Our Research

Our lab translates advances in medical imaging, data science, and artificial intelligence into practical tools for understanding cancer, supporting radiotherapy, and enabling scalable clinical research.

Research Areas

Advanced Imaging

We develop and apply imaging methods to better understand cancer tissue properties, treatment response, and radiation therapy data. Our work emphasizes imaging approaches that can support clinical research and improve interpretation of disease and treatment effects.

Radiation Oncology Informatics

We build systems that organize, process, and visualize radiation oncology data, including imaging, treatment plans, dose distributions, structures, and clinical metadata. These tools help make complex treatment information more accessible for research and clinical review.

Artificial Intelligence and Data Science

We develop AI-enabled workflows for imaging analysis, segmentation, data visualization, and clinical decision support. Our goal is to apply artificial intelligence in ways that are practical, interpretable, and useful for oncology research.

Research Computing Infrastructure

We design and operate scalable computing systems that support large-scale imaging, AI, and clinical informatics workflows. This infrastructure enables reproducible research pipelines, GPU-enabled analysis, and efficient collaboration across research teams.

Research Computing Infrastructure

The Savjani Lab develops and operates research computing infrastructure that supports imaging, artificial intelligence, radiation oncology informatics, and large-scale clinical data workflows. This environment enables automated data processing, GPU-enabled analysis, reproducible pipelines, and collaboration across multidisciplinary research teams.

Brain Metastases Data Lake

A structured research data lake that organizes clinical, imaging, radiation therapy, and outcomes data for patients with brain metastases. The platform supports cohort discovery, longitudinal analysis, imaging review, treatment-response studies, and downstream AI and informatics research.

Scalable Compute and Storage

A distributed CPU/GPU research computing environment enables high-throughput imaging, treatment planning, segmentation, and clinical data workflows, supported by more than 300 TB of shared storage.

Workflow and Automation

Automated pipelines help retrieve, validate, process, and organize clinical and imaging data into standardized, analysis-ready formats.

Reproducible Research

Containerized tools, shared storage, and structured workflows support reproducible analysis across projects, datasets, and multidisciplinary research teams.

Research Infrastructure

Built to support large-scale oncology research, our data infrastructure connects clinical systems, imaging archives, radiation therapy data, workflow automation, and scalable computing into a unified research environment.

416 CPU Cores

2.5 TB System Memory

14 GPUs
1 TB Aggregate GPU Memory

200 TB Shared Storage