Main Research

Published:

My research focuses on developing AI-driven multimodal medical imaging methods to investigate disease mechanisms and support precision diagnosis, with a particular emphasis on nuclear medicine, total-body PET/CT, and neurodegenerative diseases.


Highlighted Research

Top Rated Oral Presentation at EANM 2025

EANM 2025 Top Rated Oral Presentation

Multiorgan Metabolic Dysregulation in Alzheimer’s Disease:
Total-body PET/CT Reveals Systemic Network Interactions with Amyloid Burden

This study was accepted as a Top Rated Oral Presentation (TROP) and featured in the EANM Neuroimaging Committee: Innovations and Methodologies in Nuclear Neuroimaging session at the Annual Congress of the European Association of Nuclear Medicine (EANM 2025).

The work leverages total-body PET/CT to characterize systemic metabolic network interactions associated with amyloid burden in Alzheimer’s disease, highlighting methodological advances in whole-body neuroimaging beyond brain-centric analyses.


Multimodal Neuroimaging for Alzheimer’s Disease

Total-body PET/CT and metabolic network analysis for Alzheimer’s disease

I study systemic and brain-specific metabolic alterations in Alzheimer’s disease using total-body PET/CT, integrating whole-body FDG and amyloid PET imaging with network-based and machine learning approaches. This research aims to move beyond brain-only analyses by characterizing multi-organ metabolic network interactions and their associations with amyloid burden and cognitive decline.

Current topics include:

  • Construction of whole-body and brain metabolic networks from total-body PET/CT
  • Integration of FDG and amyloid PET for multilayer network analysis
  • AI-based modeling of disease-related network disruption and progression

AI-driven Multimodal Imaging for Graves’ Ophthalmopathy

FAPI PET/CT and deep learning–based multimodal fusion for Graves’ ophthalmopathy

I am also involved in developing a precision assessment and staging framework for Graves’ ophthalmopathy based on [¹⁸F]AlF-NOTA-FAPI-04 PET/CT and deep learning–based multimodal image fusion. By combining functional PET information with anatomical imaging and data-driven models, this work aims to improve quantitative evaluation, disease stratification, and clinical decision-making in orbital disease.

Current topics include:

  • Quantitative analysis of FAPI uptake in orbital tissues
  • Deep learning–based multimodal fusion of PET and CT/MR imaging
  • Automated disease staging and phenotype classification

Methodological Interests

Across these applications, I am broadly interested in methodological advances in medical image analysis and artificial intelligence, including:

  • Multimodal image registration and fusion
  • Graph-based modeling of metabolic and functional networks
  • Interpretable machine learning for clinical imaging applications