Modern additive manufacturing generates massive amounts of data, yet most decisions—from parameter selection to defect diagnosis—still rely heavily on human expertise. Our research aims to bridge this gap by developing AI systems that continuously learn from multimodal sensor data, understand the underlying manufacturing physics, and autonomously optimize printing processes. The result is a new generation of intelligent manufacturing systems capable of producing higher-quality parts with greater efficiency, reliability, and scalability.
We develop computer vision and multimodal sensing algorithms that continuously monitor the printing process, detect defects as they emerge, and provide real-time insights into build quality. By integrating optical, thermal, acoustic, and photodiode data, our models enable early anomaly detection and process understanding.
Self-Correcting Additive Manufacturing with Large Language Models
AI Saves 3D Prints (CMU News, 2026)
LLM-based real-time process correction
AMGPT: Large Language Models for Additive Manufacturing
Additive Manufacturing, 2025
Learning-based Defect Detection for LPBF
Melt pool monitoring
Surface defect classification
Vision-based inspection
Photodiode-Based Intelligent Monitoring
Process monitoring using optical sensing
In-situ quality prediction
We develop computer vision and multimodal sensing algorithms that continuously monitor the printing process, detect defects as they emerge, and provide real-time insights into build quality. By integrating optical, thermal, acoustic, and photodiode data, our models enable early anomaly detection and process understanding.
Printer Foundation Models
Cross-machine representation learning
Manufacturing foundation models
Pretraining for Manufacturing Intelligence
Large-scale manufacturing representation learning
Transfer Learning Across AM Systems
Domain adaptation for new materials and machines
We develop manufacturing-specific large language models that assist engineers in process planning, parameter optimization, failure diagnosis, and knowledge retrieval. These AI copilots combine manufacturing expertise with reasoning capabilities to accelerate design, troubleshooting, and decision-making.