Transformation of India's steel and cement industry in a sustainable 1.5 °C world

被引:39
作者
Dhar, Subash [1 ,2 ,3 ]
Pathak, Minal [3 ]
Shukla, Priyadarshi R. [3 ]
机构
[1] Tech Univ Denmark, DTU, UNEP DTU Partnership, Marmorvej 51, DK-2100 Copenhagen O, Denmark
[2] UN City, Dept Management Engn, Marmorvej 51, DK-2100 Copenhagen O, Denmark
[3] Ahmedabad Univ, Global Ctr Environm & Energy, Commerce Six Rd, Ahmadabad 380009, Gujarat, India
关键词
Material flow model; Energy system model; Scenarios; Industry; CO2; EMISSIONS; CARBON EMISSIONS; SECTOR;
D O I
10.1016/j.enpol.2019.111104
中图分类号
F [经济];
学科分类号
02 ;
摘要
The anticipated economic and population growth in India will increase demand for material resources, energy and consequently carbon emissions. The global ambition to limit global warming to 1.5 degrees C by the end of the century calls for rapid and unprecedented action. As the most carbon-intensive sectors, India's steel and cement industry will require a more transformative shift, both on the demand and supply side. Strategies from both supply and demand-side are analysed for steel and cement sector to understand consequences for energy and emissions using two modelling approaches i) energy system and ii) material flow models. A portfolio of technically feasible options to reduce the material, energy and CO2 intensity is explored under four alternate scenarios spanning till 2050 differentiated by their mitigation ambition and development paradigm. Results show that current policies m India will provide adequate incentives for achieving the climate targets India has submitted within its Nationally Determined Contribution (NDC) however, dematerialisation, reuse and recycling will be necessary for achieving the global ambition of 1.5 degrees C. The study concludes that a stringent carbon policy in combination with strong sustainability principles can reduce CO2 emissions by 68% in the steel and cement sector in 1.5 degrees C Scenario compared to NDC Scenario.
引用
收藏
页数:12
相关论文
共 33 条
[1]   A projection for global CO2 emissions from the industrial sector through 2030 based on activity level and technology changes [J].
Akashi, Osamu ;
Hanaoka, Tatsuya ;
Matsuoka, Yuzuru ;
Kainuma, Mikiko .
ENERGY, 2011, 36 (04) :1855-1867
[2]   Material efficiency: A white paper [J].
Allwood, Julian M. ;
Ashby, Michael F. ;
Gutowski, Timothy G. ;
Worrell, Ernst .
RESOURCES CONSERVATION AND RECYCLING, 2011, 55 (03) :362-381
[3]   Options for Achieving a 50% Cut in Industrial Carbon Emissions by 2050 [J].
Allwood, Julian M. ;
Cullen, Jonathan M. ;
Milford, Rachel L. .
ENVIRONMENTAL SCIENCE & TECHNOLOGY, 2010, 44 (06) :1888-1894
[4]  
[Anonymous], 2016, The Emissions Gap Report 2016
[5]  
[Anonymous], 2017, Emission Gap Report 2018, P1
[6]   A review of energy system models [J].
Bhattacharyya, Subhes C. ;
Timilsina, Govinda R. .
INTERNATIONAL JOURNAL OF ENERGY SECTOR MANAGEMENT, 2010, 4 (04) :494-518
[7]   Transformation of India's transport sector under global warming of 2 °C and 1.5 °C scenario [J].
Dhar, Subash ;
Pathak, Minal ;
Shukla, P. R. .
JOURNAL OF CLEANER PRODUCTION, 2018, 172 :417-427
[8]   An outlook into energy consumption in large scale industries in India: The cases of steel, aluminium and cement [J].
Dutta, Monica ;
Mukherjee, Saptarshi .
ENERGY POLICY, 2010, 38 (11) :7286-7298
[9]  
Garg A., Good Practice and Success Stories on Energy Efficiency in India
[10]  
GOL, 2015, 1 BIENN UPD REP UN F