AI summary

70% confidence

Microbial electrochemical technology (MET) has shown promise in overcoming redox and energy metabolic constraints, but its limits and potential applications in industrial biotechnology need further exploration.

Generated by MESSAI extraction pipeline · review against source PDF

Extraction

Reported parameters

31 extracted values

View extracted values

No 3D model is mapped to this paper yet. Parameter ranges above still place reported values on the literature distribution.

Abstract

Abstract Microbial electrochemical technology (MET) has proven to be a promising solution to overcome the redox and energy metabolic constraints, enabling high yields of biosynthesis beyond stoichiometric limits. While there is room for improvement in extracellular electron transfer rates and productivity of the target compounds, it is crucial to think in advance about which bioprocess could be electrified and what would face major challenges. In this opinion paper, I presented and addressed interfacial electron transfer capacity of MET, whether built on biofilm or planktonic cells, and also discussed the upper limits of the MET system for biosynthesis of chemicals accordingly. Potential future application scenarios of different MET were also briefly addressed. This opinion paper aims to encourage the community to rethink the design and development of microbial electrochemical technologies for potential future applications in industrial biotechnology.

Key findings

  • MET can enable high yields of biosynthesis beyond stoichiometric limits
  • Extracellular electron transfer rates and productivity of target compounds need improvement
  • Biofilm-based MET has interfacial electron transfer capacity limitations

Keywords

BioprocessBiochemical engineeringProductivityNanotechnologyBiofilmBiotechnology

Identifiers

Journal
Microbial Biotechnology
Year
2023