Irvine Student Won Scholarship for Quantum Research

Alexander Miller received a $25,000 Davidson fellowship for his work on quantum error mitigation.

Updated on Oct. 9, 2026 in Quantum Computing

Close-up of a gold-plated quantum processor chip inside a cryogenic mounting assembly, highlighting intricate metal wiring and silicon layers. — Irvine student Alexander Miller earned a $25,000 Davidson fellowship for developing a new method to reduce quantum computing errors. AI Illustration. Upload story photo >

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Do you believe quantum computing research will significantly improve your life in the coming years?

Irvine resident Alexander Miller, 18, earned a $25,000 Davidson scholarship for developing a new method to reduce quantum computing errors. His research, titled Random Inverse Depolarizing Approximation, outperformed leading existing methods in extensive testing.

Why it matters

Quantum computers struggle with reliability due to frequent hardware errors, making Miller's efficient error mitigation method a significant step toward more stable computing. His work addresses a fundamental bottleneck in the scalability of next-generation quantum technology.

The Random Inverse Depolarizing Approximation method developed by Miller estimates noise rates by rerunning half of a calculation and reversing the process. This approach produced fewer errors than two other leading methods across 100,000 test cases.

The players

Alexander Miller

An 18-year-old Irvine student and 2026 Davidson Fellow who specializes in quantum error mitigation research.

Stanford University

A private research university in California where Miller plans to pursue his studies in computer science and physics.

The details

Miller spent six months during his junior year of high school developing the RIDA method to improve quantum reliability. Beyond this research, Miller has demonstrated academic achievement as a Regeneron Science Talent Search Scholar and a medalist in the USA Physics Olympiad.

Miller spent six months during his junior year of high school developing his project.
He was named a 2026 Davidson Fellow.
He will begin his freshman year at Stanford University in the fall of 2026.

The Tech Race

Miller's research contributes to the broader objective of achieving fault-tolerant quantum computing by overcoming the significant hurdle of inherent hardware noise. His work aligns with the global effort to replace error-prone NISQ-era hardware with more reliable quantum systems.

While current advancements remain in the research phase, more reliable quantum computing will eventually lead to breakthroughs in areas like cryptography and drug discovery. For students and tech enthusiasts, Miller's journey highlights the opportunities available through dedicated scientific research at the high school level.

The takeaway

Innovation in complex fields like quantum computing is increasingly driven by young researchers focusing on specific, modular improvements to existing infrastructure. Aspiring scientists can look to Miller’s six-month experimentation process as a blueprint for translating theoretical curiosity into impactful research.