Jun Ye

Press Clipping: JILA and NIST Fellow Jun Ye's Nuclear Clock Research Featured in Scientific American

Submitted by kennac on

JILA and NIST Fellow Jun Ye and his team's revolutionary work on nuclear clock technology was recently highlighted in a feature by Scientific American. The article delves into the creation of the world’s first nuclear clock, developed in Boulder, Colorado, which builds upon decades of research into precision timekeeping. Nuclear clocks, which rely on the ticking of atomic nuclei rather than atomic electrons, promise to surpass the precision and accuracy of current atomic clocks, which have set the standard for international timekeeping for decades.

Press Clipping: JILA and NIST Fellow Jun Ye's Breakthrough in Nuclear Clock Research Featured by CNN

Submitted by kennac on

In a recent CNN article, groundbreaking research led by JILA and NIST Fellow Jun Ye and his team was highlighted for its remarkable advancements in nuclear clock technology. The article emphasized how their work builds upon the pioneering efforts of scientists who embedded thorium-229 into crystals in 2023, allowing for enhanced signal tracking by suppressing noise from nuclear decay.

Press Clipping: JILA and NIST Fellow and CU Boulder Professor Jun Ye and Team highlighted in "Quanta Magazine"

Submitted by kennac on

Jun Ye, a JILA and NIST Fellow and CU Boulder Professor of Physics, and his team have made headlines in Quanta Magazine for their groundbreaking work on nuclear timekeeping. Graduate student Chuankun Zhang led the team in observing a thorium-229 nuclear transition—an elusive process that could redefine how we measure time.

JILA and NIST Fellow and CU Boulder Physics Professor Jun Ye's Research Highlighted in Recent "Physics World" Article

Submitted by kennac on

JILA's recent advancements in the precision of strontium optical lattice clocks have garnered significant recognition, with Physics World Magazine highlighting their achievement. The research team from JILA and the University of Colorado, Boulder, has set a new record in measuring the frequency of an optical lattice clock with an unprecedented systematic uncertainty of 8.1 × 10⁻¹⁹. This level of precision is equivalent to a fraction of a second over the entire universe age, underscoring the importance of this development in the field of atomic clocks.