UC Berkeley Applied Math & CS undergraduate researching computational imaging, machine learning for scientific instrumentation, and large-scale data systems at the Space Sciences Laboratory.
I develop machine learning systems and computational methods for scientific instrumentation, with expertise spanning computer vision, distributed systems, and hardware-software co-design. My research bridges theoretical mathematics with practical implementation to solve challenging problems in astronomical data analysis and real-time transient detection.
B. Godfrey, W. Liu, N. Rault-Wang, J. Kocz, D. Werthimer
2025 United States National Committee of URSI National Radio Science Meeting (USNC-URSI NRSM), Jan. 2025, 431–431.
DOI: 10.23919/USNC-URSINRSM66067.2025.10906985N. Rault-Wang, Y. Dong, W. Liu, D. Werthimer, J. Maire, and S. Wright
PANOSETI Collaboration Meeting (Plenary Talk), San Diego, CA, United States, Jan. 2025.
DOI: 10.5281/zenodo.17388495N. Rault-Wang, et al.
2024 Assembly of the Order of the Octopus (Poster Presentation), Green Bank, WV, United States, Aug. 2024.
DOI 10.5281/zenodo.14590904Designed and implemented the first deep learning pipeline for the PANOSETI collaboration, achieving 95% classification accuracy and 0.97 average precision in automated interference detection for the project’s daily terabyte-scale datasets of wide-field, 20μs-integration optical/near-IR images.
Developed and maintained an ultra-high data rate (100k frames/sec) C++ acquisition pipeline, integrating an asynchronous gRPC API, leading several extensibility-focused refactors, and establishing a full GitHub Actions CI pipeline to validate fault-tolerance and >99.99% data integrity.
Co-designed and implemented a scalable data reduction pipeline (TensorStore, Zarr, Dask) for terabyte-scale datasets, leading technical prototyping from a self-administered 12TiB BeeGFS cluster to San Diego Supercomputer Center HPC facilities.
Proposed and prototyped an unsupervised anomaly detector using a β-Variational Autoencoder, capable of clustering Cherenkov events, noise, and stellar signals based on low-dimensional latent embeddings.
Empirically characterized the Polar Express Muon variant, evaluating its sensitivity to key hyperparameters and the extent to which it stablizes the attention mechanism in Transformer architectures.
Bachelor of Arts, double major in Applied Mathematics and Computer Science
GPA: 3.88
The following are write-ups from my CS 180 projects, each of which reproduces results from key papers in computer vision.
Awarded 1st Place (out of 18 two-person teams) in a Spring 2025 Apple-sponsored RISC-V CPU design contest in a team with Neel Gajare.
See my write-up at the link below!
I'm currently exploring PhD opportunities in computational imaging and machine learning systems. Feel free to reach out if you're interested in collaboration or discussion.