Adam Kaufman

  • Mathew Norica
    Dr. Matthew Norcia, a member of JILA鈥檚 extensive alumni network, has been awarded the prestigious 2024 International Union of Pure and Applied Physics (IUPAP) Early Career Scientist Prize in Atomic, Molecular, and Optical Physics. The IUPAP Early Career Scientist Prize honors early career physicists for their exceptional contributions within specific subfields, offering recognition through a certificate, medal, and monetary award.
  • Adam Kaufman photo
    JILA Fellow, NIST Physicist, and University of Colorado Boulder Physics Professor Adam Kaufman has been honored with a prestigious 2024 Friedrich Wilhelm Bessel Research Award by the Alexander von Humboldt Foundation.
  • JILA graduate student Aaron Young
    Aaron Young, a recently graduated Ph.D. student in the lab of JILA Fellow, NIST Physicist, and University of Colorado Boulder Physics Professor Adam Kaufman, has been awarded the prestigious 2024 Deborah Jin Award for Outstanding Doctoral Thesis Research in Atomic, Molecular, or Optical Physics by the American Physical Society (APS) for his work done at JILA. The award was announced in Fort Worth, Texas, at the 2024 55th Annual Meeting of the APS Division of Atomic, Molecular, and Optical Physics (DAMOP).
  • boson sampling
    We recently demonstrated a new architecture for programmable control of Hubbard systems of neutral atoms. Here we used this platform to prepare and control systems of up to 180 particles. We study how their dynamics realize the boson sampling problem, originally formulated for photonics.
  • Atoms in an optical lattice perform a "quantum walk" where they experience many different quantum phenomena, such as superposition or tunneling.
    JILA Fellow and NIST Physicist and University of Colorado Boulder Physics Professor Adam Kaufman and his team, along with collaborators at NIST (the National Institute of Standards and Technology), have demonstrated a novel method of boson sampling using ultracold atoms (specifically, bosonic atoms) in a two-dimensional optical lattice of intersecting laser beams.
  • Aaron defended!
    After ~six very productive years, Aaron defended and graduated (on Nov. 1, 2023)! Congratulations Dr. Young! We are sad to see you go but very excited for your next adventure in the Greiner group!
  • omg-architecture
    Our paper demonstrating the omg-architecture and mid-circuit operations in Ytterbium-171 has been published in PRX. Congratulations to the team!
  • 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).
  • 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.
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