At LeiLab, we focus on the design of catalysts and functional materials to address pressing challenges in energy, environment, and national security.
Our work combines atomic layer deposition (ALD), reaction engineering, and data-driven methods to enable precise control over materials at the nanoscale and translate them into scalable solutions.
We develop and test catalysts for light alkane activation, including ethane and propane. Our work focuses on improving selectivity, efficiency, and stability using atomic-scale design principles and surface science. We use tools like ALD, synchrotron X-ray techniques, and kinetic modeling to understand how nanostructures affect reaction behavior — especially in selective oxidation and dehydrogenation pathways.
Representative work:
Synthesis of Pt3Zn1 and Pt1Zn1 intermetallic nanocatalysts for dehydrogenation of ethane
Z. Gan, Z. Lu, M. Bunian, L. B. Lagria, C. L. Marshall, R. M. Banish, S. Lee, Y. Lei
Physical Chemistry Chemical Physics, 25 (2023) 7144-7153
Structure and reactivity of single site Ti catalysts for propylene epoxidation
Z. Lu, X. Liu, B. Zhang, Z. Gan, S. Tang, L. Ma, T. Wu, G. J. Nelson, Y. Qin, C. H. Turner, Y. Lei
Journal of Catalysis, 377 (2019) 419-428
In collaboration with Prof. Tingting Wu (Environmental Engineering), we develop catalysts and reactive surfaces to break down emerging water contaminants, including PFAS and pharmaceuticals. Our approach emphasizes robustness, selectivity, and compatibility with real water systems. Many of these materials are based on metal-oxide coatings applied via ALD or solution methods.
Representative work:
W Yang, M Bunian, X Chen, S Heald, L Yu, J Wen, Y Lei, T Wu
ACS ES&T Engineering, 5 (2021) 874-883
W. Yang, Z. Lu, B. Vogler, T. Wu, Y. Lei
ACS Applied Materials & Interfaces, 10 (2018) 43323-43326
We contribute to mission-driven research through the design of materials that perform reliably in extreme environments — including high temperatures, corrosive media, and rapid thermal cycling. While project details are confidential, our work often focuses on surface engineering, materials stability, and reactive layer design in collaboration with national laboratories and other research partners.
Themes include:
ALD coatings for thermal or chemical resistance
Catalyst performance under high-temperature cycling
Materials selection and modeling for rugged applications
We gratefully acknowledge the generous support from federal agencies and industrial sponsors that make our work possible. Their trust enables us to explore high-impact research in catalysis, environmental engineering, and materials for national security.