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Potential CO2 reduction and uptake due to industrialization and efficient cement use in Brazil by 2050

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  • Daniel Costa Reis
  • Marco Quattrone
  • Jhonathan F. T. Souza
  • Katia R. G. Punhagui
  • Sergio A. Pacca
  • Vanderley M. John

Abstract

Cement production contributes 8–9% of all anthropogenic CO2 emissions worldwide, and further increases in the future are expected. Traditional solutions for reducing emissions, including energy efficiency, using alternative fuels, and clinker‐to‐cement ratio reduction, are insufficient to ensure the necessary mitigation. Based on the concept of material efficiency, this study identifies new alternatives for reducing CO2 emissions by adopting a set of technological solutions to increase the industrialization of cement‐based products and the use of fillers considering a cradle‐to‐use approach. Besides, increasing the filler content in mortars and plain concrete is a desirable strategy, because it increases the carbonation rate, accelerating the CO2 sequestration from the atmosphere. Based on data from the Brazilian cement industry technology roadmap, this study quantitatively evaluates, up to 2050, the CO2 mitigation potential and the reduction of cement consumption for each adopted technological solution. The marginal abatement costs are also included to quantify each considered solution's cost‐effectiveness and compared with alternatives like carbon capture and storage. The results show that increasing the cement use efficiency enables CO2 emissions reduction by up to 45% by 2050, with a cost of USD –1.36 for each avoided metric ton of CO2, while accelerating the mortar carbonation rate. This article met the requirements for a gold–gold JIE data openness badge described in http://jie.click/badges.

Suggested Citation

  • Daniel Costa Reis & Marco Quattrone & Jhonathan F. T. Souza & Katia R. G. Punhagui & Sergio A. Pacca & Vanderley M. John, 2021. "Potential CO2 reduction and uptake due to industrialization and efficient cement use in Brazil by 2050," Journal of Industrial Ecology, Yale University, vol. 25(2), pages 344-358, April.
  • Handle: RePEc:bla:inecol:v:25:y:2021:i:2:p:344-358
    DOI: 10.1111/jiec.13130
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    References listed on IDEAS

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    1. Zhi Cao & Rupert J. Myers & Richard C. Lupton & Huabo Duan & Romain Sacchi & Nan Zhou & T. Reed Miller & Jonathan M. Cullen & Quansheng Ge & Gang Liu, 2020. "The sponge effect and carbon emission mitigation potentials of the global cement cycle," Nature Communications, Nature, vol. 11(1), pages 1-9, December.
    2. Christos Aristeides Tsiliyannis, 2018. "Industrial Wastes and By‐products as Alternative Fuels in Cement Plants: Evaluation of an Industrial Symbiosis Option," Journal of Industrial Ecology, Yale University, vol. 22(5), pages 1170-1188, October.
    3. Matthias Achternbosch & Ulrich Dewald & Eberhard Nieke & Gerhard Sardemann, 2015. "Is Coal Fly Ash a Suitable Alkaline Resource for Manufacturing New Calcium Carbonate–based Cements? A Systems Analytical Evaluation," Journal of Industrial Ecology, Yale University, vol. 19(1), pages 71-81, February.
    4. Sarah Pamenter & Rupert J. Myers, 2021. "Decarbonizing the cementitious materials cycle: A whole‐systems review of measures to decarbonize the cement supply chain in the UK and European contexts," Journal of Industrial Ecology, Yale University, vol. 25(2), pages 359-376, April.
    5. Fengming Xi & Steven J. Davis & Philippe Ciais & Douglas Crawford-Brown & Dabo Guan & Claus Pade & Tiemao Shi & Mark Syddall & Jie Lv & Lanzhu Ji & Longfei Bing & Jiaoyue Wang & Wei Wei & Keun-Hyeok Y, "undated". "Substantial global carbon uptake by cement carbonation," Working Paper 473571, Harvard University OpenScholar.
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