Assemment and Influential Factors Analysis of Power Energy Efficiency Based on New Energy Industrial Orientation

doi:10.3969/j.issn.1000－7229.2017.01.016

Abstract

Abstract:

The improvement of power energy efficiency is contributed to sustainable and green development of social economy. Firstly, this paper establishes the principle of selecting energy efficiency assessment indices. On the basis of the existed used assessing indices, the assessing indices of power energy efficiency oriented by new energy have been established from the three aspects of energy technology efficiency, energy economic efficiency and energy environment efficiency.The standardization law of Min-max is used to normalize the indices, and the assessing model of power comprehensive energy efficiency is established according to expert opinion and analytic hierarchy process (AHP). Taking a real regional power system as an example, its energy efficiency is assessed and analyzed, the main factors that influence the regional power energy efficiency, and the improvement space arised by those factors are both analyzed. At last, the measures and recommendations are proposed to improve the power energy efficiency.

Key words: power system, energy efficiency, principle of indices selection, analytic hierarchy process, influencial factors

CLC Number:

TM 614

LIN Li, ZHOU Peng, ZOU Lanqing. Assemment and Influential Factors Analysis of Power Energy Efficiency Based on New Energy Industrial Orientation

[J]. Electric Power Construction, 2017, 38(1): 123-.

References

［1］王庆一.中国的能源效率及国际比较［J］.节能与环保，2005(6)：10-13.

［2］MAHESWARAN D，KAILAS K K J，RANGARAJ V，et al. Energy efficiency in electrical systems［C］//2012 IEEE International Conference on Power Electronics，Drives and Energy Systems (PEDES). Bengaluru: IEEE, 2012.

［3］APERC.Energy efficiency indicators. A study of energy efficiency indicators for industry in APEC economies［R］. Tokyo: Asia Pacific Energy Research Center,2000.

［4］COROIUM， CHINDRIS M. Energy efficiency indicators and methodology for evaluation of energy performance and retained savings［C］//Power Engineering Conference (UPEC)，2014 49th International Universities. Cluj-Napoca: IEEE，2014.

［5］TSEKOURAS G J，TSAROUCHA M A，TSIREKIS C D，et al．A database system for power systems customers and energy efficiency programs［J］．International Journal of Electrical Power & Energy Systems，2011，33(6) ：1220-1228．

［6］韩致远，王伯安.炼油企业综合能源效率评价指标体系的研究［J］.北京石油化工学院学报，2013，21(2)：56-61.

HAN Zhiyuan，WANG Boan.Refining enterprise evaluation index system of comprehensive energy efficiency［J］.Journal of Beijing Institute of Petro-chemical Technology，2013，21(2)：56-61.

［7］王妍.中国电力工业能源效率分析［J］.经济师，2008(4)：58-59.

［8］国家能源局.国家能源局发布2015年全社会用电量［EB/OL］.2016-01-15. http://www.nea.gov.cn.

［9］吴鸿亮，杜尔顺，门锟，等.面向低碳目标的电力系统节能与经济运行评价系统［J］.电网技术，2015，39(5)：1179-1185.

WU Hongliang，DU Ershun，MEN Kun，et al.A low-carbon oriented energy-saving and economic operation evaluation system［J］.Power System Technology，2015，39(5)：1179-1185.

［10］侯建朝，谭忠富，王绵斌.我国电力产业能效指标的国际对比［J］.中国电力，2007，40(9)：6-10.

HOU Jianchao, TAN Zhongfu, WANG Mianbin. Comparison of energy efficiency indexes for power industry between China and other countries［J］. Electric Power，2007，40(9)：6-10.

［11］PEZZINI P，GOMIS-BELLMUNT O，SUDRI-ANDREU A.Optimization techniques to improve energy efficiency in power systems［J］.Renewable & Sustainable Energy Reviews，2011，15(4)：2028-2041.

［12］李晓辉，张来，李小宇，等.基于层次分析法的现状电网评估方法研究［J］.电力系统保护与控制，2008，36(14)：57-61.

LI Xiaohui，ZHANG Lai，LI Xiaoyu，et al.The research on the evaluation system for existing network based on analytic hierarchy process and Delphi method［J］.Power System Protection and Control，2008，36(14)：57-61.

［13］杨小彬，李和明，尹忠东，等.基于层次分析法的配电网能效指标体系［J］.电力系统自动化，2013，37(21)：146-150, 195.

YANG Xiaobin，LI Heming，YIN Zhongdong，et al.Energy efficiency index system for distribution network based on analytic hierarchy process［J］.Automation of Electric Power System，2013，37(21)：146-150, 195.

［14］王丹凤.火电厂能源效率评价指标体系研究［J］.价值工程，2013(33)：31-32.

WANG Danfeng.Study of coal-fired power plant energy efficiency evaluation indicator system［J］.Value Engineering，2013(33)：31-32.

［15］周宏，戴韧，黄婷，等.发电技术综合评价的层次分析法［J］.电力建设，2001，22(4)：23-25.

ZHOU Hong，DAI Ren，HUANG Ting，et al.Level analysis method for comprehensive appraisal of power generation technique［J］.Electric Power Construction，2001，22(4)：23-25.

［16］李慧玲，芦新波，刘大川，等.基于AHP-TOPSIS的电力能效项目综合评价［J］.现代电力，2014，31(4)：88-94.

LI Huiling，LU Xinbo，LIU Dachuan，et al.A comprehensive evaluation method for power energy efficiency project based on AHP-TOPSIS［J］.Modern Electric Power，2014，31(4)：88-94.

［17］吴疆.单位电量CO2排放强度与单位产值CO2排放强度关系初探［J］.中国能源，2012，34(10)：34-37.

WU Jiang.A preliminary study on the relationship between CO2 emission intensity of unit output and unit of electricity［J］.Energy of China，2012，34(10)：34-37.

［18］李琼慧.“十三五”新能源发展前瞻［J］.中国电力企业管理，2015(23)：78-81.

［19］赵云飞，陈金富.层次分析法及其在电力系统中的应用［J］.电力自动化设备，2004，24(9)：85-87, 95.

ZHAO Yunfei，CHEN Jinfu.Analytic hierarchy process and its application in power system［J］.Electric Power Automation Equipment，2004，24(9)：85-87, 95.

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