Research Consortia
Seoul National University - Standford University
Research Project
  • Global C2H Research Center
Consortium Members
Type Domestic Institution International Institution
Lead Seoul National University Stanford University
Partner Pohang University of Science and Technology Massachusetts Institute of Technology
Northwestern University
University of Chicago
Commissioned Korea University
Research Summary
Purpose
  • Establish a multi-institutional global joint research center for original technology development and demonstration, with participation from top-tier Korean and U.S. researchers.
  • Develop original technologies with broad applicability capable of achieving high energy conversion efficiency throughout the entire C2H (CO₂ to Hydrogen) cycle.
Research Content
  • Create added value by integrating technologies traditionally developed separately under either the carbon reduction cycle or the hydrogen cycle.
  • Identify and connect core technologies including CO₂ capture, conversion, storage, production, and utilization, and construct a unified research platform and plan.
Consortium Features
Domestic Institution
  • Advanced catalyst interface analysis technology and mechanistic research capabilities at the global top level.
  • Holds cutting-edge techniques for atomic-level catalyst reconstruction using transmission electron microscopy (TEM) and simulations, with publication in Science.
International Institution
  • End-to-end CO₂ capture and conversion solutions, from fundamental technology to commercialization.
  • Possesses synthetic fuel technology with higher selectivity compared to domestic standards.
  • Operates one of the world’s most advanced platforms for CO₂ capture and conversion.
Outcomes, Applications & Expected Impact
Research Outcome Utilization
  • Establish a catalyst design methodology and modularization strategy by identifying reaction mechanisms in CO₂ capture/conversion and hydrogen production/utilization.
  • Develop core business technologies through continued integration and comparative analysis of technologies, ultimately implementing the full C2H cycle.
Industry Impact via Joint Research
  • Modularize key technologies developed through this project to support broad application across hydrogen utilization and carbon neutrality fields.
  • Promote the creation of new derivative industries by tailoring key technologies to industry-specific demands and enabling selective adoption.
Researchers (PI)
  • Jungwon Park Professor(Associate Professor)
    Seoul National University
    Main research areas
    • Development of carbon dioxide conversion catalyst
    • Development of catalyst for hydrogen storage and utilization
    • Analysis of energy storage material reaction behavior
    • Analysis of fuel cell material reaction behavior
    • Analysis of materials based on transmission electron microscope
  • Byoung-Hoon Lee Professor(Assistant Professor)
    Korea University
    Main research areas
    • Energy materials design and synthesis
    • Water electrolysis and fuel cells
    • Carbon capture and conversion
    • Photo/electrochemical catalysis
    • Next-generation lithium-based batteries
  • Jennifer Dionne Professor(Professor)
    Stanford University
    Main research areas
    • Biophotonics: Machine learning and nanophotonics for label-free molecular-to-cellular detection
    • Active and electro-optically-tunable nanophotonics
    • Photocatalysis: Electrifying the Chemical Manufacturing Industry
    • Extreme energy-shifting nanoparticles: Upconversion and Scintillation
    • Structural Characterization of nanomaterials
  • Alan Hatton Professor(Professor)
    Massachusetts Institute of Technology
    Main research areas
    • Development of electrochemical carbon dioxide capture materials
    • Development of air-based carbon dioxide capture systems
    • Carbon dioxide sequestration
    • Development of electrochemical wastewater purification systems
    • Synthesis of catalytic nanoparticles and structures
  • Edward Sargent Professor(Professor)
    Northwestern University
    Main research areas
    • Electrochemical capture of carbon dioxide
    • Synthesis of fuel materials through carbon dioxide conversion
    • Development of high-efficiency solar cells based on perovskite tandem cells
    • Development of UV, IR optical sensors
    • Development of new materials for optoelectronic devices based on machine learning
  • Paul Alivisatos Professor(Professor)
    University of Chicago
    Main research areas
    • Machine learning-based nanomaterials research
    • Synthesis and properties of nanoparticles
    • Development of III-V group semiconductor nanocrystals
    • Spectroscopy and structural studies of colloidal nanocrystals
    • Quantum information science using scalable materials