Fazle Rafsani is a Computer Science Ph.D. student at Arizona State University and a graduate research assistant at the ASU-Mayo Center for Innovative Imaging (AMCII). His research focuses on developing computer vision, deep learning, and generative modeling methods for medical image analysis—spanning supervised, weakly-supervised, self-supervised, and unsupervised lesion segmentation, detection, and classification. He also explores large language models and diffusion-based architectures to advance multimodal understanding and improve healthcare outcomes through AI. He serves as a reviewer for several leading conferences and journals in his field.
PhD in Computer Science (ongoing)
Arizona State University
Master in Computer Science
Arizona State University
BSc in Computer Science and Engineering
Bangladesh University of Engineering and Technology (BUET)
Fazle Rafsani’s research centers on advancing foundation and generative models for medical image analysis, with a focus on improving automated diagnosis and interpretability in healthcare. As a Ph.D. student and research associate at the ASU-Mayo Center for Innovative Imaging (AMCII), his work integrates computer vision, deep learning, and multimodal learning to analyze complex medical imaging data such as MRI and CT scans.
His contributions include developing DinoAtten3D, a slice-level attention aggregation framework that enhances 3D brain MRI anomaly classification, and AnoFPDM, a diffusion-based anomaly detection method that removes the need for pixel-level supervision. Through NIH- and DoD-funded projects, he applies foundation models like BioMedCLIP and MedSAM to tasks such as headache subtype prediction and thyroid nodule segmentation, emphasizing model interpretability through Grad-CAM-based biomarker visualization.
Rafsani’s research bridges cutting-edge vision transformers, contrastive learning, and diffusion models to create scalable, data-efficient solutions for neurological disorder diagnosis. His work has appeared in top venues including ICCV, IEEE TMI, and Nature Scientific Reports, reflecting both scientific innovation and translational impact toward clinically explainable AI systems in medical imaging.
Presented my research work on APTH headache classification using DinoAtten3D framework
Presented my research work on Anomaly Detection using DinoV2 for Brain MRI