1.W. Zhao,B. Liu,K. Zhang*,H. Yuan,Y. Zhao,J. Li,C. Tan*,B. Li. Giant Barocaloric Effect in Ni-Cu-Mn-Sn Shape Memory Alloys via Physical Descriptors Driven Design. Acta Materialia 299: 121471,2025

2.W. Li,K. Zhang*,X. Zhao,K. Li,Y. Li,W. Yin,B. Li*. New Mechanism Revealed on the Anomalous Thermal Expansion Behavior of NbO₂F. Scripta Materialia 258:116534,2025

3.X. Wang,C. Tan*,K. Zhang*,X,Tong,J. Yang,J. Wang,L. Zhao,X. Tian,J. Li,W. Zhao. High-performance and stress-controllable solid-solid phase change material for long-term thermal energy storage. Materials Today Energy,47:101744,2025

4.K. Zhang^#,X. Wang^#,H. Li,X. Zhao,G. Zhang,C. Tan*,Y. Wang*,B. Li*. Large thermal hysteresis enabled caloric batteries. Applied Energy,377:124408,2025

5.K. Zhang^#,Zhe Zhang^#,H. Pan,X. Zhao,J. Qi,Zhao Zhang,R. Song,C. Yu,B. Huang,X. Li,H. Chen,C. Tan,W. Yin,W. Hu,M. Wübbenhorst,J. Luo*,D. Yu*,Z. Zhang,B. Li*. Taming heat with tiny pressure. The innovation,5(2):100577,2024

6.L. Qu^#,M.T. Abbas^#,K. Zhang*,Zhe Zhang,T. Yang,Z. Zhang,P. Liu,J. Qi,Q. Guo,W. Li,X. Zhao,Y. Wang,Z. Zhang and B. Li*. Lithium oxides LiRO₂ (R= Rare Earth Elements) with negative thermal expansion behavior and inverse barocaloric effect.Journal of Materials Research and Technology,30: 9084-9092,2024

7.J. Yang,C. Tan*,R. Liu,X. Wang,X. Tian*,L. Zhao,K. Zhang*. Enhancing Elastocaloric Performance: Ti-Doped Co-V-Ga Bulk Polycrystalline Alloys with Minimal Stress Hysteresis. Journal of Materials Research and Technology,31:1813-1825,2024

8.X. Zhao,K. Zhang*,J. Qi,P. Liu,Zhe Zhang,L. Qu,Z. Zhang,B Li*. Low-pressure-driven barocaloric effects at colinear-to-triangular antiferromagnetic transitions in Mn_3-xPt_1+x. Microstructures 3:2023022,2023

9.K. Zhang,R. Song,J. Qi,Z. Zhang,Z. Zhang,C. Yu,K. Li,Z. Zhang,B. Li*. Colossal barocaloric effect in carboranes as a performance tradeoff. Advanced Functional Materials,32:2112622,2022

10.W. Zhao,K. Zhang*,E. Guo,X. Tian,C. Tan*. Martensitic transformation mechanism of Mg-Sc lightweight shape memory alloys. Scripta Materialia, 207:114316,2022

代表性发明专利：

1.张琨，刘懿芳，钱苏昕，李阔，李昺. “一种基于压力调控下盐溶液析出与溶解的非相变主动制冷的方法、装置及应用”

2.李伶俐，张琨，李昺. “一种磁场可控的过冷塑晶复合材料及其制备方法和储热应用”

3.张琨，王皓宇，李昺. “一种 1,6-脱水-β-D-吡喃葡萄糖材料在可控固态相变储热中的应用”

4.张琨，王皓宇，宋睿琪，李昺. “一种宽滞后形状记忆合金在应力可控储热技术中的应用”

5.张琨，刘懿芳，王延绪，李昺. “一种利用非温度场实现主动放热的储热方法及应用”

6.张琨，郁晨阳，李昺. “一种有机-无机杂化卤族化合物材料在固态制冷中的应用”

7.李昺，张琨，宋睿琪，王皓宇，张志东. “一种基于塑晶玻璃晶体相的精细化可控放热装置及放热方法和应用”

8.李昺，张琨，张志东.“一种基于玻璃晶体对压力响应实现压力传感的方法及其应用”

9.李昺，张琨，张志东. “一种基于玻璃晶体且主动可控的固态相变储热方法”

10.李昺，张琨，张志东. “一种碳硼烷材料在固态制冷中的应用”