
Electrochimica Acta, Journal Year: 2016, Volume and Issue: 198, P. 49 - 55
Published: March 14, 2016
Language: Английский
Electrochimica Acta, Journal Year: 2016, Volume and Issue: 198, P. 49 - 55
Published: March 14, 2016
Language: Английский
Nature Reviews Microbiology, Journal Year: 2016, Volume and Issue: 14(10), P. 651 - 662
Published: Aug. 30, 2016
Language: Английский
Citations
1522Nature, Journal Year: 2018, Volume and Issue: 562(7725), P. 140 - 144
Published: Sept. 11, 2018
Language: Английский
Citations
515Nature Geoscience, Journal Year: 2014, Volume and Issue: 7(3), P. 195 - 200
Published: Feb. 27, 2014
Language: Английский
Citations
501Renewable and Sustainable Energy Reviews, Journal Year: 2015, Volume and Issue: 56, P. 1322 - 1336
Published: Dec. 29, 2015
Language: Английский
Citations
402Nature Reviews Microbiology, Journal Year: 2021, Volume and Issue: 20(1), P. 5 - 19
Published: July 27, 2021
Language: Английский
Citations
396Journal of Material Science and Technology, Journal Year: 2018, Volume and Issue: 35(4), P. 631 - 636
Published: Oct. 25, 2018
Language: Английский
Citations
332Chemical Reviews, Journal Year: 2020, Volume and Issue: 120(23), P. 12903 - 12993
Published: Oct. 14, 2020
Bioelectrocatalysis is an interdisciplinary research field combining biocatalysis and electrocatalysis via the utilization of materials derived from biological systems as catalysts to catalyze redox reactions occurring at electrode. synergistically couples merits both electrocatalysis. The advantages include high activity, selectivity, wide substrate scope, mild reaction conditions. possible renewable electricity electron source energy conversion efficiency. These properties are integrated achieve selective biosensing, efficient conversion, production diverse products. This review seeks systematically comprehensively detail fundamentals, analyze existing problems, summarize development status applications, look toward future directions bioelectrocatalysis. First, structure, function, modification bioelectrocatalysts discussed. Second, essentials bioelectrocatalytic systems, including transfer mechanisms, electrode materials, medium, described. Third, application bioelectrocatalysis in fields biosensors, fuel cells, solar catalytic mechanism studies, bioelectrosyntheses high-value chemicals summarized. Finally, developments a perspective on suggested.
Language: Английский
Citations
324Advances in microbial physiology/Advances in Microbial Physiology, Journal Year: 2015, Volume and Issue: unknown, P. 55 - 321
Published: Jan. 1, 2015
Language: Английский
Citations
300ChemElectroChem, Journal Year: 2016, Volume and Issue: 3(9), P. 1282 - 1295
Published: July 12, 2016
Abstract The core of primary microbial electrochemical technologies (METs) is the ability electroactive microorganisms to interact with electrodes via extracellular electron transfer (EET), allowing wiring current flow and metabolism. Geobacter sulfurreducens Shewanella oneidensis are model organisms for understanding engineering EET. Many other reported being but often sparsely characterized. Based on a literature survey 94 species ascribed as electroactive. Their apparent diversity raises questions natural importance distribution EET capacity, that is, ecological niche electroactivity. To identify this potential environmental preferences habitat characteristics all were combined their metabolic, growth an extensive meta‐analysis performed. results indicate there not single microorganisms. Significantly more presumably exist in nature well already existing strain collections due cultivation techniques leveraged. Thus, light specific traits required industrial application, resource mining based knowledge bears great broadening foundation electrochemistry future developments METs.
Language: Английский
Citations
290Current Opinion in Biotechnology, Journal Year: 2014, Volume and Issue: 27, P. 88 - 95
Published: Jan. 3, 2014
Language: Английский
Citations
281