From Procedures to Knowledge Graphs (2026)
Compared vision-based and layout-aware AI approaches for turning complex procedure documents into structured knowledge graphs that can support search, validation, and reuse.
Design for Operability • Human-AI Collaboration • Trustworthy Infrastructure AI
I’m a Ph.D. student in Civil and Environmental Engineering at Carnegie Mellon University.
My research focuses on human-AI collaboration for making infrastructure systems easier to design, operate, and reason about.
View my CV for more details.
I study how AI can make infrastructure systems easier to design, operate, and reason about by connecting procedures, design decisions, incident knowledge, and real-time conditions.
Designing AI systems that help people interpret complex conditions and make traceable decisions without replacing human judgment
Helping teams move from early design concepts to operationally useful details while keeping decisions and assumptions visible
Representing procedures, equipment, past incidents, and design choices as connected knowledge that AI can retrieve and explain
Supporting high-stakes infrastructure work without hiding uncertainty or removing human responsibility from final decisions
Compared vision-based and layout-aware AI approaches for turning complex procedure documents into structured knowledge graphs that can support search, validation, and reuse.
Developing a human-AI design refinement system that helps teams move from conceptual PFDs toward more detailed P&IDs while tracking decisions, assumptions, and open questions.
Building BuildLink, a prototype that helps operators connect procedures, live system conditions, and past incident evidence. A nuclear power plant abnormal-operation scenario is used as the first case study.
Developed a dataset of 101,381 images to improve the detection of hanging objects on construction sites, addressing safety challenges in lifting operations.
Developed a predictive model using fine-tuned GPT and saliency visualization to analyze 15,000 construction accident records. Achieved 82% accuracy in classifying six accident types, demonstrating AI’s potential to enhance safety management.
Developed an audio-visual multimodal model to accurately recognize and monitor concurrent activities of multiple equipment in tunnel construction projects. The model enhances operational efficiency by integrating spatial and temporal contexts, achieving an F-score of 96.3% in real-world data testing.
Developed a sensor-based model for recognizing worker activities without the need for individual re-training. Achieved 78.64% accuracy using a variational-denoising autoencoder, outperforming existing benchmarks.
Developed a data-driven approach to detect slip, trip, and fall hazards by analyzing workers’ loss of body balance using wearable sensors and GPS-based location mapping.
| Jul 2026 | Presented my work at PSAM 18 |
| Jun 2026 | Joined Idaho National Laboratory as a Summer Research Intern |
| Feb 2026 | Selected as a Claire and John Bertucci Fellow in Engineering |
| Aug 2025 | Selected as a CUAHSI Hydroinformatics Innovation Fellow |
| Jul 2025 | Participated in DesignSafe SPARC Program |
| Apr 2025 | Selected as a Chishiki-AI Fellow |
| Mar 2025 | Presented my poster at CMU Energy Week |
| Feb 2025 | Passed my Ph.D. qualifying exam |
| Aug 2024 | Joined HMHI at CMU |
I’m always happy to connect about research, collaboration, or related ideas.