integration of multiple clean energy sources, and improvement of energy efficiency and equitable distribution.

Key words: “Dual Carbon” periods, Onshore wind energy, Installation capacity potential, Power generation potential, Planned installed capacity

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