The hydrogen production through enzymatic route using robust organic electrocatalyst graphite Flake-L.Rubellus

This study aims to provide low cost active organic catalyst support. Graphite flake improve L.Rubellus hydrogen concentration from 69896 ppm to 8788 ppm in 7200 seconds electrolysis. The functional group, phase, electroactivity, and morphological characterizations performed to reveal the catalytic mechanism. The characterization unveils the kinetics of the catalyst was depends on the L.Rubellus acidification and morphology. The microstructure bumps, porosity, and graphite flake micro-scaled slits support generates asymmetric microfluidic flow (AMF). Both microstructures cooperatively weaken the water intermolecular bond on the passing saltwater ion cluster. Therefore, the developed electrocatalyst improve the water splitting rate without the involvement of metal.

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Publication Details

Journal
Case Studies in Chemical and Environmental Engineering
Published
2024-11-08
DOI
https://doi.org/10.1016/j.cscee.2024.101007
Citations
1
Primary Topic
Hydrogen Storage and Materials
Type
article
Field-Weighted Citation Impact
0.12
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article

The hydrogen production through enzymatic route using robust organic electrocatalyst graphite Flake-L.Rubellus

Purnami Purnami, Willy Satrio Nugroho, Femiana Gapsari, I.N.G. Wardana et al.
1 citations
Case Studies in Chemical and Environmental Engineering
Hydrogen Storage and Materials
0.12
article

The hydrogen production through enzymatic route using robust organic electrocatalyst graphite Flake-L.Rubellus

Purnami Purnami, Willy Satrio Nugroho, Femiana Gapsari, I.N.G. Wardana, Sukarni Sukarni, T. A., Anwar Johari, Indra Mamad G
article en
1 citations

Abstract

This study aims to provide low cost active organic catalyst support. Graphite flake improve L.Rubellus hydrogen concentration from 69896 ppm to 8788 ppm in 7200 seconds electrolysis. The functional group, phase, electroactivity, and morphological characterizations performed to reveal the catalytic mechanism. The characterization unveils the kinetics of the catalyst was depends on the L.Rubellus acidification and morphology. The microstructure bumps, porosity, and graphite flake micro-scaled slits support generates asymmetric microfluidic flow (AMF). Both microstructures cooperatively weaken the water intermolecular bond on the passing saltwater ion cluster. Therefore, the developed electrocatalyst improve the water splitting rate without the involvement of metal.

Case Studies in Chemical and Environmental EngineeringVol. 10
State University of Malang (ID), Indonesia University of Education (ID), University of Brawijaya (ID), University of Technology Malaysia (MY)
Openalex Percentile: Top 58%
Hydrogen Storage and Materials
0.12
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