NSF funds National Quantum Nanofab

Aug. 21, 2024
In case you missed it this summer, the U.S. National Science Foundation (NSF) is investing $20M to create a quantum nanofabrication facility at the University of Colorado (CU) in Boulder—to accelerate co-design and development of atomic-photonic quantum devices.

The goal of this timely move by NSF is to create an open-access national facility for academic, government, and industrial users to enable quantum device fabrication, characterization, and packaging essential to advancing applications ranging from quantum computers and networks to sensing to communications.

Why is this a big deal? A huge knowledge gap currently exists about how to manufacture the quantum devices of the future that involve fundamentally small quantum particles such as photons and atoms, but new fabrication techniques at the nanoscale are essential.

The National Quantum Nanofab (NQN), led by Scott Diddams, a professor in CU’s Department of Electrical, Computer and Energy Engineering, is intended to be a maker space where you can get access to cutting-edge instruments and collaborate on the design, fabrication, process development, and integration challenges encountered with quantum devices crafted from neutral atoms and ions that are interfaced and addressed with optical photons, in environments that may involve high vacuum and cryogenic temperatures.

Atomic-photonic quantum devices are crucial for enabling technologies such as quantum computing and networks, atomic clocks, electric and magnetic field sensors, and inertial sensors.

What types of nanofabrication needs will the NQN address? Among them: nonlinear optics, chip-integrated narrow linewidth lasers, integrated modulators and frequency shifters, visible wavelength integrated photonics, metasurfaces and grating structures, and integrated photon detectors. And materials beyond silicon will need to be explored for quantum nanofabrication.

Timeframe to build the NQN? About five years. And it’s important to point out that it will also serve as an educational hub to train a diverse quantum workforce.

ID 327268785 © Irochka | Dreamstime.com
dreamstime_xxl_327268785
About the Author

Sally Cole Johnson | Editor in Chief

Sally Cole Johnson, Laser Focus World’s editor in chief, is a science and technology journalist who specializes in physics and semiconductors. She wrote for the American Institute of Physics for more than 15 years, complexity for the Santa Fe Institute, and theoretical physics and neuroscience for the Kavli Foundation.

Sponsored Recommendations

Hexapod 6-DOF Active Optical Alignment Micro-Robots - Enablers for Advanced Camera Manufacturing

Dec. 18, 2024
Optics and camera manufacturing benefits from the flexibility of 6-Axis hexapod active optical alignment robots and advanced motion control software

Laser Assisted Wafer Slicing with 3DOF Motion Stages

Dec. 18, 2024
Granite-based high-performance 3-DOF air bearing nanopositioning stages provide ultra-high accuracy and reliability in semiconductor & laser processing applications.

Steering Light: What is the Difference Between 2-Axis Galvo Scanners and Single Mirror 2-Axis Scanners

Dec. 18, 2024
Advantages and limitations of different 2-axis light steering methods: Piezo steering mirrors, voice-coil mirrors, galvos, gimbal mounts, and kinematic mounts.

Free Space Optical Communication

Dec. 18, 2024
Fast Steering Mirrors (FSM) provide fine steering precision to support the Future of Laser Based Communication with LEO Satellites

Voice your opinion!

To join the conversation, and become an exclusive member of Laser Focus World, create an account today!