Assessing the life-cycle sustainability of algae and bacteria-based wastewater treatment systems: High-rate algae pond and sequencing batch reactor

High Rate Algae Ponds (HRAPs) are a promising technology for the treatment of municipal wastewater in locations with sufficient space and solar radiation. Algae-based processes do not require aeration, and thus have the potential to be less energy-intensive than activated sludge processes. We used a...

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Veröffentlicht in:Journal of environmental management 2020-06, Vol.264, p.110459-110459, Article 110459
Hauptverfasser: Kohlheb, Norbert, van Afferden, Manfred, Lara, Enrique, Arbib, Zouhayr, Conthe, Monica, Poitzsch, Christoph, Marquardt, Thomas, Becker, Mi-Yong
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container_end_page 110459
container_issue
container_start_page 110459
container_title Journal of environmental management
container_volume 264
creator Kohlheb, Norbert
van Afferden, Manfred
Lara, Enrique
Arbib, Zouhayr
Conthe, Monica
Poitzsch, Christoph
Marquardt, Thomas
Becker, Mi-Yong
description High Rate Algae Ponds (HRAPs) are a promising technology for the treatment of municipal wastewater in locations with sufficient space and solar radiation. Algae-based processes do not require aeration, and thus have the potential to be less energy-intensive than activated sludge processes. We used a combination of LCA and LCCA analysis to evaluate the sustainability of HRAP systems, using data from the construction and operation of two demonstration-scale systems in Almería and Cádiz, Spain. As a reference for comparison, we used data from an activated sludge-based Sequencing Batch Reactor (SBR) treatment system in operation in Leppersdorf, Germany, which has comparable removal rates for a similar inflow. We focused solely on the actual wastewater treatment aspect of these technologies, excluding sludge treatment from this analysis. Based on our analysis, the current HRAP technology is more energy-efficient than activated sludge-based SBRs and requires only 22% of its electricity consumption. In addition, HRAP is more advantageous both economically (0.18 €/m3 versus 0.26 €/m3) and environmentally, with both lower global warming and eutrophication potentials (146.27 vs. 458.27 × 10−3 kg CO2 equiv./m3; 126.14 vs. 158.01 × 10−6 kg PO4 equiv./m3). However, the Net Environmental Benefit of SBR was slightly more favorable than of HRAP because of the higher removal rate for nutrients of SBR. •The HRAP technology is more advantageous both in economic and environmental terms.•The electricity consumption of the new LEAR mixing is less than 50% of that of the conventional paddle wheel mixing.•The infrastructural and chemical impacts of HRAP need to be optimized to improve the system.•The NEB of SBR is better than that of HRAP because of the better cleaning performance.
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subjects Bacteria
Bioreactors
Germany
High rate algae pond
Life cycle assessment
Life cycle costing
Ponds
Sequencing batch reactor
Sewage
Spain
Waste Disposal, Fluid
Waste Water
title Assessing the life-cycle sustainability of algae and bacteria-based wastewater treatment systems: High-rate algae pond and sequencing batch reactor
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