Quantum-Inspired AI researcher specializing in deep learning architectures for spatiotemporal forecasting, autonomous robotics, and resilient power systems.
I am a Ph.D. candidate in Electrical Engineering at Chung Yuan Christian University (CYCU), Taiwan, ranked #1 in core courses including Machine Learning & Deep Learning and Quantum Algorithms.
My research focuses on quantum-inspired AI for resilient power systems β designing advanced spatiotemporal forecasting models for renewable energy and extreme weather events such as typhoons. I build end-to-end pipelines on NVIDIA A100/H100 HPC clusters using CUDA-Q, cuQuantum, PyTorch, and Lightning.
I am an NVIDIA Academic Grant recipient and co-author with the NVIDIA AI Technology Center (NVAITC), with over 7 years of combined research and industry experience spanning autonomous robotics, computer vision, NLP, and cloud-scale AI deployments.
Design and implementation of QNN/QLSTM hybrid quantum-classical architectures for forecasting and optimization, run exclusively on CUDA-Q.
End-to-end pipelines for wind speed, solar GHI, and typhoon track/intensity forecasting on NVIDIA A100/H100 HPC and cloud platforms.
Real-time object detection, facial recognition, autonomous navigation, and scene understanding deployed within ROS on edge hardware.
Multilingual NLP for smart speakers and call centers (Thai, Tagalog, Chinese, English); LLM-based prediction workflows with BERT and beyond.
Scalable AI workloads on AWS, Google Cloud, and NVIDIA Metropolis β with hands-on deployment experience on A100/H100 GPU clusters.
AI-driven solutions for renewable energy forecasting and grid resilience for wind farms and solar power systems, published in IEEE TPS and Applied Energy.
Open to research collaborations, industry partnerships, speaking invitations, and consulting in AI, quantum computing, and energy systems.