Mn/Co co-doped porous carbon material derived from self-assembly of CoPc and ZIF-11 for oxygen reduction reaction

Developing low-cost, high-performance oxygen reduction reaction (ORR) electrocatalyst plays a key role in promoting the low-carbon green production. Herein, a Mn/Co co-doped carbon-based non-noble metal electrocatalyst (NNME) with enhanced ORR performance was prepared by simply pyrolyzing the self-a...

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Veröffentlicht in:Journal of materials science 2024-06, Vol.59 (23), p.10207-10219
Hauptverfasser: Zhai, Zihui, Zheng, Ruonan, Hou, Zhaoxia
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container_title Journal of materials science
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creator Zhai, Zihui
Zheng, Ruonan
Hou, Zhaoxia
description Developing low-cost, high-performance oxygen reduction reaction (ORR) electrocatalyst plays a key role in promoting the low-carbon green production. Herein, a Mn/Co co-doped carbon-based non-noble metal electrocatalyst (NNME) with enhanced ORR performance was prepared by simply pyrolyzing the self-assembly induced complex precursor of CoPc@Mn-ZIF-11. The obtained NNME demonstrates the half-wave potential of 0.864 V (vs. RHE) in 0.1 M KOH aq., which is comparable to that of the commercial 20% Pt/C and much better than the directly pyrolysis of mechanically blended CoPc and Mn-ZIF-11 without self-assembly method. Especially, our electrocatalyst shows superior durability during accelerated durability test and methanol tolerance to commercial Pt/C in alkaline medium. As evidenced by the physical characterizations, the enhanced ORR activity should have a close relationship with the self-assembly process, which allows the well encapsulation of CoPc into the nanocages of Mn-ZIF-11, thus leading to the uniform dispersion of Mn/Co–N–C species in the carbon matrix after pyrolysis. Besides, the higher content of defects and nitrogen of the synthesized electrocatalyst by self-assembly method should be another key reason for the higher ORR activity than that of the mechanically mixed sample. Graphical abstract Self-assembled CoPc with Mn-ZIF-11 derived electrocatalyst with enhanced ORR activity than the mechanically mixed method
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Herein, a Mn/Co co-doped carbon-based non-noble metal electrocatalyst (NNME) with enhanced ORR performance was prepared by simply pyrolyzing the self-assembly induced complex precursor of CoPc@Mn-ZIF-11. The obtained NNME demonstrates the half-wave potential of 0.864 V (vs. RHE) in 0.1 M KOH aq., which is comparable to that of the commercial 20% Pt/C and much better than the directly pyrolysis of mechanically blended CoPc and Mn-ZIF-11 without self-assembly method. Especially, our electrocatalyst shows superior durability during accelerated durability test and methanol tolerance to commercial Pt/C in alkaline medium. As evidenced by the physical characterizations, the enhanced ORR activity should have a close relationship with the self-assembly process, which allows the well encapsulation of CoPc into the nanocages of Mn-ZIF-11, thus leading to the uniform dispersion of Mn/Co–N–C species in the carbon matrix after pyrolysis. Besides, the higher content of defects and nitrogen of the synthesized electrocatalyst by self-assembly method should be another key reason for the higher ORR activity than that of the mechanically mixed sample. 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subjects Accelerated tests
Carbon
Characterization and Evaluation of Materials
Chemical reduction
Chemical Routes to Materials
Chemistry and Materials Science
Classical Mechanics
Crystallography and Scattering Methods
Durability
Electrocatalysts
Materials Science
Noble metals
Oxygen reduction reactions
Polymer Sciences
Porous materials
Pyrolysis
Self-assembly
Solid Mechanics
title Mn/Co co-doped porous carbon material derived from self-assembly of CoPc and ZIF-11 for oxygen reduction reaction
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