Opening a New Educational AI Paradigm
Building a truly intelligent educational ecosystem centered on learners, transcending the limitations of existing AI tutors.
Limitations of Current Approaches
- ●Focus solely on algorithmic performance, failing in real educational interactions.
- ●Inadequate response to unpredictable questions, generating only generic feedback.
- ●Lack of deep understanding of the ultimate beneficiaries of technology - the 'learners'.
Paradigm Shift in This Research
- ●Shifting perspective from Tutor-Centric → Learner-Centric.
- ●Verifying educational effectiveness using 'high-fidelity student agents'.
- ●Accelerating technological advancement by shortening the hypothesis-experiment-verification cycle from months to days.
Organic Collaboration Model: Consortium
Building a world-class AI education platform centered on four axes that maximize each institution's core capabilities.
Cheju Halla University
Student Agent Modeling
Laying the foundation for research by providing realistic virtual learner environments.
Saltlux
AI Engine & Platform
Developing powerful AI engines and platforms that serve as the brain of the tutor.
Yonsei University
LLM Tutor Agent
Interacting with virtual learners and advancing educational strategies.
KAIST
Evaluation & Verification
Precisely measuring and providing feedback on the educational effectiveness of interactions.
Core Technologies by Institution
Achieving project goals through detailed research plans and core technologies that each institution specializes in.
Implementation of 'Living' Virtual Learners
Developing dynamic digital twins that simulate real learners' behavior, cognition, and emotions in real-time.
- Knowledge Tracing (KT) and Explainable KT (XKT): Enhancing Transformer models and visualizing reasoning evidence through SHAP, GRAD-CAM, etc., to ensure transparency.
- LLM-based Virtual Student Agents: Sophisticated modeling of various personas and misconception patterns such as 'overconfident students' and 'hesitant students'.
- Multimodal Learning Analytics (MMLA): Integrating gaze, biometric signals, etc., to infer real-time states like confusion, boredom, and distraction, and reflect them in agent behavior.
Integrated Research Flow Centered on Student Agents
Beyond simple role division, maximizing the completeness of research outcomes through organic feedback loops.
Step 1: Simulation Environment Provision
Step 2: Development and Evaluation Environment Integration
Step 3: Integrated Results Analysis and Feedback
Step 4: Data-driven Simultaneous Model Improvement
Details
Click on each step to see detailed explanations.
AI Tutor Strategy Simulator
Simulating expected effects based on various student personas and AI tutor questioning strategies.
Expected Impact
Technological, industrial, national, and social changes that this research will bring.
(Technology) Innovative Research Environment
Testing numerous hypotheses safely, quickly, and at low cost through 'complete digital twins' of educational environments.
(Industry) EdTech Ecosystem Contribution
Providing 'standardized verification environments' to shorten technology development cycles for startups and reduce market entry barriers.
(National) Global Competitiveness
Leading global performance verification standards in the field of 'trustworthy educational AI'.
(Social) Building Trust in Educational Settings
Increasing social acceptance of AI technology by presenting data-based concrete evidence.