We are honored to announce our successful collaboration with the School of Physics and Electronic Engineering, Harbin Normal University (Key Laboratory for Photonic and Electronic Bandgap Materials, Ministry of Education) and the Department of Physics, Harbin Institute of Technology. Our high-performance melamine foam served as a critical template material for synthesizing advanced electrocatalysts, contributing to groundbreaking research published in top-tier international journals Journal of Energy Chemistry(Volume 105, pp. 292-301) and Energy Storage Materials(Volume 76, Article 104147).
- Material Innovation and Application
The unique open-pore structure and high surface area of our melamine foam enabled the synthesis of two-dimensional high-entropy oxide nanosheets (2D HEO nanosheets) with precisely controlled morphology and enhanced catalytic properties.
The material’s thermal stability and tunable pore structure provided an ideal platform for developing La₀.₇₁Sr₀.₂₉(Fe₀.₁₉Co₀.₂₀Ni₀.₂₀Zn₀.₁₉Mn₀.₂₂)O₃‑δ (HE-LSMO) nanosheets, which demonstrated exceptional electrocatalytic performance in lithium-sulfur batteries.
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- Exceptional Wide-Temperature Performance
The collaboration achieved remarkable results across extreme temperature conditions (-35°C to 50°C):
High-temperature performance (50°C):
- Initial capacity: 1455.9 mAh g⁻¹
- Capacity retention: 71.1% after 100 cycles
Low-temperature performance (-35°C):
- Initial capacity: 740.7 mAh g⁻¹
- Capacity retention: 90.4% after 100 cycles
- Advanced Mechanism Insights
The research team employed sophisticated characterization techniques and theoretical calculations to reveal the fundamental mechanisms behind the improved performance:
Density functional theory (DFT) calculations confirmed strengthened dipole-dipole interactions between the high-entropy oxides and polysulfides, significantly accelerating sulfur reduction reaction kinetics while suppressing the shuttle effect.
- Distinguished Research Team
This groundbreaking research was led by Professor Xitian Zhang and Professor Lili Wu from Harbin Normal University, in collaboration with Professor Zhiguo Zhang’s team at Harbin Institute of Technology. The research team included outstanding young scientists Xinyue Wang, Lirong Zhang, and Chi Zhang as first authors.
- Material Advantages and Collaboration Opportunities
Our melamine foam offers unique advantages for advanced materials research:
- Adjustable pore structure for tailored material synthesis
- Excellent thermal stability for high-temperature processing
- Cost-effective solution for large-scale applications
We invite research institutions and universities worldwide to explore collaboration opportunities in:
- Energy storage materials development
- Catalytic material synthesis
- Environmental remediation technologies
- Advanced battery systems
Contact Information
For collaboration inquiries or technical information, please contact:
- Email: danny@tebeineng.com
- wangjingquan@sccjxcl.com
- Phone: +86 18683719199
Let’s advance materials science together through innovative industry-academia collaboration!
Appendix: Publication Details
- Wang, X.; Zhang, L.; Zhang, C. et al. J. Energy Chem.2025, 105, 292-301.
- Zhang, C.; Wang, X.; Jin, Q. et al. Energy Storage Mater.2025, 76, 104147.
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