Ligand effect of PdRu on Pt‐enriched surface for glucose complete electro‐oxidation to carbon dioxide and abiotic direct glucose fuel cells DOI

Yichi Guan,

Dezhi Su,

Yan Zhang

et al.

ChemSusChem, Journal Year: 2024, Volume and Issue: unknown

Published: July 18, 2024

Abstract The development of advanced electrocatalysts for the abiotic direct glucose fuel cells (ADGFCs) is critical in implantable devices living organisms. ligand effect Pt shell‐alloy core nanocatalysts known to influence electrocatalytic reaction interfacial structure. Herein, we reported synthesis ternary Pt@PdRu nanoalloy aerogels with PdRu on Pt‐enriched surface through electrochemical cycling. optimized electronic structure exhibited high mass activity and specific about 450 mA mg −1 1.09 cm −2 , which were 1.4 1.6 times than that commercial Pt/C. Meanwhile, have higher stability comparable In‐situ FTIR spectra results proved oxidation followed CO‐free pathway mechanism part products are CO 2 by completed oxidation. Furthermore, ADGFC ultrathin anode catalyst layer showed a much power density 6.2 mW Pt/C (3.8 Mw ). To simulate blood cell, integrated membrane electrode assembly was exposed solution steady‐state open circuit approximately 0.6 V achieved optimizing concentration cell system.

Language: Английский

Eco-friendly Functionalization of MWCNTs with Deep Eutectic Solvents DOI
Jemilat Yetunde Yusuf, Hassan Soleimani, Lee Kean Chuan

et al.

Inorganic Chemistry Communications, Journal Year: 2024, Volume and Issue: 163, P. 112282 - 112282

Published: March 15, 2024

Language: Английский

Citations

0

Ligand effect of PdRu on Pt‐enriched surface for glucose complete electro‐oxidation to carbon dioxide and abiotic direct glucose fuel cells DOI

Yichi Guan,

Dezhi Su,

Yan Zhang

et al.

ChemSusChem, Journal Year: 2024, Volume and Issue: unknown

Published: July 18, 2024

Abstract The development of advanced electrocatalysts for the abiotic direct glucose fuel cells (ADGFCs) is critical in implantable devices living organisms. ligand effect Pt shell‐alloy core nanocatalysts known to influence electrocatalytic reaction interfacial structure. Herein, we reported synthesis ternary Pt@PdRu nanoalloy aerogels with PdRu on Pt‐enriched surface through electrochemical cycling. optimized electronic structure exhibited high mass activity and specific about 450 mA mg −1 1.09 cm −2 , which were 1.4 1.6 times than that commercial Pt/C. Meanwhile, have higher stability comparable In‐situ FTIR spectra results proved oxidation followed CO‐free pathway mechanism part products are CO 2 by completed oxidation. Furthermore, ADGFC ultrathin anode catalyst layer showed a much power density 6.2 mW Pt/C (3.8 Mw ). To simulate blood cell, integrated membrane electrode assembly was exposed solution steady‐state open circuit approximately 0.6 V achieved optimizing concentration cell system.

Language: Английский

Citations

0