钢铁生产过程二氧化碳排放计算方法与实践

doi:10.13228/j.boyuan.issn0449-749x.20150324

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摘要钢铁生产过程二氧化碳排放量的精确计算是钢铁行业节能减排的基础。对钢铁生产流程二氧化碳排放的3种常用温室气体排放计算方法进行介绍，并基于A钢厂2014年的生产数据进行计算和分析对比。《省级温室气体清单编制指南》、《钢铁碳排放指南》两种计算方法都是基于投入产出的统计方法，两者温室气体计算结果数值相近，前者吨钢二氧化碳排放结果为2.116 t，后者吨钢二氧化碳排放结果为2.013 t ，后一种方法在计算时考虑了固碳产品的抵扣，所以结果比前种方法结果偏小。基于ISO标准的钢铁产品生命周期计算方法，计算边界从铁矿石、煤炭等原材料的采掘、洗选、运输，焦化，烧结，高炉，炼钢，轧制等直到钢铁产品的出厂，计算结果吨钢产品二氧化碳排放量为2.309 t，相比前两种方法计算结果数值较大，这是因为在计算时包含了铁矿石、煤炭等在开采、洗选、运输阶段产生的二氧化碳。

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关键词 ：二氧化碳排放, 计算方法, 碳排放清单, 生命周期评价

Abstract：Quantitative calculation of carbon dioxide emissions during steel-making process is the basis of energy-saving and emission-reduction work in the steel industry. The current work introduced three methods for the calculation of carbon emissions in which these three methods were often applied for the calculation of common greenhouse gases emissions. The production data of Steel Plant A in 2014 were given and analyzed by three calculation methods to compare the differences. The methods of Provincial Guidelines for Greenhouse Gas Inventories（PGGGI） and Accounting Methods and Reporting Guidelines for Greenhouse Gas Emissions in Chinese Steel Producers（AMRGGE） are on the base of Input-Output model. Similar results were obtained by the above methods，for the calculation result of PGGGI was 2.116 t/t steel and that of AMRGGE was 2.013 t/t steel. The carbon dioxide emission by the method of AMRGGE was lower because some by-products containing carbon were removed. The whole life cycle of steel product was studied by the Life Cycle Assessment（LCA） method based on the ISO standards. The calculation involved the mining，the washing and the transportation of iron ore，coal and other raw materials，and the related processes developed from the coking，the sintering，the blast furnace，the steelmaking，the rolling to the finished product. The calculated carbon dioxide emission of LCA was 2.309 t/t steel which was higher than the other two methods，because a greater range system boundary which contained iron ore，coal mining and transportation were considered in this method.

Key words： carbon dioxide emissions calculation methods CO2 emission inventory Life cycle assessment

收稿日期: 2015-07-09 出版日期: 2016-04-14

引用本文:

刘宏强，付建勋，刘思雨，谢欣悦，杨笑楹. 钢铁生产过程二氧化碳排放计算方法与实践[J]. 钢铁, 2016, 51(4): 74-82. LIU Hong-qiang，FU Jian-xun，LIU Si-yu，XIE Xin-yue，YANG Xiao-ying. Calculation methods and application of carbon dioxide emission during steel-making process. Iron and Steel, 2016, 51(4): 74-82.

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[2]	林高平.钢铁企业的低碳与绿色增长[J].宝钢日报, 2011-4-19,
[1]	刘小敏.国家“十二五”规划中能源强度与碳排放强度约束指标的比较研究,[J].金融评论, 2012, 5(无):58-69
[3]	解振华.解振华：“十二五”期间单位GDP能耗要降低16%[J].2011-11-22,
[2]	林高平.钢铁企业的低碳与绿色增长[J].宝钢日报, 2011-4-19,
[3]	解振华.解振华：“十二五”期间单位GDP能耗要降低16%[J].2011-11-22,
[4]	中美发布应对气候变化联合声明（全文）.[J]., 2014-11-12,
[5]	潘佳佳，李廉水.中国工业二氧化碳排放的影响因素分析[J].环境科学与技术, 2011, 4:86-92
[6]	徐匡迪.转变发展方式建设低碳经济）[J].上海大学学报（社会科学版, 2010, 4:5-16
[7]	常阿平.碳关税壁垒对我国钢铁行业的影响及应对之策[J].对外经贸实务, 2012, 10:42-45
[4]	中美发布应对气候变化联合声明（全文）.[J]., 2014-11-12,
[8]	陆钟武，谢安国，蔡九菊，翟庆国，孟庆生.关于我国钢铁工业能耗预测及节能对策的探讨[A]. 1997中国钢铁年会论文集（上）.中国金属学会：1997：3.
[5]	潘佳佳，李廉水.中国工业二氧化碳排放的影响因素分析[J].环境科学与技术, 2011, 4:86-92
[9]	陆钟武，蔡九菊，于庆波，谢安国.钢铁生产流程的物流对能耗的影响[J].金属学报, 2000, 4:370-378
[6]	徐匡迪.转变发展方式建设低碳经济）[J].上海大学学报（社会科学版, 2010, 4:5-16
[7]	常阿平.碳关税壁垒对我国钢铁行业的影响及应对之策[J].对外经贸实务, 2012, 10:42-45
[10]	蔡九菊，赫冀成，陆钟武，李桂田，王维兴，孔令航.过去20年及今后5年中我国钢铁工业节能与能耗剖析[J].钢铁, 2002, 11:68-73
[8]	陆钟武，谢安国，蔡九菊，翟庆国，孟庆生.关于我国钢铁工业能耗预测及节能对策的探讨[A]. 1997中国钢铁年会论文集（上）.中国金属学会：1997：3.
[11]	盛刚，孙彦广，徐化岩，等.钢铁联合企业工序碳素流模型构建及排放研究[J].中国冶金, 2011, 21(07):1-6
[9]	陆钟武，蔡九菊，于庆波，谢安国.钢铁生产流程的物流对能耗的影响[J].金属学报, 2000, 4:370-378
[10]	蔡九菊，赫冀成，陆钟武，李桂田，王维兴，孔令航.过去20年及今后5年中我国钢铁工业节能与能耗剖析[J].钢铁, 2002, 11:68-73
[12]	张芸，张敬，张树深，等.基于层次灰关联的钢铁行业_排放影响因素[J].辽宁工程技术大学学报自然科学版, 2009, 28(04):656-659
[11]	盛刚，孙彦广，徐化岩，等.钢铁联合企业工序碳素流模型构建及排放研究[J].中国冶金, 2011, 21(07):1-6
[13]	李岭.基于系统动力学的我国钢铁工业碳足迹研究[J].冶金自动化, 2011, 06:7-10
[12]	张芸，张敬，张树深，等.基于层次灰关联的钢铁行业_排放影响因素[J].辽宁工程技术大学学报自然科学版, 2009, 28(04):656-659
[13]	李岭.基于系统动力学的我国钢铁工业碳足迹研究[J].冶金自动化, 2011, 06:7-10
[14]	杨晓东，张玲.钢铁工业温室气体排放与减排[J].河北冶金, 2003, 137(05):29-32
[14]	杨晓东，张玲.钢铁工业温室气体排放与减排[J].河北冶金, 2003, 137(05):29-32
[15]	高成康，陈杉，陈胜，秦威.中国典型钢铁联合企业的碳足迹分析[J].钢铁, 2015, 03:1-8
[15]	高成康，陈杉，陈胜，秦威.中国典型钢铁联合企业的碳足迹分析[J].钢铁, 2015, 03:1-8
[16]	张玥，王让会，刘飞.钢铁生产过程碳足迹研究—以南京钢铁联合有限公司为例[J].环境科学学报, 2013, 04:1195-1201
[16]	张玥，王让会，刘飞.钢铁生产过程碳足迹研究—以南京钢铁联合有限公司为例[J].环境科学学报, 2013, 04:1195-1201
[17]	孙建卫，陈志刚，赵荣钦，等.基于投入产出分析的中国碳排放足迹研究[J].中国人口.资源与环境, 2010, 20(05):28-34
[17]	孙建卫，陈志刚，赵荣钦，等.基于投入产出分析的中国碳排放足迹研究[J].中国人口.资源与环境, 2010, 20(05):28-34
[18]	韩颖，李廉水，孙宁等.中国钢铁工业二氧化碳的排放研究[J].南京信息工程大学学报, 2011, 3(1):53-57
[18]	韩颖，李廉水，孙宁等.中国钢铁工业二氧化碳的排放研究[J].南京信息工程大学学报, 2011, 3(1):53-57
[19]	刘竹，耿涌.薛冰城市能源消费碳排放核算方法[J].资源科学, 2011, 33(7):1325-1330
[19]	刘竹，耿涌.薛冰城市能源消费碳排放核算方法[J].资源科学, 2011, 33(7):1325-1330
[20]	张春霞，上官方钦，张寿荣，殷瑞钰.关于钢铁工业温室气体减排的探讨[J].工程研究-跨学科视野中的工程, 202, 03:221-230
[20]	张春霞，上官方钦，张寿荣，殷瑞钰.关于钢铁工业温室气体减排的探讨[J].工程研究-跨学科视野中的工程, 202, 03:221-230
[21]	樊波，上官方钦，周继程，干磊，张春霞．降低钢铁工业二氧化碳排放的探讨[C].2010全国能源与热工学术年会论文集.中国金属学会能源与热工分会，2010：4.
[21]	樊波，上官方钦，周继程，干磊，张春霞．降低钢铁工业二氧化碳排放的探讨[C].2010全国能源与热工学术年会论文集.中国金属学会能源与热工分会，2010：4.
[22]	殷瑞钰．制造强国，钢铁业的时代命题[N].中国冶金报, 2013-05-30.
[22]	殷瑞钰．制造强国，钢铁业的时代命题[N].中国冶金报, 2013-05-30.
[23]	殷瑞钰．以绿色发展为转型升级的主要方向[N].中国冶金报, 2013-10-31.
[24]	CARBON FOOTPRINT.What is a carbon footprint?[J].http://www.carhonfootprint.com/carbonfootprint.html, 2008-5-10, :-
[23]	殷瑞钰．以绿色发展为转型升级的主要方向[N].中国冶金报, 2013-10-31.
[24]	CARBON FOOTPRINT.What is a carbon footprint?[J].http://www.carhonfootprint.com/carbonfootprint.html, 2008-5-10, :-
[25]	Rees W E.Ecological footprint, and appropriate carrying capacity: what urban economic leave out[J].Environment and Urbanization, 1992, (2):121-130
[25]	Rees W E.Ecological footprint, and appropriate carrying capacity: what urban economic leave out[J].Environment and Urbanization, 1992, (2):121-130
[26]	Wackernagel M.Rees W E. Our ecological footprint-reducing human impact on the earth[M].Gabriola Island，B.C，Canada：New Society Publishers，1996.
[26]	Wackernagel M.Rees W E. Our ecological footprint-reducing human impact on the earth[M].Gabriola Island，B.C，Canada：New Society Publishers，1996.
[27]	BSI, CARBON TRUST DEFRA, et al.PAS 2050: specification for the assessment of the life cycle greenhouse gas emissions of goods and services [EB/OL] [J].http://shop.bsigroup.com/en/Browse-by-Sector/,, 2008-10-29, :-
[27]	BSI, CARBON TRUST DEFRA, et al.PAS 2050: specification for the assessment of the life cycle greenhouse gas emissions of goods and services [EB/OL] [J].http://shop.bsigroup.com/en/Browse-by-Sector/,, 2008-10-29, :-
[28]	Schumacher, K, Sands, R.D. .Where are the industrial technologies in energy–economy models? An innovative CGE approach for steel production in Germany. [J].Energy Economics, 2007, 29:799-825
[28]	Schumacher, K, Sands, R.D. .Where are the industrial technologies in energy–economy models? An innovative CGE approach for steel production in Germany. [J].Energy Economics, 2007, 29:799-825
[29]	POST.Carbon Footprint of Electricity Generation[R]. Par-limitary Office of Science and Technology, 2006：POSTnote268.
[29]	POST.Carbon Footprint of Electricity Generation[R]. Par-limitary Office of Science and Technology, 2006：POSTnote268.
[30]	Wiedmann T， Minx J.A definition of carbon footprint[J].ISA Research & Consulting, 2007, (1):1-9
[30]	Wiedmann T， Minx J.A definition of carbon footprint[J].ISA Research & Consulting, 2007, (1):1-9
[31]	INTERNATIONAL ORGANIZATION FOR STANDARDIZATION ( ISO).ISO 14040：Environmental management-life cycle assessment-principles and framework［EB/OL］[J]., ,2006-7-10, :-
[31]	INTERNATIONAL ORGANIZATION FOR STANDARDIZATION ( ISO).ISO 14040：Environmental management-life cycle assessment-principles and framework［EB/OL］[J]., ,2006-7-10, :-