高彦峰，男，博士，研究员，博士生导师。

研究领域：

1 光热调制材料，2 多频谱隐身伪装材料， 3 特种无机高分子复合材料， 4 钠电与水系电池，5 微纳粉体的合成、表面改性与分散技术，6 热管理与节能材料

科研成果：

主要业绩和贡献：（1）突破了纳米粉体制备、表面改性和大面积涂布等关键科技难题，发明了国际首款智能节能贴膜并实现了产业化。（2）揭示了部分利用散射光发电的科技原理，发明了节能发电一体化智能窗。（3）提出了分波段调控太阳透反射的设计思路，制备了可应用于屋面、外墙和内墙等不同部位的系列粉体材料，为绿色建筑外围护部件提出了节能的总体解决方案；部分材料与企业合作在开展产业化研究。

总引用超28000，h因子88。编辑英文专著2部，为6本专业书籍各撰写1章，获邀撰写综述论文5篇。申请发明专利100余项(已授权60余项);参加并做会议报告100余次(重要国际会议特邀报告40余次)。

发表论文：

[1] Thermochromic energy efficient windows: fundamentals, recent advances, and perspectives. Chemical Reviews, 2023, 123 (11), 7025-7080.

[2] Nanoporous CaCO₃ Coatings Enabled Uniform Zn Stripping/Plating for Long‐Life Zinc Rechargeable Aqueous Batteries. Advanced Energy Materials, 2018: 8(25): 1801090.

[3] Thermochromic VO₂ for energy-efficient smart windows. Joule, 2018, 2 (9), 1707-1746.

[4] Metal-center electron affinity modulates multicolor electrochromism in 2D conjugated metal-organic frameworks. Nature Communications, 2026, 17: 8059.

[5] Evolution of Fe Single Atom in SiOC Ceramic Fibers and Their High-Temperature and Ultrathin Electromagnetic Wave Absorption. Advanced Materials, 2026, 38: e21533.

[6] Composition and phase engineering of metal chalcogenides and phosphorous chalcogenides. Nature Materials, 2023, 22 (4), 450-458.

[7] Heterodimensional superlattice with in-plane anomalous Hall effect. Nature, 2022, 609 (7925), 46-51.

[8] BiM@NC (M = Fe, Co, Ni; NC = N-Doped Carbon) Nanoplates Confined in Wood-Derived Carbon with Excellent Electromagnetic Wave Absorption Performance. Advanced Functional Materials, 2026, 36: e16772.

[9] Light/Heavy Rare Earth-Doped Mo-MXene: Excellent Electromagnetic Wave Absorption Based on Dual-Domain Synergistic Attenuation. Advanced Functional Materials, 2026, 36: e25167.

[10] In situ construction of MXene derivatives and rare metal doping in nanofibers for multifunctional and ultrathin electromagnetic responses. Advanced Functional Materials, 2025, 35 (50), e10047.

[11] Reconfigurable In–S Coordination in SPAN Cathodes: Unlocking High Sulfur Utilization and Fast Kinetics for Practical Li‒S Batteries. Advanced science, 2025, 12 (40), e07385.

[12] In situ exsolution‐prepared solid‐solution‐type sulfides with intracrystal polarization for efficient and selective absorption of low‐frequency electromagnetic wave. Advanced Science, 2024, 11 (35), 2403723.

[13] High Quality Fe1+yTe Synthesized by Chemical Vapor Deposition with Conspicuous Vortex Flow. Advanced Functional Materials, 2024, 34 (37), 2401748

[14] Water-Enhanced Multicolor Electrochromism in Nickel-Catecholate MOFs. Advanced Science, 2025, 12: 2500678.

[15] Flexible Multi-Mode Electrochromic Displays for Human Motion Monitoring and Pattern Display in Dark Environments. Exploration, 2026, 6: 20240444.

[16] Electron-withdrawing chemistry drives ultrafast-charging interphases for sodium-ion batteries. Energy & Environmental Science, 2026, 19: 4689–4700.

[17] Flexible and large-area electrochromic infrared devices with superior modulation functionality. Chemical Engineering Journal, 2025, 504: 158953.

[18] Dual-window spectrally engineered passive radiative coating for efficient year-round building thermal management. Energy, 2025, 335: 138011.

[10] High performing ferrous ion-doped phosphosilicate glass for energy-efficient windows. Chemical Engineering Journal, 2025, 511: 161985.

[11] Breaking the Specific Capacity Limit: 409% Boost in Manganese-Based Redox Flow Batteries at High Current Densities with a MnO2 Semi-Solid Slurry Electrolyte. Nano-Micro Letters, 2027, 19: 41.

[12] Advances in Mn-Based Electrode Materials for Aqueous Sodium-Ion Batteries. Nano-Micro Letters, 2023, 15: 192.

[13] Optimization Strategies of Na3V2(PO4)3 Cathode Materials for Sodium-Ion Batteries. Nano-Micro Letters, 2025, 17: 33.

[14]. High-Areal-Capacity Manganese-Based Redox Flow Batteries via Sodium Diphosphate-Modified Electrolyte. Advanced Functional Materials, 2025, 35: 2509495.

[15] Strategies to Enhance Ionic Conductivity of Na3Zr2Si2PO12 Solid Electrolyte for Advanced Solid-State Sodium Batteries. Carbon Energy, 2026, 8: e70157.

[16] Multilayer thermochromic radiative cooling smart window for building thermal regulation. Energy & Buildings, 2026, 363: 117603.

[17] Phase preconversion enables mild deep eutectic solvent leaching for efficient recycling of spent LiNixCoyMn1−x−yO2 cathodes. Review of Materials Research, 2026, 2(8): 100271.

[18] JinMei Xu, YanFeng Gao*. Research progress on green recovery technologies of valuable metals from waste lithium batteries. SCIENTIA SINICA Technologica, 2025, 55(4): 630–661. 许金妹, 高彦峰. 废锂电池中有价金属的绿色回收技术研究进展[J]. 中国科学: 技术科学, 2025, 55(4): 630-661.

[19] Enhancing Plateau Capacity of Binder-Free and Self-Supported Napkin-Based Hard Carbon Anodes for Sodium-Ion Batteries Via a Pre-Oxidation Modulation Strategy. Energy & Environmental Materials, 2026, 9: e70200.

[20] Synergistic salt-templated space confinement and N/S co-doping in asphalt-derived carbon anodes for high-rate sodium-ion batteries. Journal of Energy Storage, 2026, 179: 123921.

[21] High-performance pitch-based hard carbon for sodium-ion batteries: Introducing oxygen functional groups and regulating closed pores by adjusting pre-oxidation rate. Journal of Energy Storage, 2025, 108: 114995.

[22] Pre-sodiation strategies for constructing high-performance sodium-ion batteries. Journal of Materials Chemistry A, 2025, 13(5): 3206–3235.

[23]Photothermal-management agricultural films toward industrial planting: opportunities and challenges. Engineering, 2024, 35, 191-200

[24] Glacier Defense: A Material Science Proposal. Engineered Science, 2025, 36, 1692.

联系方式：yfgao@shu.edu.cn