Ana Maria Rey

  • Bilayer crystals of trapped ions can be realized in devices called Penning traps, and lasers (shown in red and blue) can be used to manipulate the ions and engineer interactions between them. Such crystals may open new avenues for quantum technology applications.
    An international collaboration of physicists from India, Austria, and the USA鈥攊ncluding JILA and NIST Fellow Ana Maria Rey, along with NIST scientists Allison Carter and John Bollinger鈥攑roposed that tweaking the electric fields that trap ions can create stable, multilayered structures, opening up exciting new possibilities for future quantum technologies.
  • Atoms inside of an optical cavity exchange their momentum states by "playing catch" with photons. As the atoms absorb photons from an applied laser, the whole cloud of atoms recoil rather than the individual atoms.
    In a new paper published in Science, JILA and NIST Fellows Ana Maria Rey and James Thompson, JILA Fellow Murray Holland, and their teams proposed a way to overcome atomic recoil by demonstrating a new type of atomic interaction called momentum-exchange interaction, where atoms exchanged their momentums by exchanging corresponding photons.
  • Heising-Simons Foundation Awards $3 Million for Informing Gravity Theory
    The Heising-Simons Foundation's Science program has announced a generous grant of $3 million over three years, aimed at bolstering theoretical and experimental research efforts to bridge the realms of Atomic, Molecular, and Optical (AMO) physics with quantum gravity theories. Among the recipients, a notable grant was awarded to a multi-investigator collaboration spearheaded by the University of Colorado Boulder (蜜桃传媒破解版下载) and JILA, a joint institute of 蜜桃传媒破解版下载 and the National Institute of Standards and Technology (NIST).
  • Multilevel atoms on a superradiance potential "rollercoaster" inside an optical cavity. The system can be tuned to generate squeezing in a dark state where it will be immune to superradiance.
    Ana Maria Rey and her team discovered a method for how to not only create dark states in a cavity, but more importantly, make these states spin squeezed. Their findings could open remarkable opportunities for generating entangled clocks, which could push the frontier of quantum metrology in a fascinating way.
  • Researchers observed the dynamic phases of BCS superconductor interactions in a Cavity QED by measuring the light leakage from the cavity.
    As a thermodynamic phase of matter, superconductors typically exist in an equilibrium state. But recently, researchers at JILA became interested in kicking these materials into excited states and exploring the ensuing dynamics. As reported in a new Nature paper, the theory and experiment teams of JILA and NIST Fellows Ana Maria Rey and James K. Thompson, in collaboration with Prof. Robert Lewis-Swan at the University of Oklahoma, simulated superconductivity under such excited conditions using an atom-cavity system.
  • The Boeing Quantum Creators Prize is awarded at the annual Chicago Quantum Summit hosted by the Chicago Quantum Exchange
    Anjun Chu, a JILA graduate student, has been awarded the esteemed Boeing Quantum Creators Prize for 2023. This prestigious award, established by Boeing in 2021, celebrates early-career researchers who have significantly contributed to the advancement of quantum information science and engineering.

    Chu, a member of the theory group led by JILA and NIST Fellow Ana Maria Rey, has distinguished himself through his groundbreaking research in quantum many-body dynamics. His work, focusing on spin systems and their multilevel extensions, has been vital in exploring quantum simulation and metrology in cutting-edge areas like optical lattice clocks and cavity QED systems.
  • Ana Maria Rey
    U.S. President Joe Biden has awarded 232聽Senior Executive Service (SES), Senior-Level (SL), and Scientific and Professional (ST) members across 31 government agencies with the prestigious Presidential Rank Award. Of these individuals, JILA and NIST Fellow Ana Maria Rey has been recognized within the Department of Commerce for her work in precision measurement and quantum physics.
  • Higher accuracy atomic clocks, such as the 鈥渢weezer clock鈥 depicted here, could result from linking or 鈥渆ntangling鈥 atoms in a new way through a method known as 鈥渟pin squeezing,鈥 in which one property of an atom is measured more precisely than is usually allowed in quantum mechanics by decreasing the precision in which a complementary property is measured.
    JILA and NIST Fellow Ana Maria Rey and JILA Fellow and NIST Physicist Adam Kaufman have both been recently featured in an article for聽IEEE Spectrum.聽In a pair of聽Nature聽papers, Rey and Kaufman both demonstrated the phenomena of spin-squeezing to reduce noise in their quantum systems. "All objects that follow the rules of quantum physics can exist in multiple energy states at once, an effect known as superposition," explains the聽IEEE Spectrum聽article.聽"Spin squeezing reduces all those possible superposition states to just a few possibilities in some respects, while expanding them in others."
  • Higher accuracy atomic clocks, such as the 鈥渢weezer clock鈥 depicted here, could result from linking or 鈥渆ntangling鈥 atoms in a new way through a method known as 鈥渟pin squeezing,鈥 in which one property of an atom is measured more precisely than is usually allowed in quantum mechanics by decreasing the precision in which a complementary property is measured.
    Opening new possibilities for quantum sensors, atomic clocks and tests of fundamental physics, JILA researchers have developed new ways of 鈥渆ntangling鈥 or interlinking the properties of large numbers of particles. In the process they have devised ways to measure large groups of atoms more accurately even in disruptive, noisy environments.

    The new techniques are described in a pair of papers published in聽Nature.聽JILA is a joint institute of the National Institute of Standards and Technology (NIST) and the University of Colorado Boulder.
  • A compilation of researchers and the research/outreach led by JILA's PFC
    The JILA Physics Frontiers Center (PFC), an NSF-funded science center within JILA (a world-leading physics research institute), has recently been awarded a $25 million grant after a re-competition process.

    This science center brings together 20 researchers across JILA to collaborate to realize precise measurements and cutting-edge manipulations to harness increasingly complex quantum systems. Since its establishment in 2006, the JILA PFC鈥檚 dedication to advancing quantum research and educating the next generation of scientists has helped it to stand out as the heart of JILA鈥檚 excellence.
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