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Mae Hwee Teo

Mae Hwee Teo

Physicist and ML/AI leader bridging theory and applied ML

mae
San Francisco, California
Joined November 2025
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UC Berkeley Affiliates

Summary

Expertise in theoretical/astrophysical particle physics with a focus on blackā€‘hole superradiance and light bosonic fields. Her PhD dissertation (Stanford 2020) and multiple INSPIRE/ arXiv listings document analytic calculations of superradiant growth rates for vector particles, constraints from blackā€‘hole spin measurements, and prospects for gravitationalā€‘wave detection. stanford+2
Transitioned from academic theory to quantitative and applied roles in industry: public professional records list a quantitative research internship at Citadel (2019) followed by a quantitative researcher role (2020ā€“2023), a gardenā€‘leave period, and a move into ML/AI leadership at NationGraph beginning in 2025. This indicates capability in quantitative modeling, dataā€‘driven research, and applied machine learning leadership. linkedin
Active educator and mentor: maintained teaching roles while at Stanford (teaching assistant and instructor for SPCS Relativity) and held lecturer roles (UC Berkeley listed on professional profile). These experiences reflect strengths in explaining advanced physics topics to both university and preā€‘college audiences. stanford+1
Collaborative researcher with a sustained publication record: INSPIRE and ORCID entries show multiple coauthored papers across gravitational physics, particle/astroparticle phenomenology, and contributions to collaborations (e.g., SeaQuest/experimental collaborations listed among literature). inspirehep+1

Work

Education

Projects

Writing

Black hole superradiance signatures of ultralight vectors (PhD dissertation)

January 1, 2020

Doctoral dissertation analyzing superradiant growth rates for vector fields around rotating black holes, implications for constraints on light vector particles, and prospects for gravitationalā€‘wave detection.

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Light axions with large hadronic couplings (coauthored work)

January 1, 2018

Representative research contribution in particle/astroparticle theory (coauthored work listed on INSPIRE / arXiv).

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Black hole superradiance signatures of ultralight vectors (paper / related literature)

Research publications and preprints on superradiance and related phenomenology (papers linked through INSPIRE; representative arXiv/preprint records and journal publications exist).

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