- AI-driven Automated Attack Response Strategy Generation System
- Development of Value-Added Resource Conversion Technology for Waste Plastic Pyrolysis Products
- Development of Wearable Neuromorphic Heterogeneous Integration Platform for SPAD-fNIRS-Based Pain Signal Quantification
- Identification of Novel Disease Markers Using Depression Patient-Derived iPSCs
- Development of Sustainable and Highly Functional Polymer Synthesis and Application Technologies for Future Mobility Regulatory Compliance
- AI-driven Discovery of Targeted Protein Degraders — CRBN-based Molecular Glue Degraders
- Ultra-Low-Latency Storage-Driven I/O Subsystem for Large Language Models
- Intelligent E-Skin Foundry Platform
- Korea Sustainable Hybrid Intensification for Fractionation Technology (K-SHIFT)
- kaist_prj10
- ARC-H2: Autonomous Robotics-driven Catalysts for Hydrogen with High Durability
- PFAS-free Research Initiative for Macromolecular Energy materials (PRIME)
- Center for Divertor Science and Innovation in Fusion Energy (D-SINE)
- Quantum teleportation with quantum dot photons of different colors using a system of PIC and ASIC
- Development of AI-Based Super-Gap Core Technology for Next-Generation Eco-Friendly Free-Form Displays
- Net-zero Seawater Refinery; An AI-Based Integrated Refinery Platform for Carbon Capture and Resource Recovery from Seawater
- Transcendent Material Innovation of Phase Transition Artificial Muscles for Soft Robotics
- Development of an AX-based Intelligent Disaster Prevention Platform for Ultra-Safe SMR Construction Against Extreme External Hazards
- nEAR-LINK Initiative: In-Ear Affective BCI-AI Research Network
- Center of AI-BASE (Brain Architecture, Simulation & Engineering)
- Spin-based Neuromorphic/Quantum Hardware Platform
- Green Carbon Capture via AI-assisted Chloroplast DNA Editing
- Digital Health Technologies for Prediction and Intervention in Neurodegenerative Diseases
- Development of AI-Biofoundry Integrated Platform for Rapid On-Site Detection of Polycarbonate Microplastics and BPA Upcycling
PFAS-free Research Initiative for Macromolecular Energy materials (PRIME)
Keyword Keyword
OBJECTIVE Objectives
We aim to develop key polymer materials for batteries/fuel cells and validate them in industry-level devices, using a high-efficiency platform based on AI-assisted material design with continuous synthesis and automated analysis for the Physical AI era
INTRODUCTION Director's Message
Hello.
I am Bumjoon Kim, Director of the PRIME research group.
As global PFAS regulations take effect, the core materials behind advanced
energy industries are facing a structural crisis, such as batteries and hydrogen.
Overcoming the limits of fluorine-based materials unreplaced for decades is a
key task for the technological independence and global market leadership of
national industries.
To address these demands, our research group aims to solve this challenge
through a new materials development approach that combines AI-assisted
design with continuous synthesis and automated analysis. By building an
integrated platform covering materials design to device validation, we aim to
secure PFAS-free polymer material development technologies and apply them to
batteries and fuel cells, strengthening the global competitiveness of national
core industries.
Centered around KAIST, we also provide a convergent research environment
that brings together the polymer synthesis expertise of the Korea Research
Institute of Chemical Technology (KRICT) and the battery/fuel cell validation
infrastructure of the Korea Institute of Science and Technology (KIST). Our goal
is to become a global research hub for both world-class research outcomes
and individual career growth.
InnoCORE fellows, in particular, will plan and carry out the entire research cycle
including AI-assisted material design, continuous synthesis with automated
analysis, and device demonstration. Through systematic career support, such as
student mentoring and securing independent research projects, we will help
fellows grow into world-class independent researchers with excellent research
achievements and capabilities.
We sincerely appreciate your interest as we take on this new challenge toward
an energy materials innovation.
Thank you.
IMPACT Impact
● Growth of National Core Industries: Strengthening the global competitivenessof key industries such as batteries and fuel cells
● PFAS-free Materials Self-Reliance: Securing a technological leadership through a PFAS-free materials development platform
● Academia-Research Institute Convergence Researcher Development: Fostering industry-leading convergence talents with experience ranging from material development to device demonstration
TALENT Ideal Talent
● An integrated talent who directly plans and executes the entire research cycle, including polymer design and synthesis, AI-assisted material development, continuous synthesis and automated analysis, and device demonstration.
● A convergent talent who connect knowledge and infrastructure across the KAIST-KRICT-KIST partnership, creating synergy that bridges fundamental materials development and industrial validation