Our research explores innovative strategies in the design of metal-organic frameworks (MOFs) for electrocatalysis, focusing on enhancing product selectivity and conductivity in electrochemical CO₂ reduction. We develop advanced MOF catalysts with tailored metal coordination environments, which are designed to stabilize key reaction intermediates and facilitate targeted product formation. By investigating the electronic properties and structural dynamics of these catalysts, we aim to optimize charge transfer and increase electrochemical reaction efficiency. This approach underscores the potential of fine-tuning MOF structures to address critical challenges in catalytic performance, including selectivity, durability, and overall reaction efficiency.
Our research focuses on developing advanced electrocatalysts to address the growing challenge of CO₂ emissions, a major contributor to global warming and extreme weather events. We are exploring the use of two-dimensional materials due to their high surface-to-volume ratio and potential for ion intercalation, which can enhance conductivity and efficiency in CO₂ reduction processes. Specifically, we investigate the intercalation of potassium ions into MoS₂ layers to improve its electrochemical performance alongside Molecular Dynamics (MD) simulations to understand the intercalation mechanism and its impact on CO₂ reduction efficiency. We aim to optimize the electronic properties and catalytic behavior of 2D materials, advancing their potential as a cost-effective and environmentally friendly electrocatalyst for sustainable carbon capture and conversion technologies.
Our research aims to develop an integrated electrochemical process for simultaneously recycling carbon fiber and CO₂, addressing the growing need for sustainable recycling of carbon fiber-reinforced polymers (CFRPs) used in various industries. We propose an innovative approach that combines controlled electrochemical delamination of the polymer matrix with CO₂ reduction, converting CO₂ directly into valuable hydrocarbons or synthetic fuels. This method operates under mild conditions, offering a more economically viable and environmentally friendly alternative to traditional chemical recycling methods. By combining expertise in materials recycling, CO₂ reduction, and process modeling, our work supports the transition to a circular and carbon-neutral economy.
Our research aims to advance CO₂ electrochemical conversion by developing innovative porous electrodes to enhance selectivity, efficiency, and durability in CO₂ reduction reactions (CO₂RR). Current challenges in CO₂ conversion technologies include low performance and economic viability, which we address through a multifaceted approach combining advanced manufacturing, surface modification, and computational modeling. We are exploring novel synthesis techniques to create structured electrodes with tailored microstructures and surface chemistries, optimizing their catalytic properties for CO₂RR. By integrating experimental and computational methods, we aim to understand how electrode design influences mass transport and reaction kinetics, ultimately guiding the development of efficient and selective CO₂ conversion technologies that support a sustainable, carbon-neutral economy.