Comprehensive Evaluation of Low-Carbon Development Level of Shandong Power Grid

doi:10.3969/j.issn.1000-7229.2015.02.024

Abstract

Abstract:

Power industry has been required to develop in a low-carbon way to meet the challenge of global climate change and energy crisis. Based on the research status of low-carbon power grid, the low-carbon development level of Shandong power grid was comprehensively analyzed. The transmission loss and utilization condition of Shandong power grid were analyzed from the perspective of different areas and different power transmission and transformation equipment. And then the historical development trajectory of the low-carbon benefits of Shandong power grid was evaluated. Moreover, the non-fossil energy consumption ratio of Shandong power grid to our country was calculated, as well as the contribution ratio of carbon emission reduction intensity for each unit of GDP of Shandong power grid.

Key words: low-carbon power grid, transmission loss, utilization rate of power grid, comprehensive evaluation, contribution ratio

NIU Xinsheng, TIAN Xin, ZHU Xiubo, ZHAO Guangfeng, DONG Xiaoming, SUN Yanlong. Comprehensive Evaluation of Low-Carbon Development Level of Shandong Power Grid[J]. ELECTRIC POWER CONSTRUCTION, 2015, 36(2): 141-148.

References

[1]Secretary of State for Trade and Industry， UK．Energy White Paper．Our energy future-creating a low carbon economy［M］．2003：21-31．

［2］Foxon T J, Hammond G P, Pearson P J G. Developing transition pathways for a low carbon electricity system in the UK［J］. Technological Forecasting and Social Change, 2010, 77（8）: 1203-1213.

［3］国家发展改革委员会．中国应对气候变化国家方案［EB/OL］．（2007-06-04）．http://www.cnr.cn/kby/zl/200706/t20070605_504482405.html．

［4］康重庆，陈启鑫，夏清．低碳电力技术的研究展望［J］．电网技术，2009，33（2）：1-7．

Kang Chongqing，Chen Qixin，Xia Qing. Prospects of low-carbon electricity［J］. Power System Technology, 2009,33（2）:1-7.

［5］曾鸣，吕春泉，田廓，等．智能电网对低碳电力系统的支撑作用［J］．电力系统自动化，2011，35（23）：6-10．

Zeng Ming，Lu Chunquan，Tian Kuo，et al. Smart grid and support mechanisms for low-carbon power system［J］. Automation of Electric Power Systems,2011,35（23）:6-10.

［6］尚金成．电力节能减排的理论体系与技术支撑体系［J］．电力系统自动化，2009，33（6）：31-35．

Shang Jincheng. Theoretical system and technical supporting system for energy-saving and emission-reducing of electric power system［J］. Automation of Electric Power Systems, 2009, 33（6）:31-35.

［7］丁然，康重庆，周天睿，等．低碳电网的技术途径分析与展望［J］．电网技术，2011，35（10）：1-8．

Ding Ran, Kang Chongqing, Zhou Tianrui, et al. Analysis and prospect on technical approaches for low carbon power grid［J］.Power System Technology, 2011,35（10）:1-8.

［8］陈晓科，周天睿，李欣，等．电力系统的碳排放结构分解与低碳目标贡献分析［J］．电力系统自动化，2012，36（2）：18-25．

Chen Xiaoke, Zhou Tianrui, Li Xin, et al. Structure identification of CO2 emission for power system and analysis of its low-carbon contribution［J］.Automation of Electric Power Systems,2012,36（2）:18-25.

［9］贾文昭，刘长义，李蒙，等．坚强智能电网的低碳效益与贡献率量化分析［J］．能源技术经济，2011，23（9）：6-11．

Jia Wenzhao, Liu Changyi, Li Meng, et al. Analysis on low-carbon benefits and contribution rate of strong and smart grid［J］.Electric Power Technologic Economics, 2011,23（9）:6-11.

［10］孙彦龙，康重庆，陈宋宋，等．低碳电网评价指标体系与方法［J］．电力系统自动化，2014，38（17）：157-162．

Sun Yanlong, Kang Chongqing, Chen Songsong, et al. Low-carbon power grid index system and evaluation method［J］. Automation of Electric Power Systems, 2014,38（17）:157-162.

［11］夏春燕. 变压器经济运行分析与应用［J］. 变压器, 2007, 44（12）: 24-28.

Xia Chunyan. Analysis and application of transformer economic operation［J］. Transformer, 2007, 44（12）:24-28.

［12］郭亚军．综合评价理论、方法及应用［M］．北京：科学出版社，2007：31-74．

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