Research Overview

Coupling Direct Air Capture (DAC) with CO2 Reduction Reaction (CO2RR) technology allows for the capture of diluted CO2 from the atmosphere and its conversion into value-added materials.

 

We leverage electrochemical and photoelectrochemical techniques to transform atmospheric CO2 into useful products, advancing sustainable carbon neutrality solutions.

 

Read more about our research

Vision Statement

We are committed to advancing sustainable energy through groundbreaking research in carbon capture and conversion. Our vision is to develop cutting-edge electrochemical and photochemical processes, combining artificial intelligence with experimental methods, to transform CO₂ into valuable materials. This approach fosters circular carbon systems and supports the development of net-zero energy technologies. By bridging fundamental science with practical solutions, we aim to empower the next generation of scientists to build a cleaner, more resilient future.

Research Goals

Develop Advanced CO₂ Capture and Conversion Technologies: Design and optimize electrochemical and photochemical methods for efficient and selective CO₂ capture and conversion, leveraging AI-driven approaches to enhance catalyst discovery and process efficiency.

Engineer Scalable Solutions: Bridge fundamental research with scalable technologies to enable industrial implementation of carbon capture and utilization systems.

Create High-Value Products from CO₂: Focus on transforming captured CO₂ into fuels, chemicals, and materials that support a circular economy.

Enhance Energy Efficiency: Innovate processes that leverage renewable energy sources, minimizing energy input while maximizing carbon utilization.

Impact

Through innovative experimental technologies, we aim to significantly reduce greenhouse gas emissions and drive the transition to sustainable energy systems and circular economies. While our approach is fundamentally experimental, AI is leveraged to enhance catalyst discovery, process optimization, and accelerate the development of effective solutions.

We advance energy and storage by designing cutting-edge materials and processes that improve energy efficiency, reduce fossil fuel dependence, and integrate seamlessly with renewable energy. With AI supporting experimental research, we optimize material performance and process efficiencies. Aligned with ESG principles, our work drives decarbonization, resource efficiency, and long-term environmental sustainability.


                 Scientific Visualization

Designing Heterogeneous Electrocatalysts for CO₂ Conversion in Flow Cells
Optimizing Heterogeneous Electrocatalysts for CO₂ Conversion in Flow Cells.
Scalable Membrane Electrode Assemblies for Efficient CO₂ Electroconversion.
Electrocatalytic CO₂ Reduction: Advancing from Fundamental Principles to Catalyst Design.
Immobilization Strategies for CO₂ Electroreduction: Integrating Molecular and Material Catalysts.
Electrografting Strategies for Synergistic Hybrid Electrocatalytic Systems in CO₂ Coversion.

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