Chapter 6 - Reorienting Waste Remediation Towards Harnessing Bioenergy: A Paradigm Shift
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Ecosystem services and climate action from a circular bioeconomy perspective
2023, Renewable and Sustainable Energy ReviewsBio and bio-based hybrid techniques for municipal wastewater treatment and resource recovery
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2020, Journal of Water Process EngineeringCitation Excerpt :In a typical microalgae-microbial fuel cell (m-MFC), microalgal cells produce O2 by utilizing solar energy and nutrients, bicarbonates, and CO2 released by the heterotrophic bacteria which take up the released O2 and the organic content (Fig. 5) [82]. Typically, the microalgae fuel cells are made up of two chambers i.e., anode and cathode separated by a membrane [83]. In the first step, the organic/inorganic substrate gets converted into electrons and protons in the anodic chamber.
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2020, Bioresource TechnologyCitation Excerpt :Waste-related biorefinery views consuming side streams from agriculture and the food processing e.g. from bakeries and breweries have acknowledged substantial consideration in current years. An countenance of significance in prevailing energy and material recovery technologies utilizing waste feedstock often attempt to integrate processes along with remediation (Mohan, 2014; Venkata Mohan, 2014). A biorefinery is a feature comparable to the petroleum refinery, which assimilates biomass conversion methods and technologies to yield fuels, power and chemicals (Soetaert, 2009).
Determining key issues in life-cycle assessment of waste biorefineries
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