An approach for modular environmental life cycle assessment of effluent treatment: Configuration of effluent treatment modules based on decision tree tailored to best available techniques

An approach was developed to configure treatment scenarios for a given industrial effluent based on pollutant composition, intended end use, available technologies, as well as environmental impact assessments of the scenarios. To overcome the complexity of configuring the industrial effluent treatment chain due to the variety of contaminants and diverse available treatment technologies, a decision tree was developed based on the best available technology tailored to pollutant types. A parametric life cycle inventory was developed for the operation phase of fifteen conventional and advanced treatment technology modules to facilitate a comparative environmental impact assessment, including parametric sensitivity and uncertainty analysis. The comparative modular life cycle assessment revealed the hotspots and contributions of fifteen treatment modules to the environmental impacts of treating of 1m 3 effluent, with nanofiltration, reverse osmosis, and ion-exchange having the highest overall impacts, whereas cartilage, sand filtration, and UV have the lowest environmental impacts. Sensitivity analysis unveiled high sensitivity of midpoint and endpoint environmental impacts to energy, resin and chemical consumptions. This approach offers a foundational framework for further decision tree developments as a supporting tool for treatment configuration in the effluent treatment industry, as well as sustainability assessment of treatment scenarios derived from the decision trees. Modular treatment configuration integrated into a decision tree promises more flexibility in setting up fit-for-purpose treatment scenarios and conducting modular life cycle assessments for more sustainable effluent treatment. • All-in-one approach offers modular effluent treatment and sustainability assessment. • Decision tree developed to configure effluent treatment by best available techniques. • Parametric inventory developed for modular LCA of modular effluent treatment plant. • Modular approach enables flexible decision trees adaptable to emerging techniques. • Sensitivity analysis revealed energy consumption as a major impact factor.

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Publication Details

Journal
Environmental Impact Assessment Review
Published
2024-12-18
DOI
https://doi.org/10.1016/j.eiar.2024.107782
Citations
12
Primary Topic
Wastewater Treatment and Reuse
Type
article
Field-Weighted Citation Impact
3.52
Controls
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article

An approach for modular environmental life cycle assessment of effluent treatment: Configuration of effluent treatment modules based on decision tree tailored to best available techniques

Guillaume Junqua, Tara Soleimani, David Lopez Ferber
12 citations
Environmental Impact Assessment Review
Wastewater Treatment and Reuse
3.52
article

An approach for modular environmental life cycle assessment of effluent treatment: Configuration of effluent treatment modules based on decision tree tailored to best available techniques

Guillaume Junqua, Tara Soleimani, David Lopez Ferber
article en
12 citations

Abstract

An approach was developed to configure treatment scenarios for a given industrial effluent based on pollutant composition, intended end use, available technologies, as well as environmental impact assessments of the scenarios. To overcome the complexity of configuring the industrial effluent treatment chain due to the variety of contaminants and diverse available treatment technologies, a decision tree was developed based on the best available technology tailored to pollutant types. A parametric life cycle inventory was developed for the operation phase of fifteen conventional and advanced treatment technology modules to facilitate a comparative environmental impact assessment, including parametric sensitivity and uncertainty analysis. The comparative modular life cycle assessment revealed the hotspots and contributions of fifteen treatment modules to the environmental impacts of treating of 1m 3 effluent, with nanofiltration, reverse osmosis, and ion-exchange having the highest overall impacts, whereas cartilage, sand filtration, and UV have the lowest environmental impacts. Sensitivity analysis unveiled high sensitivity of midpoint and endpoint environmental impacts to energy, resin and chemical consumptions. This approach offers a foundational framework for further decision tree developments as a supporting tool for treatment configuration in the effluent treatment industry, as well as sustainability assessment of treatment scenarios derived from the decision trees. Modular treatment configuration integrated into a decision tree promises more flexibility in setting up fit-for-purpose treatment scenarios and conducting modular life cycle assessments for more sustainable effluent treatment. • All-in-one approach offers modular effluent treatment and sustainability assessment. • Decision tree developed to configure effluent treatment by best available techniques. • Parametric inventory developed for modular LCA of modular effluent treatment plant. • Modular approach enables flexible decision trees adaptable to emerging techniques. • Sensitivity analysis revealed energy consumption as a major impact factor.

Environmental Impact Assessment ReviewVol. 112
Centre National de la Recherche Scientifique (FR), Université de Montpellier (FR), IMT Mines Alès (FR), Territoires, Villes, Environnement & Société (FR), Institut de Recherche pour le Développement (FR)
Zero hunger
Openalex Percentile: Top 8%
Wastewater Treatment and Reuse
3.52
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