Research Expertise

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1. Low-Carbon Ironmaking and Green Metallurgy

I am dedicated to advancing low-carbon and sustainable ironmaking technologies, with a focus on hydrogen-based reduction and green steelmaking. My research explores the intricate dynamics of carbon interactions, coke reactivity, and metallurgical processes in low-carbon environments. By developing innovative methods to reduce CO₂ emissions, I aim to contribute to a greener, more sustainable future for the global steel industry.

2. Computational Materials Science

My work harnesses the power of advanced computational techniques like molecular dynamics (MD), reactive molecular dynamics (ReaxFF), and density functional theory (DFT) to delve into the atomic-scale mechanisms driving metallurgical systems. These cutting-edge tools allow me to model complex reactions in ironmaking, slag chemistry, and carbon materials, offering novel insights to optimize processes and design next-generation materials.

3. Renewable Energy Applications

Incorporating renewable resources into metallurgical processes is a key focus of my research. By investigating the pyrolysis and gasification of biomass-derived materials such as lignin, I aim to unlock their potential as sustainable energy sources. Using molecular simulations, I explore catalytic effects and reaction pathways to facilitate cleaner, more efficient energy solutions that align with global sustainability goals.

4. Innovative Ironmaking Processes

My research extends beyond theory to practical industrial applications, providing solutions for real-world challenges in metallurgy. From simulating particle dynamics in direct reduction furnaces to optimizing blast furnace operations, I strive to bridge the gap between fundamental research and engineering practice. My work includes contributions to innovative processes like HIsmelt, supporting the steel industry’s transition to efficient, low-carbon, and economically viable production methods.