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生态学杂志 ›› 2025, Vol. 44 ›› Issue (8): 2771-2778.doi: 10.13292/j.1000-4890.202508.014

• 研究报告 • 上一篇    下一篇

沈阳大连工业能源碳排放驱动因素及隐含碳流动

宝玉宁,仲弘历,于晓曼*,刘鸣达   

  1. (沈阳农业大学土地与环境学院, 沈阳 110866)
  • 出版日期:2025-08-10 发布日期:2025-08-15

Driving forces of industrial carbon emission and embodied carbon flows in Shenyang and Dalian.

BAO Yuning, ZHONG Hongli, YU Xiaoman*, LIU Mingda   

  1. (College of Land and Environment, Shenyang Agricultural University, Shenyang 110866, China).
  • Online:2025-08-10 Published:2025-08-15

摘要: 作为世界上最大的能源消费国和二氧化碳排放国,中国2021年工业碳排放量已达全国碳排放总量的85.3%,而城市成为了中国工业降碳的关键区域与战略方向。本研究通过大量的文献收集和数据计算,以2010—2020年辽宁典型工业城市——沈阳和大连为对象,采用IPCC清单法和多区域投入产出法从工业碳排放数量核算、驱动因素分析与城市产业间隐含碳流动等视角,探讨沈阳和大连工业碳排放现状,以期为辽宁省各城市工业减排目标与合作降碳提供参照。结果表明:(1)2010—2020年大连工业碳排放量增加572.46万t,年均增长率为3.77%;沈阳工业碳排放量减少14.67万t,年均增长率为-0.1%,能源消费主要集中于原煤和电力;(2)能源强度对沈阳、大连的工业碳排放起抑制作用,分别为-50.41%和-20.51%;而能源结构和产出规模对沈阳工业碳排放的促进作用分别为1.81%和47.79%,对大连的工业碳排放的促进作用为1.42%和78.07%;(3)沈阳通过产业链向大连的隐含碳排放净转出量为63.43万t;沈阳对大连在电力热力的生产和供应业(88.89万t)、煤炭采选业(26.97万t)的隐含碳转出>大连对沈阳在电力热力的生产和供应业(52.49万t)、化学行业(9.09万t)。


关键词: 工业能源碳排放, 驱动力, 隐含碳, 多区域投入产出模型, 工业城市

Abstract: As the largest energy consumer and CO2 emitter in the world, China’s industrial CO2 emission has reached to 85.3% of the country’s total CO2 emission amount. Cities have become the critical area and strategic direction for industrial CO2 reduction. Through literature review and data calculation, we calculated the total amount of industrial CO2 emission and analyzed the driving factors for two typical industrial cities in Liaoning Province, Shenyang and Dalian, from 2010 to 2020, using IPCC inventory method. Multi-regional input-output model was used to explore embodied CO2 flows between Shenyang and Dalian. Our objectives were to clarify the current situation of industrial CO2 emission of the two cities, aiming to provide some reference information about industrial CO2 reduction and cooperation for other Liaoning’s cities in the future. The results showed that: (1) During 2010-2020, industrial CO2 emission of Dalian increased by 572.46×104 t with a 3.77% average annual growth rate, while industrial CO2 emissions of Shenyang decreased by 14.67×104 t with an average annual growth rate of -0.1%. Energy consumption was mainly concentrated in raw coal and electricity. (2) Energy intensity exhibited an inhibiting effect on CO2 emission for Shenyang and Dalian, being -50.41% and -20.51%, respectively. On the contrary, energy structure and output scale had a motivating effect, being 1.81% and 47.79% for Shenyang and 1.42% and 78.07% for Dalian, respectively. (3) Net transfer amount of embodied CO2 emissions through industrial chains from Shenyang to Dalian was 63.43×104 t. Embodied CO2 flows of electricity, heat production and supply industry (88.89×104 t), coal mining industry (26.97×104 t) from Shenyang to Dalian exceeded those of electricity, heat production and supply industry (52.49×104 t), and chemical industry (9.09×104 t) from Dalian to Shenyang.


Key words: industrial energy related carbon emission, driving force, embodied carbon, multi-regional input-output model, industrial city