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<p>This study addresses the enhanced cycling stability of zinc-based flow batteries through a synergistic strategy integrating a vine-derived porous carbon framework (3D VPCF) with nicotinamide (NAM) in alkaline Zn-Fe hybrid liquid-solid flow batteries. By introducing 0.15 mol/L NAM to suppress zinc dendrite growth and regulate deposition behavior, combined with 0.05 mol/L ZnO additives for optimized nucleation and electrolyte conductivity, we achieved enhanced reversibility of zinc deposition/dissolution and interfacial stability. The system exhibits stable charge/discharge plateaus at 5 mA/cm<sup>2</sup> (non-normalized to electrode area), demonstrating 99.9 % capacity retention over 1000 cycles. This work provides an innovative pathway for developing stable zinc-based energy storage systems.</p>

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Achieving high cycling stability in alkaline zinc-iron flow batteries through synergy of 3D VPCF/nicotinamide and active ZnO species

  • 期刊论文

  • 发表日期：

    2025年10月1日

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  • Ning Li,
  • Jie Shao,
  • Li Gu,
  • Xue-bo Cao,
  • Jian-wei Zhao

摘要

This study addresses the enhanced cycling stability of zinc-based flow batteries through a synergistic strategy integrating a vine-derived porous carbon framework (3D VPCF) with nicotinamide (NAM) in alkaline Zn-Fe hybrid liquid-solid flow batteries. By introducing 0.15 mol/L NAM to suppress zinc dendrite growth and regulate deposition behavior, combined with 0.05 mol/L ZnO additives for optimized nucleation and electrolyte conductivity, we achieved enhanced reversibility of zinc deposition/dissolution and interfacial stability. The system exhibits stable charge/discharge plateaus at 5 mA/cm2 (non-normalized to electrode area), demonstrating 99.9 % capacity retention over 1000 cycles. This work provides an innovative pathway for developing stable zinc-based energy storage systems.