Researcher

The petitioner proposes to develop and enhance computational tools and algorithms to improve the efficiency and safety of chemical processes. This work focuses on applying advanced modeling to carbon management strategies and industrial decision-making to support environmental sustainability and economic competitiveness.

The petitioner proposes to develop innovative materials and device designs for chemical conversion technologies, specifically focusing on CO₂ capture and conversion. This work aims to enable CO₂ to serve as a raw material for chemicals, polymers, and building materials, facilitating a transition to a carbon-neutral economy. The research provides less energy-intensive pathways for producing carbonates while reducing reliance on fossil fuels.

The petitioner proposes to develop advanced mathematical models, simulations, and optimization techniques to build more efficient, economical, and sustainable chemical processes. His work specifically focuses on evaluating the techno-economic feasibility of next-generation power systems, including supercritical CO2 cycles and hydrogen-based storage systems. This endeavor aims to support clean energy generation and storage to modernize the U.S. energy grid and reduce environmental impact.

The petitioner proposes to develop advanced heterogeneous catalysts, recyclable materials, and green fuels to accelerate the transition to clean energy. Her work focuses on designing sustainable materials that improve the efficiency and affordability of renewable energy systems while reducing greenhouse gas emissions. She utilizes methodologies such as NMR spectroscopy to enhance the landscape of innovation in materials chemistry.