Medical Image Analysis
Deep learning for clinically meaningful classification and segmentation in CT and radiographic imaging.
Graduate researcher in medical image analysis and continual learning
I investigate how medical-imaging models can learn new diagnostic tasks without losing previously acquired knowledge. My MSc research uses abdominal CT trauma detection to separate catastrophic forgetting from deeper problems in preprocessing, representation quality, labels, and task formulation.
Deep learning for clinically meaningful classification and segmentation in CT and radiographic imaging.
Evaluating whether models retain old knowledge while acquiring new injury-detection tasks.
Replacing fixed CT window presets with differentiable, task-aware Hounsfield Unit adaptation.
Combining imaging with demographic, physiological, and structured clinical information.
A multimodal deep-learning study that achieved 92.4% accuracy using wearable and clinical information.
Open article →A weighted multimodal ensemble combining visual and textual representations for hierarchical classification.
Open on IEEE Xplore →A comparative evaluation of 82 segmentation and classification models across three labeling formats.
Open preprint →Lead-author BSc thesis work combining X-ray imagery and demographic features across eight spine conditions. The camera-ready manuscript is available while the formal proceedings record is pending.
Preliminary thesis: Continual Learning for Abdominal Trauma Detection in CT: A Task-Incremental Study of Forgetting, Windowing, and Learnability.
CSC 502 Systems for Massive Datasets (97% A+); CSC 503 Data Mining (93% A+); CSC 581B Deep Learning for Medical Image Analysis (92% A+); CSC 581C Online Learning (81% A−); CSC 595 completed.
Supervisor: Dr. Ashery Mbilinyi. Committee member: Dr. Jaya Prakash Champati.
I welcome conversations about PhD opportunities, research collaborations, and projects in continual learning, medical computer vision, and multimodal healthcare AI.
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