Journal of Water Process Engineering, Journal Year: 2025, Volume and Issue: 72, P. 107529 - 107529
Published: March 22, 2025
Language: Английский
Journal of Water Process Engineering, Journal Year: 2025, Volume and Issue: 72, P. 107529 - 107529
Published: March 22, 2025
Language: Английский
Journal of Water Process Engineering, Journal Year: 2025, Volume and Issue: 72, P. 107350 - 107350
Published: March 13, 2025
Language: Английский
Citations
2Frontiers in Marine Science, Journal Year: 2018, Volume and Issue: 5
Published: Aug. 23, 2018
In this paper, we outline several recent insights for the priorities and challenges future research reducing phosphorus (P) based water eutrophication in agricultural landscapes of Northwest Europe. We highlight that new efforts best be focused on headwater catchments as they are a key influence initial chemistry larger river catchments, here many management interventions most effectively made. emphasize lack understanding how climate change will impact P losses from landscapes. Particularly, capability to disentangle current trends fluxes, due itself, driven changes practices inputs. Knowing that, climatic trajectories Western Europe accelerate release bioavailable soil P. stress ambiguities created by large varieties sources storage/transfer processes involved emissions need develop specific data treatment methods or tracers able circumvent them, thereby helping catchment managers identify ultimate contribute diffuse emissions. point out aqueous exist not only various chemical forms, but also range less considered physical forms e.g. dissolved, nanoparticulate, colloidal other particulates, all affected differently well environmental factors, require bespoke mitigation measures. support increased high resolution monitoring help verify effectiveness strategies, add quality models (e.g. those include Fe-P interactions) can deal with land use effects within an uncertainty framework. finally conclude there is crucial more integrative our incomplete mechanisms associated identification critical source areas, mobilization, delivery biogeochemical processing, otherwise even high-intensity high-resolution reveal picture full global terrestrial derived downstream aquatic marine ecosystems.
Language: Английский
Citations
138Journal of Hazardous Materials, Journal Year: 2021, Volume and Issue: 422, P. 126926 - 126926
Published: Aug. 16, 2021
Language: Английский
Citations
96Environmental Technology & Innovation, Journal Year: 2021, Volume and Issue: 24, P. 101933 - 101933
Published: Sept. 10, 2021
Language: Английский
Citations
59Journal of environmental chemical engineering, Journal Year: 2022, Volume and Issue: 10(3), P. 107444 - 107444
Published: Feb. 22, 2022
Language: Английский
Citations
47Journal of Water Process Engineering, Journal Year: 2024, Volume and Issue: 63, P. 105530 - 105530
Published: May 27, 2024
Language: Английский
Citations
12Bioresource Technology, Journal Year: 2017, Volume and Issue: 243, P. 204 - 211
Published: June 20, 2017
Language: Английский
Citations
84IWA Publishing eBooks, Journal Year: 2019, Volume and Issue: unknown
Published: Oct. 14, 2019
Water quality standards across the world are being re-written to promote healthier ecosystems, ensure safe potable water sources, increased biodiversity, and enhanced ecological functions. Treatment wetlands used for treating a variety of pollutant waters, including municipal wastewater, agricultural urban runoff, industrial effluents, combined sewer overflows, among others. particularly well-suited sustainable management because they can cope with variable influent loads, be constructed local materials, have low operations maintenance requirements compared other treatment technologies, provide additional ecosystem services. The technology has been successfully implemented in both developed developing countries.The first IWA Scientific Technical Report (STR) on Wetland Technology was published 2000. With exponential development since then, generation new STR facilitated by Task Group Mainstreaming Technology. This conceptualized written leading experts field. report presents latest applications within an innovative planning framework multi-purpose wetland design. It also includes practical design information collected from over twenty years experience practitioners academics, covering experiments at laboratory pilot-scale up full-scale applications.Scientific No. 27
Language: Английский
Citations
58Water Environment Research, Journal Year: 2021, Volume and Issue: 93(10), P. 1882 - 1909
Published: June 15, 2021
Abstract Constructed wetland systems (CWs) are biologically and physically engineered to mimic the natural wetlands which can potentially treat wastewater from various point nonpoint sources of pollution. The present study aims review mechanisms involved in different types CWs for treatment elucidate their role effective functioning CWs. Several physical, chemical, biological processes substantially influence pollutant removal efficiency Plants species Phragmites australis , Typha latifolia angustifolia most widely used rate nitrogen (N) is significantly affected by emergent vegetation cover type Hybrid (HCWS) nutrients, metals, pesticides, other pollutants higher than a single constructed wetland. contaminant vertical subsurface flow (VSSFCW) commonly domestic municipal ranges between 31% 99%. Biochar/zeolite addition as substrate material further enhances Innovative components (substrate materials, plant species) factors (design parameters, climatic conditions) sustaining long‐term sink pollutants, such nutrients heavy metals should be investigated future. Practitioner points efficient system on‐site contaminants wastewater. Denitrification, nitrification, microbial uptake, sedimentation adsorption crucial mechanisms. plants wetlands. Hydraulic retention time (HRT), water regimes, substrate, plant, biomass affect performance.
Language: Английский
Citations
48Journal of Environmental Management, Journal Year: 2022, Volume and Issue: 329, P. 117045 - 117045
Published: Dec. 20, 2022
Nature-based solutions (NBS) have co-benefits for water availability, quality, and flood management. However, searching optimal integrated urban-rural NBS planning to maximise at a catchment scale is still limited by fragmented evaluation. This study develops an optimisation framework based on the CatchWat-SD model, which developed simulate multi-catchment cycle in Norfolk region, UK. Three rural (runoff attenuation features, regenerative farming, floodplain) two urban (urban green space, constructed wastewater wetlands) interventions are into model range of implementation scales. A many-objective problem with seven management objectives account flow, quality cost indicators formulated, NSGAII algorithm adopted search portfolios. Results show that more significant impacts across catchment, increase implementation. Integrated can improve simultaneously, though trade-offs exist between different objectives. Runoff features floodplains provide greatest benefits availability. Regenerative farming most effective management, it decreases availability up 15% because retains soil. Phosphorus levels best reduced expansion space decrease loading combined sewer systems, this trades off against flood, nitrogen suspended solids. The proposed enables spatial prioritisation NBS, may ultimately guide multi-stakeholder decision-making, bridging divide
Language: Английский
Citations
32