I will be attending CVPR'25 from June 11-15 at the Music City Center in Nashville, TN to present PUP 3D-GS and Speedy-Splat at the main conference! Here are my scheduled appearances so far:
My fellow PhD students, Alex Hanson and Yuanyuan Zhou, will also be attending. They are accomplished and approachable machine learning researchers who will be graduating soon and are actively seeking postdoctoral or industry positions. Feel free to reach out if you'd like to connect!
I am a second-year graduate student in Computer Science at the University of Maryland, College Park advised by Professor Tom Goldstein. I transferred to the PhD program in Spring 2025 after completing my BS/MS in Computer Science in 2024.
I am broadly interested in the intersection of deep learning, computer vision, and graphics. My recent work focuses on 3D scene reconstruction, and I am currently funded by the IARPA Walk-through Rendering from Images of Varying Altitude (WRIVA) program. Additionally, I have research and teaching experience in multimodal biometric recognition, large language models, vision encoders, generative adversarial networks, image quality metrics, and visualization recommendation.
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Speedy Deformable 3D Gaussian Splatting: Fast
Rendering
and Compression of Dynamic Scenes
Preprint, 2025.
Achieve 10.38× faster rendering, 7.71× smaller model size, and 2.71× shorter training
time for dynamic 3D Gaussian Splatting representations through temporal
sensitivity pruning and flow-based Gaussian grouping.
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Accelerate 3D Gaussian Splatting rendering speed by over 6× and reduce model size
by over 90% through accurately localizing primitives during rasterization and pruning
the
scene during training, providing a significantly higher speedup than existing techniques
while maintaining competitive image quality.
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Prune 90% of primitives from any pretrained 3D Gaussian Splatting model using a
mathematically principled sensitivity score, more than tripling rendering speed while
retaining
more salient foreground information and higher visual fidelity than previous techniques
at a substantially higher compression ratio.
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Predict and Aggregate [1, 2] improves the CMC and ROC performance of the SOTA face recognition system by an empirical upper bound of 11.54% at the evaluation thresholds. |
Biometric Recognition and Identification at Altitude and Range (IARPA BRIAR)
Systems & Technology Research (STR), 2022-2025.
I researched face recognition, body recognition, and multimodal fusion for our SOTA system.
Ask me about:
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* denotes equal contribution.
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Reviewer
NeurIPS, IEEE TCSVT |