Quantum navigation
Inertial navigation without GPS, for subs, planes, and interplanetary probes.
Application / Space
Navigation, quantum sensing, and deep-space communications.
Quantum sensors already exceed the sensitivity of any classical instrument for gravity, magnetism, and time. In space, that means GPS-free navigation, better Earth observation, and unbreakable long-range communication.
Optical lattice clocks are already 100× more precise than the atomic clocks in GPS satellites.
What already happened, and what's next for quantum space.
China launches Micius — first quantum satellite.
Micius demonstrates intercontinental QKD between China and Austria.
NASA's Cold Atom Lab installed aboard the ISS.
First quantum gravimeter tested from an aircraft.
US-EU quantum satellite constellation plans announced.
First commercial quantum gravimetry service for oil & gas.
Deployed quantum network of Earth-observation satellites.
Interplanetary quantum communication link demonstrated (Earth ↔ Moon).
Deep-space probes navigate autonomously with onboard quantum sensors.
Inertial navigation without GPS, for subs, planes, and interplanetary probes.
Quantum gravimetry maps aquifers, oil, and tectonic strain from orbit.
Satellite QKD networks for unbreakable government and financial links.
Squeezed-light detectors that pushed LIGO past the standard quantum limit.
Who's actually building here — hardware makers, industry partners, and pure-play startups.
Cold Atom Lab and quantum sensor programs for interplanetary missions.
Micius satellite and follow-on quantum satellite constellation.
Quantum inertial navigation and Earth-observation gravimeters.
Quantum sensing and secure comms for defense applications.
European quantum satellite program (SAGA, EAGLE-1).
Quantum navigation and secure comms integrations.
Ecosystem highlights
Quantum sensors already deployed; scaled comms 5–10 years.