
From quarry to carbon sink : process-based LCA modelling of lime-based construction materials for net-zero and carbon-negative transformation
- Author
- Agustin Laveglia (UGent) , Neven Ukrainczyk, Nele De Belie (UGent) and Eddie Koenders
- Organization
- Project
- Abstract
- A comprehensive decarbonization approach is reported, involving Direct Separation Reactors (DSRs) and eco-efficient energy sources in the production of hydrated lime. Environmental and economic impacts are calculated through an in-depth life-cycle cradle-to-grave assessment. Integrating a DSR kiln with carbon capture technologies (CCTs) attained a remarkable 65% reduction of CO2 emissions during hydrated lime production, with a minimum environmental impact from the CCT itself. Fully electrified DSR kilns, powered by renewable energy sources, achieve an astonishing 94% decrease in CO2 emissions when compared to conventional reference scenarios, all without adverse environmental effects. In lime-based plasters, combining DSR kilns, natural carbonation, and eco-efficient energy sources, particularly with the inclusion of natural gas, leads to carbon negativity. This efficiently offsets all production emissions and even cuts back an additional 30%. In the case of fully electrified DSR kilns, the results are a remarkable 149% CO2 emission reduction throughout the entire cradle-to-grave lifecycle. Carbon capture technologies reduce carbon tax costs by up to 26%, thereby enhancing the economic sustainability of these endeavours. To realize a swift and effective decarbonization of the lime industry, a harmonized effort is imperative and involves balancing the interests of the private sector, environmental protection, and promoting societal well-being, all within a supportive regulatory framework. Materials science, process engineering and environmental science were combined to demonstrate carbon negative scenarios over the life-cycle of a lime-based plaster.
- Keywords
- CO2 CAPTURE, INDUSTRY
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Citation
Please use this url to cite or link to this publication: http://hdl.handle.net/1854/LU-01JRJ2J5XJX2K2XSCER41AKFA3
- MLA
- Laveglia, Agustin, et al. “From Quarry to Carbon Sink : Process-Based LCA Modelling of Lime-Based Construction Materials for Net-Zero and Carbon-Negative Transformation.” GREEN CHEMISTRY, vol. 26, no. 11, 2024, pp. 6584–600, doi:10.1039/d3gc04599d.
- APA
- Laveglia, A., Ukrainczyk, N., De Belie, N., & Koenders, E. (2024). From quarry to carbon sink : process-based LCA modelling of lime-based construction materials for net-zero and carbon-negative transformation. GREEN CHEMISTRY, 26(11), 6584–6600. https://doi.org/10.1039/d3gc04599d
- Chicago author-date
- Laveglia, Agustin, Neven Ukrainczyk, Nele De Belie, and Eddie Koenders. 2024. “From Quarry to Carbon Sink : Process-Based LCA Modelling of Lime-Based Construction Materials for Net-Zero and Carbon-Negative Transformation.” GREEN CHEMISTRY 26 (11): 6584–6600. https://doi.org/10.1039/d3gc04599d.
- Chicago author-date (all authors)
- Laveglia, Agustin, Neven Ukrainczyk, Nele De Belie, and Eddie Koenders. 2024. “From Quarry to Carbon Sink : Process-Based LCA Modelling of Lime-Based Construction Materials for Net-Zero and Carbon-Negative Transformation.” GREEN CHEMISTRY 26 (11): 6584–6600. doi:10.1039/d3gc04599d.
- Vancouver
- 1.Laveglia A, Ukrainczyk N, De Belie N, Koenders E. From quarry to carbon sink : process-based LCA modelling of lime-based construction materials for net-zero and carbon-negative transformation. GREEN CHEMISTRY. 2024;26(11):6584–600.
- IEEE
- [1]A. Laveglia, N. Ukrainczyk, N. De Belie, and E. Koenders, “From quarry to carbon sink : process-based LCA modelling of lime-based construction materials for net-zero and carbon-negative transformation,” GREEN CHEMISTRY, vol. 26, no. 11, pp. 6584–6600, 2024.
@article{01JRJ2J5XJX2K2XSCER41AKFA3, abstract = {{A comprehensive decarbonization approach is reported, involving Direct Separation Reactors (DSRs) and eco-efficient energy sources in the production of hydrated lime. Environmental and economic impacts are calculated through an in-depth life-cycle cradle-to-grave assessment. Integrating a DSR kiln with carbon capture technologies (CCTs) attained a remarkable 65% reduction of CO2 emissions during hydrated lime production, with a minimum environmental impact from the CCT itself. Fully electrified DSR kilns, powered by renewable energy sources, achieve an astonishing 94% decrease in CO2 emissions when compared to conventional reference scenarios, all without adverse environmental effects. In lime-based plasters, combining DSR kilns, natural carbonation, and eco-efficient energy sources, particularly with the inclusion of natural gas, leads to carbon negativity. This efficiently offsets all production emissions and even cuts back an additional 30%. In the case of fully electrified DSR kilns, the results are a remarkable 149% CO2 emission reduction throughout the entire cradle-to-grave lifecycle. Carbon capture technologies reduce carbon tax costs by up to 26%, thereby enhancing the economic sustainability of these endeavours. To realize a swift and effective decarbonization of the lime industry, a harmonized effort is imperative and involves balancing the interests of the private sector, environmental protection, and promoting societal well-being, all within a supportive regulatory framework. Materials science, process engineering and environmental science were combined to demonstrate carbon negative scenarios over the life-cycle of a lime-based plaster.}}, author = {{Laveglia, Agustin and Ukrainczyk, Neven and De Belie, Nele and Koenders, Eddie}}, issn = {{1463-9262}}, journal = {{GREEN CHEMISTRY}}, keywords = {{CO2 CAPTURE,INDUSTRY}}, language = {{eng}}, number = {{11}}, pages = {{6584--6600}}, title = {{From quarry to carbon sink : process-based LCA modelling of lime-based construction materials for net-zero and carbon-negative transformation}}, url = {{http://doi.org/10.1039/d3gc04599d}}, volume = {{26}}, year = {{2024}}, }
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