Jun Maruyama
Has grant
Head, Advanced Carbon Materials Laboratory
Research Interests
Explore related searches
Contact this professor
Get a free first email built on one of their papers, ready for you to edit and send yourself.
About
Dr. Jun Maruyama is the Head of the Advanced Carbon Materials Laboratory at the Osaka Research Institute of Industrial Science and Technology in Japan. His research focuses on advanced materials for electrochemical applications, with recent work exploring the role of manganese oxide nanosheets in water oxidation and the enhancement of oxygen evolution reactions using carbon-based catalysts. His publications include studies on the evolution of porous carbon materials and their applications in supercapacitors and catalysis.
Recent Grants
Grant: Close
Synthesis and application of carbon materials with helically-aligned nanopores and chiral spaces
Open Date: 2021-04-01
Close Date: 2025-03-31
Grant: Close
代替再生可能燃料としてのアンモニアの新合成ルートと新触媒
Open Date: 2021-04-01
Close Date: 2024-03-31
Grant: Close
発達した規則的細孔を有する黒鉛化炭素垂直配向電極の作製
Open Date: 2018-04-01
Close Date: 2021-03-01
Grant: Close
原子レベルで高分散規則配列した金属を含有する炭素系電極触媒の活性・汎用性向上
Open Date: 2018-04-01
Close Date: 2021-03-31
Grant: Close
Generation of catalytic activity for hydrogen evolution at carbonaceous materials
Open Date: 2013-04-01
Close Date: 2016-03-31
Articles (11)
Year:
2025
Year:
2024
Year:
2023
Year:
2023
Photosystem II is nature's solution for driving the oxygen evolution reaction to oxidize water. A manganese‐oxide cluster is this protein's active center for water splitting, while the most efficient man‐made catalysts are costly noble metal‐based oxides. Facing the climate change, research on affordable and abundant electrocatalysts is crucial. To mimic the biological solution, manganese oxide nanosheets are synthesized and deposited on highly‐oriented pyrolytic graphite. This electrocatalyst is then examined with spectroscopic and electrochemical measurements, electrochemical noise scanning tunneling microscopy, and density functional theory calculations. The detailed investigation assigns the origin of its enhanced water‐splitting performance to detected activity at the nanosheet edges which the proposed mechanism explains further. Therefore, the results provide a blueprint for how to design efficient electrocatalysts for water oxidation with abundant materials.
Year:
2023
Year:
2023
Year:
2023
Year:
2022
Year:
2022
Year:
2022
Year:
2022
Collaborators (4)
Egill Skúlason
-
Takeharu Yoshii
Assistant Professor
Tohoku University
Fumito Tani
Kyushu University
Aliaksandr Bandarenka
W3 Professor (Associate)
Ludwig-Maximilians-Universität München
Make your next move.
Prepare your application
Review drafts before you send them.