About

How real human needs shape my research—and why structure is my method, not my goal.

01 Origin

From the Wrestling Mat to Building Useful Technology

As a former ssireum (Korean wrestling) athlete, I made a late but determined leap into computer science at Pusan National University, driven by a desire to create technology that serves real industries and everyday life — technology I could call my own.

Yet the undergraduate curriculum, centered on theory from dated textbooks, couldn't quench that thirst. I threw myself into internships and startups, where hands-on projects exposed the limits of my knowledge and made the need for deeper learning painfully clear.

02 Foundation

Parsing Taught Me to Think Structurally

Searching for answers, I joined the lab of Professor Hyuk-Chul Kwon — one of Korea's first AI Ph.D.s and an authority on parsing — first as an undergraduate researcher and then as a master's student. Over two and a half intensive years of dependency parsing and neural-symbolic modeling, I learned to view language through relationships and dependencies rather than as flat sequences.[1][2]

Combining learned models with explicit linguistic knowledge gave me a habit of thinking structurally that still shapes how I approach every problem.

03 Shift

Human-Inspired AI Taught Me What Structure Should Serve

Parsing taught me to think structurally; human-inspired AI taught me what that structure should ultimately serve.

During my master’s research, parsing trained me to view language through relationships and dependencies rather than as flat sequences. After joining Korea University’s Human-Inspired AI Research, working with Prof. Heuiseok Lim and Prof. Jaehyung Seo, my perspective broadened. Through industrial QA, foundation-model adaptation, and multimodal systems, I repeatedly saw technically strong models lose practical value when they ignored conditions, flattened meaningful organization, lost provenance, or failed to preserve information across interactions.

Since then, I have approached research by starting from problems that matter in actual use, identifying the technical bottlenecks that limit their utility, and asking whether solving those bottlenecks reveals a broader scientific problem. Explicit structure remains one of my primary tools—but the goal is not structure itself. The goal is to make increasingly capable AI systems genuinely useful to the people who rely on them.

04 Research

From Real-World Needs to General Research Questions

My work follows this pattern. StyleDFS began with an industrial need: domain question answering over power-plant documents under on-premise and privacy constraints, which led to a domain-specific RAG framework.[3] In an insurance QA pilot with Samsung Fire & Marine, conditions, exceptions, and provenance were easily lost during retrieval.[4]

Those bottlenecks became general research questions. MultiDocFusion and M3DocDep preserve the hierarchical and cross-page organization of long documents;[5][6] HiKEY and PILAR select and ground the evidence a system answers from;[7][8] ADMIT controls what agents retain in memory across interactions;[9] and my current long-video work extends this from spatial document structure to temporal information.[10]

To pursue these questions beyond what a single researcher could address, I founded KUDoc, the Document AI research group at Korea University, on my own initiative. Together we have published 15 papers (including 6 first-author papers at NeurIPS, EMNLP, ACL, and CVPR) and completed 4 major industry–academia projects.

05 Vision

Human-Inspired AI for Multimodal and Agentic Systems

As AI becomes more multimodal, autonomous, and persistent, how do we ensure its capabilities continue to create value for people?

This is the question I want to pursue in my Ph.D.: how multimodal and agentic systems should represent, select, update, and verify information so that increasingly capable AI remains useful and reliable over longer interactions.

With the tenacity I learned on the wrestling mat, I intend to keep turning real human needs into research questions—and research into systems people can rely on.

Research Journey

Each step grew out of a limitation met in the previous one.

  1. 2020–2023

    Parsing & Neural-Symbolic NLP

    Learned to think structurally

    M.S. ThesisHCLT 2022

  2. 2023–2024

    Industrial AI · StyleDFS

    Real-world needs became research questions

    StyleDFS · EMNLP 2024Insurance QA

  3. 2025–2026

    MultiDocFusion · M3DocDep

    Preserve information structure

    EMNLP 2025CVPR 2026

  4. 2026

    HiKEY · PILAR

    Select and ground evidence

    ACL 2026 OralEMNLP 2026

  5. 2026

    ADMIT

    Control what agents retain

    NeurIPS 2026

  6. Ongoing

    Long-Video QA & RAG

    Extend from spatial document structure to temporal information

    Video Curation System

  7. Ph.D.

    Human-Inspired Multimodal & Agentic AI

    Keep increasingly capable AI useful and reliable for people

References

  1. A Neural-Symbolic Model for Overcoming Deep Learning Limitations in Korean Dependency Parsing. Joongmin Shin*, Hyuk-Chul Kwon. Master's Thesis, Pusan National University, 2023.
  2. A Dependency Parsing Model with Reinforced Head-Dependent Constraint Rules. Joongmin Shin*, Hyuk-Chul Kwon. HCLT 2022.
  3. Intelligent Predictive Maintenance RAG Framework for Power Plants. Seongtae Hong*, Joongmin Shin*, et al. EMNLP 2024 Industry Track.
  4. Synerpeace Pilot: Insurance Document QA. Industry Project with Samsung Fire & Marine Insurance, Korea University.
  5. MultiDocFusion: Hierarchical and Multimodal Chunking Pipeline for Enhanced RAG on Long Industrial Documents. Joongmin Shin*, Chanjun Park, et al. EMNLP 2025.
  6. M3DocDep: Multi-modal, Multi-page, Multi-document Dependency Chunking with Large Vision-Language Models. Joongmin Shin*, Jeongbae Park, et al. CVPR 2026.
  7. HiKEY: Hierarchical Multimodal Retrieval for Open-Domain Document Question Answering. Joongmin Shin*, Gyuho Shim, et al. ACL 2026 (Oral).
  8. PILAR: A Page-Grounded Unified Evidence Representation via an Entity-Linked Assertion Graph. Joongmin Shin*, Gyuho Shim, et al. EMNLP 2026 Findings.
  9. ADMIT: Support-Gated Memory-Write Admission for Document QA Agents. Joongmin Shin*, Gyuho Shim, et al. NeurIPS 2026.
  10. Video Curation System: Long-Video QA and RAG. Research Project, Korea University.