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Monitoring river water and sediments within a changing Ethiopian catchment to support sustainable development

In many sub-Saharan states, despite governments’ awareness campaigns highlighting potential impacts of aquatic pollution, there is a very limited action to protect the riverine systems. Managing the quality of water and sediments needs knowledge of pollutants, agreed standards, and relevant policy f...

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Published in:Environmental monitoring and assessment 2019-07, Vol.191 (7), p.455-20, Article 455
Main Authors: Zinabu, E., Kelderman, P., van der Kwast, J., Irvine, K.
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description In many sub-Saharan states, despite governments’ awareness campaigns highlighting potential impacts of aquatic pollution, there is a very limited action to protect the riverine systems. Managing the quality of water and sediments needs knowledge of pollutants, agreed standards, and relevant policy framework supporting monitoring and regulation. This study reports metal concentrations in rivers in industrializing Ethiopia. The study also highlights policy and capacity gaps in monitoring of river and sediments. For two sampling periods in 2013 and 2014, chromium (Cr), copper (Cu), zinc (Zn), and lead (Pb) were monitored in water and sediments of the Leyole and Worka rivers in the Kombolcha city, Ethiopia. The sampling results were compared with international guidelines and evaluated against the Ethiopian water protection policies. Chromium was high in the Leyole river water (median 2660 μg/L) and sediments (maximum 740 mg/kg), Cu concentrations in the river water was highest at the midstream part of the Leyole river (median 63 μg/L), but maximum sediment content of 417 mg/kg was found further upstream. Zinc was the highest in the upstream part of the Leyole river water (median 521 μg/L) and sediments (maximum 36,600 mg/kg). Pb concentrations were low in both rivers. For the sediments, relatively higher Pb concentrations (maximum 3640 mg/kg) were found in the upstream of the Leyole river. Except for Pb, the concentrations of all metals surpassed the guidelines for aquatic life, human, livestock, and irrigation water supplies. The median concentrations of all metals exceeded guidelines for sediment quality for aquatic organisms. In Ethiopia, poor technical and financial capabilities restrict monitoring of rivers and sediments and understanding on the effects of pollutants. The guidelines used to protect water quality is based on the World Health Organization standards for drinking water quality, but this is not designed for monitoring ecological health. Further development of water quality standards and locally relevant monitoring framework are needed. Development of monitoring protocols and institutional capacities are important to overcome the policy gaps and support the government’s ambition in increasing industrialization and agricultural intensification. Failure to do so presents high risks for the public and the river ecosystem.
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source ABI/INFORM Global; Springer Nature
subjects Agricultural management
Aquatic ecosystems
Aquatic organisms
Atmospheric Protection/Air Quality Control/Air Pollution
Catchment area
Chromium
Copper
Drinking water
Earth and Environmental Science
Ecological monitoring
Ecology
Ecotoxicology
Environment
Environmental Management
Environmental monitoring
Environmental science
Fluvial sediments
Guidelines
Heavy metals
Industrialization
Intensive farming
Irrigation
Irrigation water
Lead
Livestock
Metal concentrations
Monitoring
Monitoring/Environmental Analysis
Organizations
Pollutants
Pollution effects
Pollution monitoring
Quality standards
River ecology
River water
Rivers
Sampling
Sediment
Sediment samples
Sediments
Sustainable development
Upstream
Water pollution
Water protection
Water quality
Water quality standards
Water supply
Zinc
title Monitoring river water and sediments within a changing Ethiopian catchment to support sustainable development
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