Ecological design of constructed wetlands in cold mountainous region: from literature to experience

Constructed wetlands (CWs) are effective and sustainable engineered systems for domestic and/or municipal wastewater treatments. In the last half-century, CWs have become common solutions for small communities in remote mountainous areas. However, cold climate in mountain environment often causes a...

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Veröffentlicht in:Landscape and ecological engineering 2023-07, Vol.19 (3), p.401-415
Hauptverfasser: Stentella, Rachele, Cislaghi, Alessio, Rossi, Lorenzo M. W., Giupponi, Luca, Bona, Enzo, Zambonardi, Alberto, Rizzo, Luigi, Esposto, Francesco, Bischetti, Gian Battista
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container_issue 3
container_start_page 401
container_title Landscape and ecological engineering
container_volume 19
creator Stentella, Rachele
Cislaghi, Alessio
Rossi, Lorenzo M. W.
Giupponi, Luca
Bona, Enzo
Zambonardi, Alberto
Rizzo, Luigi
Esposto, Francesco
Bischetti, Gian Battista
description Constructed wetlands (CWs) are effective and sustainable engineered systems for domestic and/or municipal wastewater treatments. In the last half-century, CWs have become common solutions for small communities in remote mountainous areas. However, cold climate in mountain environment often causes a significant reduction of the pollutant removal performance compared to warmer environments. Therefore, in the present study, we aim to support build consensus on the best design practices for CWs in mountain environments. A meta-analysis of the scientific literature focusing on the CWs in cold climate was conducted. Meanwhile, several monitoring activities (chemical analysis on wastewater and treated water and analysis of changes in the plant communities) were carried out on 6 CWs observing the different conditions between immediately after the construction and 2–7 years later. The results showed an encouraging agreement between scientific studies and observations from the monitored case studies. Lack of plan space, low temperatures and supply meteoric inflows prompted the engineers, in the case studies, to design systems composed of septic tank and horizontal subsurface bed. Such a solution showed a good treatment efficiency (removal rates were more than 60% for most pollutants) in a harsh mountainous environment. A significant difference was evident in the choice of plants. Although the common reeds ( Phragmites australis ) remain an excellent solution, in plain and hilly areas, planting of tufted hairgrass ( Deschampsia cespitosa ) ensures similar average performance but is more suitable for the mountain ecosystems. In conclusion, the present study proposes technical and engineering recommendations and a sort of ecological design to increase wastewater treatment efficiency and adapt the systems to a natural and cold environment.
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subjects Aquatic plants
Artificial wetlands
Biomedical and Life Sciences
Case studies
Chemical analysis
Civil Engineering
Cold
Cold regions
cold zones
Deschampsia cespitosa
Environmental engineering
Environmental Management
Landscape Ecology
Landscape/Regional and Urban Planning
landscapes
Life Sciences
Low temperature
meta-analysis
Mountain ecosystems
Mountain environments
Mountain regions
Mountainous areas
Mountains
Municipal wastewater
Nature Conservation
Original Paper
Phragmites australis
Plant communities
Plant Ecology
Pollutant removal
Pollutants
pollution control
Reeds
septic systems
Septic tanks
Sustainable design
System effectiveness
Treated water
Wastewater treatment
Wetlands
title Ecological design of constructed wetlands in cold mountainous region: from literature to experience
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