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Boron (B) removal and bioelectricity captured from irrigation water using engineered duckweed-microbial fuel cell: effect of plant species and vegetation structure

Boron (B) in the irrigation water can be hazardous to human beings and other aquatic or terrestrial organisms when B concentration exceeds a certain level. More importantly, B removal from irrigation water is relatively difficult using conventional processes. In the present experiment, an innovative...

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Published in:Environmental science and pollution research international 2019-10, Vol.26 (30), p.31522-31536
Main Authors: Türker, Onur Can, Yakar, Anıl, Türe, Cengiz, Saz, Çağdaş
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description Boron (B) in the irrigation water can be hazardous to human beings and other aquatic or terrestrial organisms when B concentration exceeds a certain level. More importantly, B removal from irrigation water is relatively difficult using conventional processes. In the present experiment, an innovative treatment model based on monoculture and polyculture duckweed wastewater treatment modules was tested for B-rich irrigation water purification and bioelectricity harvesting. Different modules were designed using Lemna gibba L., Lemna minor L., and their combination in order to determine the most optimal duckweed species and vegetation structure for B removal process and bioelectricity generation in a module. In this respect, the module with a monoculture of Lemna gibba achieved the highest net B removal efficiency (71%) when it was exposed to 4 mg/L B (initial concentration). However, B removal efficiencies from all modules decreased when the initial B concentrations reached up to 4 mg/L in the irrigation water. The highest bioelectricity production was measured as 1.04 V with 17783 mWatt/m 2 power density at a current density of 44.06 mA/m 2 for module with Lemna gibba in monoculture through sacrificial magnesium anode. Specifically, both monocultures and polyculture removed considerable amounts of organic matter from irrigation water. However, biomass production and total chlorophyll (a + b) concentrations of duckweeds significantly decreased when they were exposed to 32 mg/L B in the irrigation water samples. Consequently, our modules present a holistic perspective to the prevention B toxicity problems in agricultural zones, and are a sustainable strategy for farmers or agricultural experts to produce bioelectricity by a cost-effective and eco-technological method.
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subjects Agricultural practices
Aquatic plants
Aquatic Pollution
Araceae - drug effects
Araceae - physiology
Atmospheric Protection/Air Quality Control/Air Pollution
Biochemical fuel cells
Bioelectric Energy Sources
Bioelectricity
Biomass
Boron
Boron - analysis
Boron - metabolism
Chlorophyll
Clean technology
Duckweed
Earth and Environmental Science
Ecotoxicology
Electrodes
Environment
Environmental Chemistry
Environmental Health
Environmental science
Floating plants
Harvesting
Irrigation
Irrigation water
Lemna gibba
Magnesium
Microorganisms
Modules
Monoculture
Organic matter
Plant species
Polyculture
Purification
Research Article
Toxicity
Vegetation
Waste Disposal, Fluid - methods
Waste Water - chemistry
Waste Water Technology
Wastewater treatment
Water analysis
Water Management
Water Pollutants, Chemical - analysis
Water Pollutants, Chemical - metabolism
Water Pollution Control
Water purification
Water Purification - methods
Water sampling
title Boron (B) removal and bioelectricity captured from irrigation water using engineered duckweed-microbial fuel cell: effect of plant species and vegetation structure
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