Reprint

Anaerobic Fermentation – a Biological Route towards Achieving Net Neutrality

Edited by
October 2024
196 pages
  • ISBN978-3-7258-2405-2 (Hardback)
  • ISBN978-3-7258-2406-9 (PDF)

Print copies available soon

This is a Reprint of the Special Issue Anaerobic Fermentation – a Biological Route towards Achieving Net Neutrality that was published in

Biology & Life Sciences
Engineering
Summary

To achieve net neutrality, a sustainable circular economy approach is preferred. Amongst the available options, biological routes and especially the ‘Anaerobic Fermentation’ route have immense potential to contribute to net neutrality. This special issue pulls together research and review articles in this important area that can be categorized under the following three streams: (i) progressing the understanding of anaerobic digestion across disciplines; (ii) highlighting the potential for new products via anaerobic digestion; and (iii) identifying the suitable valorisation pathways for enabling a circular bioeconomy via VFAs. The implementation of these 'nature-based solutions,' aligned with the outcomes of COP27, provides reassurance that the scientific community is advancing in the appropriate direction toward achieving net neutrality. However, transitioning from the current 'transition' mindset to the goal of 'achieving net zero' still demands substantial efforts from political, scientific, and commercial stakeholders to ensure financial sustainability and feasibility.

Format
  • Hardback
License and Copyright
© 2024 by the authors; CC BY-NC-ND license
Keywords
methanogenic archaea; methanogenesis; underground gas storage; power to methane; green energy; CO2 utilization; anaerobic digestion; biochar; thermal decomposition; methane production; food waste; orthophosphates; chemical oxygen demand; sequencing batch reactor; brewery wastewater; solid retention time; biohydrogen production; volatile fatty acids; intensification; pre-treatment; digester; product recovery; techno-economic aspects; butyrate reduction; resource recovery; wastewater remediation; thermodynamic analysis; DNA sequencing; ionic liquid; anaerobic digestion; lignocellulosic biomass; pretreatment; clean energy; anaerobic digestion; biorefinery; fermentation; VFAs; biomass valorization; open culture; carbon monoxide; gasification; biomass conversion; bioremediation; biomethanation; chain elongation; volatile fatty acids; biogas; mixing; mechanical; optimization; design; mass spectrometry; biogas production; fungal enzymes; lignocellulose conversion; Lentinula edodes; n/a