Increased Biological and Cathodic Hydrogen Production Using a Novel Integrated Thermophilic Fermenter and Dual Anion Exchange Membrane Bioelectrochemical System

Increased Biological and Cathodic Hydrogen Production Using a Novel Integrated Thermophilic Fermenter and Dual Anion Exchange Membrane Bioelectrochemical System Publisher

Alavi N^{1, 2} ; Majlessi M^{1, 2} ; Amanidaz N^{1, 2} ; Zamanzadeh M³ ; Rafiee M^{1, 2}

Show Affiliations

1. Environmental and Occupational Hazards Control Research Center, Shahid Beheshti University of Medical Sciences, Tehran, Iran
2. Department of Environmental Health Engineering, School of Public Health and Safety, Shahid Beheshti University of Medical Sciences, Tehran, Iran
3. Department of Environmental Health Engineering, School of Public Health, Tehran University of Medical Sciences, Tehran, Iran

Source: MethodsX Published:2022

Abstract

Many researchers are interested in utilizing renewable and sustainable energy made by exoelectrogenic bacteria during electrodialysis for the separation of minerals and organic matters from aqueous environments. The aim of this study was to develop a novel thermophilic fermenter and dual anion exchange membrane bioelectrochemical system for separating biohydrogen production inhibitors from the thermophilic fermenter and thereby increasing biological and cathodic hydrogen production by food waste and wastewater. • Using this innovative system the biohydrogen production inhibitors were separated and nutrients (for example ammonium), alkalinity, buffering capacity and pH were preserved in the bioreactor at the same time, led to higher biological and cathodic hydrogen production. © 2022

2. Volatile Fatty Acids and Ammonia Recovery, Simultaneously Cathodic Hydrogen Production and Increasing Thermophilic Dark Fermentation of Food Waste Efficiency, International Journal of Hydrogen Energy (2023)

3. Investigation of Modified Microbial Desalination Cell Performance in Sweetening of Saltwater, Journal of Babol University of Medical Sciences (2018)

4. Exploitation of Renewable Energy Sources for Water Desalination Using Biological Tools, Environmental Science and Pollution Research (2023)

Experts (# of related papers)

Mohammadali Ali Mazloumi (1)

Style	Citing Format
MLA	Alavi N, et al.. "Increased Biological and Cathodic Hydrogen Production Using a Novel Integrated Thermophilic Fermenter and Dual Anion Exchange Membrane Bioelectrochemical System." MethodsX, vol. 9, no. , 2022, pp. -.
APA	Alavi N, Majlessi M, Amanidaz N, Zamanzadeh M, Rafiee M (2022). Increased Biological and Cathodic Hydrogen Production Using a Novel Integrated Thermophilic Fermenter and Dual Anion Exchange Membrane Bioelectrochemical System. MethodsX, 9(), -.
Chicago	Alavi N, Majlessi M, Amanidaz N, Zamanzadeh M, Rafiee M. "Increased Biological and Cathodic Hydrogen Production Using a Novel Integrated Thermophilic Fermenter and Dual Anion Exchange Membrane Bioelectrochemical System." MethodsX 9, no. (2022): -.
Harvard	Alavi N et al. (2022) 'Increased Biological and Cathodic Hydrogen Production Using a Novel Integrated Thermophilic Fermenter and Dual Anion Exchange Membrane Bioelectrochemical System', MethodsX, 9(), pp. -.
Vancouver	Alavi N, Majlessi M, Amanidaz N, Zamanzadeh M, Rafiee M. Increased Biological and Cathodic Hydrogen Production Using a Novel Integrated Thermophilic Fermenter and Dual Anion Exchange Membrane Bioelectrochemical System. MethodsX. 2022;9():-.
BibTex	@article{ author = {Alavi N and Majlessi M and Amanidaz N and Zamanzadeh M and Rafiee M}, title = {Increased Biological and Cathodic Hydrogen Production Using a Novel Integrated Thermophilic Fermenter and Dual Anion Exchange Membrane Bioelectrochemical System}, journal = {MethodsX}, volume = {9}, number = {}, pages = {-}, year = {2022} }
RIS	TY - JOUR AU - Alavi N AU - Majlessi M AU - Amanidaz N AU - Zamanzadeh M AU - Rafiee M TI - Increased Biological and Cathodic Hydrogen Production Using a Novel Integrated Thermophilic Fermenter and Dual Anion Exchange Membrane Bioelectrochemical System JO - MethodsX VL - 9 IS - SP - EP - PY - 2022 ER -

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