Quantum magnetometers, Rydberg RF receivers and optical clocks: lab-grade accuracy, engineered for GNSS-denied and contested environments.
fT/√Hz
Scalar sensitivity class
High-bandwidth scalar sensing designed for magnetic map-matching navigation. Features absolute accuracy in Earth's field with an orientation-independent (dead-zone free) architecture. Ideal for airborne and subsea platforms requiring robust geomagnetic referencing.
Precision vector magnetometer providing simultaneous readout of Bx, By, Bz, and total field. Operates in Earth's field with high dynamic range, designed for magnetic compassing, calibration of inertial systems, and attitude determination.
Next-generation compact atomic clock utilizing optical transitions in warm vapor. Delivers orders-of-magnitude superior frequency stability compared to standard microwave CSACs. Engineered for GNSS-denied timing holdover and rapid network synchronization.
Wideband quantum RF sensor capability from MHz to THz. Enables stealthy, antenna-free signal detection and electromagnetic spectrum awareness. Passive architecture ensures zero-emission situational awareness.
A fully integrated PNT unit fusing Quantum Magnetometers with inertial data. Provides absolute, unjammable position fixes by correlating crustal magnetic anomalies with onboard maps. Includes ROS-native drivers for seamless unmanned system integration.
Multi-sensor array designed for mobile anomaly detection. Uses adaptive noise cancellation to isolate local targets (mines, submarines, infrastructure) from geological background noise. Waterproof and ruggedized for maritime deployment.
Pick a lane. We scope a pilot around your platform, interfaces and test evidence.
Assured PNT when GNSS is jammed or spoofed, magnetic anomaly detection, and passive spectrum awareness for contested theaters.
Low-SWaP sensor heads and radiation-tolerant NV-diamond platforms for airborne, LEO and lunar missions.
Subsurface and pipeline anomaly mapping, grid synchronization and ruggedized maritime gradiometry.
Lab-grade OPMs, Rydberg metrology and SI-traceable E-field readout for universities and national labs.
Magnetic map-matching and drift-free dead-reckoning for GNSS-contested or spoofed operations.
Maritime anomaly detection, UXO search, tunnel and void finding, and RF sensing in demanding environments.
Constellation-class magnetometry, space weather monitoring, and on-orbit diagnostics with radiation-tolerant designs.
Mineral exploration, subsurface mapping, and structural health monitoring using high-sensitivity quantum field sensors.
Wearable OPM–MEG and MCG platforms for brain and cardiac mapping in research and clinical translation.
Work with our engineering team to define mission objectives, configure the right quantum sensing stack, and launch a tailored pilot for your operating environment.
Our US lab sits inside the Quantum Startup Foundry at the University of Maryland, steps from the Joint Quantum Institute. Bring your platform, interfaces and test plan; we bring the atoms.
US Research Lab
Quantum Startup Foundry,
AQCESS Lab, 4467 Technology Drive,
Room 2110, Rabin Building, University of Maryland
College Park, MD 20742
United States
01Co-Founder
02Co-Founder
03Advisor
“Resilient navigation in GNSS-denied environments is no longer optional: it is a fleet survival problem. QuBeats is pursuing the right intersection of atomic physics, low-SWaP engineering, and field discipline to make quantum-class sensing deployable where it matters.”
Adm Karambir Singh (Retd)
Former Chief of Naval Staff, PVSM, AVSM, ADC
All advisorsCustom arrays, MagNav drop-ins, gradiometer pods or a Rydberg receiver on your platform. Tell us the mission and we will scope a pilot around your interfaces and test evidence.
US Research Lab
Quantum Startup Foundry,
AQCESS Lab, 4467 Technology Drive,
Room 2110, Rabin Building, University of Maryland
College Park, MD 20742
United States