Abstract
The three most essential need of a human being in this world are food, clothes and shelter. On the whole, the development of textile industry will undoubtedly be tremendous, as it satisfies the second essential necessity of man. Everyone needs to hit an impression with various trendy and popular garments. This upgraded lifestyle in human beings, on the other hand, leads to many dreadful negative impacts on our environment. Energy footprint is a measure of amount of CO2 emanated from a particular region. This approach in textile industries mainly focus on the amount of CO2 utilized and discharged from this industry and it helps to feature the issue and make ready for restorative move to be made. The emission of Carbon dioxide into the environment in a higher amount leads to global warming and other dreadful consequences in the processing steps of textile manufacturing. The production and manufacturing sector of the textile industries mandatorily need some energy for their functioning. The amount of energy required may vary according to the processing step, apparatus and parametric conditions. Energy sources are one of the basic necessities of the textile industry in manufacturing, transporting, maintaining of the goods and it plays a major role in every other process. The energy is taken in the form of oil, gas, coal, electricity, etc. Which are all the major sources for the production of CO2, thus estimating the energy footprints of the textile industry helps us to understand the extent of CO2 emission and help in lowering the negative impacts of the textile industry towards our environment.
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References
Alhorr Y, Eliskandarani E, Elsarrag E (2014) Approaches to reducing carbon dioxide emissions in the built environment: low carbon cities. Int J Sustain Built Environ 3:167–178
Energy Footprinting, https://www.gdrc.org/uem/footprints/energy-footprint.html
Energy Footprinting Tool, Energy efficiency and renewable energy. U.S. Department of Energy, https://www.energy.gov/sites/prod/files/2017/11/f39/EnergyFootprintGuide.pdf
Evolution of textile industry in India. Indian Text J, October 2014
Ferng JJ (2002) Analysis toward a scenario analysis framework for energy footprints. Ecol Econ 40:53–69
Hajjaji N, Pons MN, Houas A, Renaudin V (2012) Exergy analysis: an efficient tool for understanding and improving hydrogen production via the steam methane reforming process. Energy Policy 42:392–399
Hasanbeigi A (2010) Energy-efficiency improvement opportunities for the textile industry. Ernest Orlando Lawrence Berkeley National Laboratory
International Energy Outlook (2017). https://www.eia.gov/outlooks/ieo/
ISO 14064 (2006) International Organization for Standardization, Geneva, Switzerland
Jain M (2017) Ecological approach to reduce carbon footprint of textile industry. Int J Appl Home Sci 4:623–633
Jones NF, Joseph P, Kiesecker M (2015) The energy footprint: how oil, natural gas, and wind energy affect land for biodiversity and the flow of ecosystem services. Bioscience 65:290–301
Kaltenegger O, Loschel A, Pothen F (2018) The effect of globalisation on energy footprints: disentangling the links of global value chains. Energy Econ 68:148–168
Khude P (2017) A review on energy management in textile industry. Innovative Energy Res 6
Krivtsov V, Wäger PA, Dacombe P, Gilgen PW, Heaven S, Hilty LM, Banks CJ (2004) Analysis of energy footprints associated with recycling of glass and plastic—case studies for industrial ecology. Ecol Model 174:175–189
Mehta R, Goyal C (2015) Role of carbon footprint in textile and apparel industry. Textile Value Chain, http://www.textilevaluechain.com/index.php/article/technical/item/235-role-of-carbon-footprint-in-textile-and-apparel-industry
Ministry of Power, Energy Conservation Act (2001), http://www.indiacode.nic.in/bitstream/123456789/2003/1/200152.pdf
Narayan PK, Narayan S (2010) Carbon dioxide emissions and economic growth: panel data evidence from developing countries. Energy Policy 38:661–666
Ozturk HK (2005) Energy usage and cost in textile industry: a case study for Turkey. Energy 20:1–23
Palamutcu S (2015) Energy footprints in the textile industry. Handbook of Life Cycle Assessment (LCA) of textiles and clothing. A volume in Woodhead Publishing Series in Textiles, pp. 31–61
Radovic LR (1992) Energy supply and demand. Energy and Fuels in Society, Available at https://www.ems.psu.edu/~radovic/Chapter5.pdf
Schmalensee R, Stoker TM, Judson RA (1998) World carbon dioxide emissions: 1950–2050. Rev Econ Stat 80:15–27
Wang L, Li Y, He W (2017) The energy footprint of China’s textile industry: perspectives from decoupling and decomposition analysis. Energies 10:1461
Wiedmann T (2009) A first empirical comparison of energy footprints embodied in trade—MRIO versus PLUM. Ecol Econ 68:1975–1990
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Senthil Kumar, P., Janet Joshiba, G. (2019). Energy Footprints of Textile Products. In: Muthu, S. (eds) Energy Footprints of the Food and Textile Sectors. Environmental Footprints and Eco-design of Products and Processes. Springer, Singapore. https://doi.org/10.1007/978-981-13-2956-2_3
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DOI: https://doi.org/10.1007/978-981-13-2956-2_3
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