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The MagLab is funded by the National Science Foundation and the State of Florida.

Five Ways the MagLab Is Advancing Quantum Science

Published April 14, 2026

Illustration of quantum phenomena

The National High Magnetic Field Laboratory plays a critical role in global quantum research. Using the strongest continuous and pulsed magnetic fields on Earth, the MagLab allows scientists to observe quantum phenomena that govern how matter behaves at the most fundamental level.

Contact: Kristin Roberts

TALLAHASSEE, Fla. — Here are five ways the MagLab is advancing quantum research.

  1. Identifying Materials for Quantum Computing
    Researchers at the MagLab study how different materials behave under extreme conditions to find candidates that can store and process quantum information, including potential building blocks for quantum bits (qubits). By revealing which materials can reliably maintain delicate quantum states, they help lay the foundation for future quantum computers.
  2. Developing Quantum Sensors
    The MagLab is helping create ultra-sensitive sensors that rely on quantum effects to detect tiny changes in electronic signals, magnetic fields, temperature, or pressure. These sensors could enable breakthroughs in medicine, navigation, and materials science by measuring signals that were previously undetectable.
  3. Defining the Quantum Limits of Superconductivity
    Scientists use the lab’s powerful magnets to explore how and why certain materials conduct electricity with zero resistance and when and how superconductivity breaks down. Experiments at the lab have helped reveal unexpected behaviors—such as superconductivity disappearing and then reappearing at higher fields. This work helps determine the fundamental limits of superconductivity and could guide the development of more efficient energy systems and advanced technologies.
  4. Confirming and Measuring Quantum Phenomena
    The MagLab provides the tools needed to observe and verify unusual quantum behaviors, some of which have only been predicted in theory. For instance, recent work has revealed new particle-like behavior in insulating materials and uncovered 4D quantum electron tunneling in a material. By measuring these effects with high precision, researchers can deepen our understanding of how the quantum world really works.
  5. Designing and Building New Tools for Quantum Exploration
    Engineers and scientists at the MagLab continually develop cutting-edge magnets and experimental tools that make quantum discoveries possible. These innovations expand the range of conditions researchers can explore, opening the door to entirely new areas of quantum research.

The quantum future… brought to you by powerful magnets.


Last modified on 14 April 2026

The National High Magnetic Field Laboratory is the world’s largest and highest-powered magnet facility. Located at Florida State University, the University of Florida and Los Alamos National Laboratory, the interdisciplinary National MagLab hosts scientists from around the world to perform basic research in high magnetic fields, advancing our understanding of materials, energy and life. The lab is funded by the National Science Foundation (DMR-2128556) and the State of Florida. For more information, visit us online at nationalmaglab.org or follow us on Facebook, Twitter, Instagram and Pinterest at NationalMagLab.