Compact quantum sensors with low size, weight, power and cost, engineered for the harshest environments.
QuantumAstra is at the forefront of quantum sensing technology, developing next-generation sensors that bridge the gap between laboratory-grade precision and real-world deployability.
Our proprietary quantum sensing technology delivers enhanced measurements in form factors small enough for satellites, rugged enough for defense, and affordable enough for commercial energy applications.
Quantum-grade magnetic field measurement from a solid-state sensor at room temperature.
Compact sensor heads sized for small UAS, ground vehicles and dismounted kits.
Low size, weight, power and cost, with a design built for scalable manufacturing.
One sensor, one path to scale. We proved the quantum sensing chain on the bench, and we’re now developing a next-generation sensor head built for the field.
A working room-temperature quantum magnetometer that validates the full sensing chain, running under 2 W in a compact module.
A smaller, lower-power sensor head with improved sensitivity, designed for volume manufacturing.
Pairing the next-generation sensor with our validated software for GPS-denied navigation and buried threat detection on small UAS and ground platforms.
A solid-state sensor with no cryogenics and no moving parts, built to work where lab instruments can’t.
Designed from the outset for repeatable, scalable production and low unit cost.
A production-ready pipeline that fuses quantum sensor data with physics-informed machine learning, validated against real operational data.
Sized, powered and priced for small UAS, ground vehicles and dismounted operators from the start.
GPS-denied navigation, submarine detection, underground facility mapping, and battlefield awareness through quantum magnetometers and gravimeters that operate where conventional sensors cannot.
Satellite-based quantum sensors for Earth observation, deep-space navigation, and planetary science — delivering high-precision measurements in compact, radiation-hardened packages.
Quantum-enhanced battery diagnostics, ultra-precise current sensing, and next-gen autonomous navigation for the EV revolution.
Subsurface mineral exploration, pipeline integrity monitoring, and grid optimization through gravity and magnetic field sensing.
Our quantum sensor platform starts with magnetometry, proven at TRL 3 on the bench. Our first applications are GPS-denied navigation and buried threat detection, where conventional sensors fall short.
The first measurement mode of our sensor platform: a compact, solid-state quantum magnetometer that works at room temperature. Our bench prototype validates the complete sensing chain, and the next-generation sensor head now in development brings that capability to a smaller, more efficient package.
GPS-denied position, navigation and timing for small UAS, ground vehicles and dismounted operators. Real-time magnetic readings are matched against magnetic anomaly maps, passively, with no RF emissions and nothing to jam.
Airborne detection of buried threats such as UXO, mines and IEDs from small UAS at standoff distance. Wide-area survey in a fraction of the time of ground sweeps, with no personnel in the hazard area.
Beyond navigation and defense, the same sensing approach has potential applications across semiconductors, energy and industrial monitoring.
Funded through the Duality program — the nation's premier quantum technology accelerator backed by the Chicago Quantum Exchange, the University of Chicago, Argonne National Laboratory, and the University of Illinois Urbana-Champaign.
Selected for Cohort 5 of the HUSTLE (Helping Upstate Science and Technology Leaders and Entrepreneurs) Defense Accelerator — an elite program by the Griffiss Institute empowering dual-use tech startups for national security. Sponsored by the Air Force Research Laboratory (AFRL), New York State Empire State Development, and National Grid.
Whether you're exploring quantum sensing for defense, space, EVs, or energy — our team is ready to help you find the right solution.