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# Akhil Puttabanthi

**Headline:** Graduate Research Assistant
**Profession:** Graduate Research Assistant
**Location:** &lt;UNKNOWN&gt;, &lt;UNKNOWN&gt;, &lt;UNKNOWN&gt;

## About

Akhil Puttabanthi is a data science graduate and Graduate Research Assistant at the University of New Haven, where he develops multi\-stage machine\-learning pipelines for medical\-image segmentation\. Akhil’s strongest areas are end\-to\-end ML pipeline development, SQL, machine\-learning model building, systematic failure analysis, and uncertainty quantification\. His current research includes a manuscript in preparation for the IEEE Journal of Biomedical and Health Informatics describing a co\-authored 3D brain\-tumor segmentation pipeline evaluated on the BraTS 2021 dataset of 1,251 cases\. The pipeline achieved a mean Dice score of 0\.8625 and outperformed the published MICCAI baseline across whole tumor, tumor core, and enhancing tumor sub\-regions while using a single\-model cascade rather than six\-model ensembling\. Akhil designed the two\-stage 3D U\-Net\-to\-SegResNet cascade on NVIDIA A100 GPUs, introduced stochastic bounding\-box perturbation to improve robustness, and conducted size\-stratified failure analysis and Monte Carlo Dropout uncertainty evaluation\. He is focused on strengthening his technical foundation through individual\-contributor work while independently owning execution and collaborating with teammates on strategic decisions\.

## Highlights

- Co\-authored a 3D brain\-tumor segmentation pipeline on the BraTS 2021 dataset of 1,251 cases a manuscript is in preparation for the IEEE Journal of Biomedical and Health Informatics\.
- Achieved a mean Dice score of 0\.8625 for brain\-tumor segmentation, outperforming the published MICCAI baseline across whole tumor, tumor core, and enhancing tumor sub\-regions\.
- Delivered the performance using a single\-model cascade rather than six\-model ensembling\.
- Designed a two\-stage deep\-learning cascade combining 3D U\-Net and SegResNet for medical\-image segmentation\.
- Developed and ran the pipeline on NVIDIA A100 GPUs\.
- Introduced stochastic bounding\-box perturbation to reduce train\-test distribution mismatch and improve Stage 2 robustness to imperfect tumor localization\.
- Performed the first systematic size\-stratified failure analysis for ROI\-based brain\-tumor segmentation\.
- Identified a 0\.077 Dice\-score gap between small and large tumors, directly informing model\-improvement priorities\.
- Implemented Monte Carlo Dropout uncertainty quantification, achieving a QU\-BraTS score of 0\.840\.
- Demonstrated an uncertainty\-performance correlation of r = −0\.801, supporting reliable uncertainty estimation for clinical\-deployment scenarios\.
- Built experience across Python, PyTorch, MONAI, NVIDIA A100, RunPod, and BraTS 2021\.
- Owns end\-to\-end technical work across model building, evaluation, failure analysis, and iterative improvement\.

## Experience

- **Graduate Research Assistant at University of New Haven** (2026\-01\-01–2026\-05\-01) — Manuscript in preparation for IEEE Journal of Biomedical and Health Informatics \- co\-authored 3D brain tumor segmentation pipeline on BraTS 2021 \(1,251 cases\) achieving mean Dice 0\.8625, outperforming the published MICCAI baseline across WT, TC, and ET tumor sub\-regions using a single\-model cascade instead of six\-model ensembling\. Designed a two\-stage deep learning cascade \(3D U\-Net → SegResNet\) on NVIDIA A100 GPUs, introducing stochastic bounding box perturbation to reduce train–test distribution mismatch and improve Stage 2 robustness against imperfect tumor localization\. Performed the first systematic size\-stratified failure analysis for ROI\-based brain tumor segmentation, identifying a 0\.077 Dice gap between small and large tumors and directly informing model improvement priorities\. Implemented Monte Carlo Dropout uncertainty quantification achieving QU\-BraTS score of 0\.840 with r = −0\.801 uncertainty–performance correlation, demonstrating reliable uncertainty estimation suitable f

## Education

- Master's degree, Data Science — University of New Haven (2024\-01\-01–2026\-01\-01)
- Bachelor's Degree, Computational Science — CVR College of Engineering, Hyderabad (2020\-01\-01–2024\-01\-01)
- Master of Science, Data Science — University of New Haven (2024\-01\-01)

## FAQ

### What does Akhil do?

Akhil is a Graduate Research Assistant at the University of New Haven\. He builds multi\-stage machine\-learning pipelines for medical\-imaging segmentation on large datasets, with work spanning model development, evaluation, failure analysis, and uncertainty quantification\.

### What are Akhil’s strongest technical skills?

Akhil’s strongest technical skills are building ML pipelines, SQL, and machine\-learning models\. His research work also demonstrates experience with medical\-image segmentation, systematic failure\-mode analysis, and uncertainty quantification\.

### What is Akhil working on at the University of New Haven?

At the University of New Haven, Akhil co\-authored a 3D brain\-tumor segmentation pipeline for BraTS 2021\. A manuscript describing the work is in preparation for the IEEE Journal of Biomedical and Health Informatics\.

### What results did Akhil’s BraTS 2021 segmentation pipeline achieve?

Akhil’s pipeline was evaluated on the BraTS 2021 dataset of 1,251 cases and achieved a mean Dice score of 0\.8625\. It outperformed the published MICCAI baseline across whole tumor, tumor core, and enhancing tumor sub\-regions, while using a single\-model cascade instead of six\-model ensembling\.

### How did Akhil design the brain\-tumor segmentation pipeline?

Akhil designed a two\-stage deep\-learning cascade that uses a 3D U\-Net followed by SegResNet\. He developed the pipeline on NVIDIA A100 GPUs and introduced stochastic bounding\-box perturbation to reduce train\-test distribution mismatch and improve Stage 2 robustness when tumor localization is imperfect\.

### How does Akhil use failure analysis to improve models?

Akhil performed the first systematic size\-stratified failure analysis for ROI\-based brain\-tumor segmentation in this work\. The analysis identified a 0\.077 Dice\-score gap between small and large tumors and directly informed priorities for model improvement\.

### How does Akhil use uncertainty quantification?

Akhil implemented Monte Carlo Dropout uncertainty quantification for the segmentation pipeline\. The approach achieved a QU\-BraTS score of 0\.840 and an uncertainty\-performance correlation of r = −0\.801, supporting reliable uncertainty estimation for clinical\-deployment scenarios\.

### What technologies does Akhil use?

Akhil’s research stack includes Python, PyTorch, MONAI, NVIDIA A100 GPUs, RunPod, and the BraTS 2021 dataset\.

### What is Akhil’s educational background?

Akhil holds a Master’s degree in Data Science and a Master of Science in Data Science from the University of New Haven\. He also holds a Bachelor’s Degree in Computational Science from CVR College of Engineering in Hyderabad\.

### How does Akhil approach ownership and collaboration?

Akhil independently owns technical execution and iteration, from model building through evaluation and failure analysis\. He collaborates with his team on strategic decisions and balances focused technical work with regular team check\-ins to exchange ideas\.

### What are Akhil’s professional development goals?

Akhil wants to strengthen his technical foundation through individual\-contributor work before considering leadership roles\. He is motivated by high\-impact data problems and focuses on improving models through more than surface\-level accuracy metrics\.

## Links

- LinkedIn: https://www\.linkedin\.com/in/akhil\-puttabanthi

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