Physicist Jun Ye Won the 2026 Wolf Prize
The Boulder-based scientist earned the international honor for his groundbreaking research in atomic physics.
Updated on Oct. 5, 2026 in Physics
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Physicist Jun Ye has been awarded the 2026 Wolf Prize in Physics for his pioneering work in controlling ultracold atomic systems. He shares the $100,000 international honor with Immanuel Bloch of the Max Planck Institute of Quantum Optics.
Why it matters
The award recognizes significant advances in the control of ultracold atomic systems, which are foundational to modern quantum physics. This recognition highlights the critical contributions of Boulder-based research to the global scientific landscape.
The prize honors the development of optical atomic clocks using ultrastable lasers and the precise control of laser-trapped atoms. This recognition builds on decades of experimentation at the National Institute of Standards and Technology and JILA.
The players
Jun Ye
He is a distinguished physicist at the National Institute of Standards and Technology and JILA who has made major contributions to quantum science.
Immanuel Bloch
He is a physicist at the Max Planck Institute of Quantum Optics who shares this year's Wolf Prize in Physics.
The details
Jun Ye, a prominent scientist at the National Institute of Standards and Technology and JILA in Boulder, earned the prestigious distinction for his expertise in quantum control. His work has fundamentally improved the precision of atomic clocks and the manipulation of cold atoms.
Timeline
1967: Jun Ye was born in Shanghai.
1989: Ye immigrated to the United States.
1992: Ye joined JILA.
2022: Ye received the Breakthrough Prize in Fundamental Physics.
2026: Jun Ye won the Wolf Prize in Physics.
Deeper Dive
This award aligns with the 2022 Breakthrough Prize in Fundamental Physics, further cementing Ye's status as a leader in atomic research. His success follows the trajectory of high-level validation for quantum control research globally.
Advancements in optical atomic clocks and quantum control serve as the backbone for future technologies like hyper-precise GPS navigation and global communication networks. These scientific breakthroughs eventually enable more stable infrastructure for digital and technological daily services.
The takeaway
The recognition of these atomic systems underscores the vital importance of basic physics research in developing next-generation measurement tools. Readers should note that advancements in laboratory precision often precede widespread integration into consumer and industrial technologies.
Further reading
For more on the latest research in the field, explore our Physics section.
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