I studied electrical engineering at Shahid Beheshti University, where I focused on control systems and optimization.
For my bachelor’s thesis, I designed a smart-grid control system that used PID controllers and KNN algorithms to
manage different energy sources efficiently.
I moved into Information and Communication Technology (ICT) for my master’s studies. During this time, I worked on
topics such as smart network optimization, machine learning, deep learning, and IoT. I completed my thesis at the
University of Cologne, where I worked on MRI calcification detection methods. This project introduced me to medical
imaging and showed me how learning-based methods can support diagnosis and treatment.
I am now a Ph.D. student working on deep learning for medical and biomedical imaging. My research involves 3D data
and microscopic images, with a focus on finding complex patterns and making the models more explainable and robust.
I am especially interested in developing reliable AI tools that can be used in real clinical settings.
Education
Ph.D., Computer Science & Engineering — University of Connecticut, USA (2023–Present)
M.Sc., Information & Communication Technology — Politecnico di Torino, Italy (2019–2022)
Graduate Research Assistant — University of Connecticut
Storrs, CT, USA · 2023 – Present
Designing a Bayesian Transformer + higher-order graph matching pipeline for cell tracking in serial tissue sections, supporting accurate 3D reconstructions for ultraplex imaging.
Developing CAPTURE and ImageReg — feature-based registration frameworks that combine SIFT/SURF-style keypoints with ResNet50 embeddings to analyze distortion and robustly align large biological image stacks.
Building reproducible evaluation pipelines, emphasizing uncertainty estimates, efficient GPU pipelines, and integration into downstream spatial analysis workflows.
Research Assistant — University of Cologne
Cologne, Germany · 2022 – 2023
Applied ML to radiomic MRI features to predict MGMT promoter methylation in glioblastoma, using 1153 Pyradiomics descriptors (including LoG and wavelet features).
Used XGBoost for feature selection and trained LR, SVM, and MLP models with nested cross-validation across FLAIR, T1w, T1Gd, and T2 sequences.
Graduate Research Assistant — Politecnico di Torino
Turin, Italy · 2021 – 2022
Modeled relationships between particulate matter exposure and CNS disease mortality (Alzheimer’s, Parkinson’s) using regression and time-series forecasting.
Processed large environmental and epidemiological datasets to estimate region-level risk and identify spatiotemporal patterns.
Developed interactive dashboards that expose model outputs to clinical and public-health collaborators.
Publications
Selected peer-reviewed publications and submissions.
2025 — Robust Training with Data Augmentation for Medical Imaging Classification.
2025 — Longitudinal Tumor Generation in Mammograms via Dual Encoder GAN and Learnable Blending.
2025 — Segmentation for Early Tumor Detection in Mammograms via Temporal Discrepancy Analysis and Dynamic Loss Weighting.
2025 — Bayesian Transformers and Higher-Order Graph Matching for Cell Tracking in Serial Tissue Sections.
2025 — ImageReg: Modular, Open-Source Toolkit for Image Registration and Alignment.
2024 — DCCNV: Enhanced CNV Detection in Single-Cell Sequencing Using Diffusion Process and Contrastive Learning.
2024 — CAPTURE: A Clustered Adaptive Patchwork Technique for Unified Registration Enhancement in Biological Imaging.
2023 — Exploring the Relationship Between Air Pollution and CNS Disease Mortality in Italy: A Forecasting Study with ARIMA and XGBoost.
2023 — Enhanced LSTM by Attention Mechanism for Early Detection of Parkinson’s Disease Through Voice Signals.
2022 — Analyzing the Network System Performance Based on the Queuing Theory Concept.
2022 — Multicast Optimization: Operational Research Theory and Applications.
2022 — Machine Learning Algorithms for Radiogenomics: Application to Prediction of the MGMT Promoter Methylation Status in mpMRI Scans.
2018 — Spam Detection from Big Data Based on Evolutionary Data Mining Systems.
Projects
3D Mammogram GNN Transformer
Graph-based Transformer architecture for 3D digital breast tomosynthesis, operating on super-voxel graphs
to capture topology and local context for early tumor detection.
Bayesian Transformer Cell Tracking
Uncertainty-aware Transformer coupled with higher-order graph matching for cell tracking in serial tissue
sections, enabling robust multi-round reconstruction and quantitative analysis.