Active Physics & Astronomy Materials & Manufacturing

Multi-functional Microfabricated Atomic-Photonic Systems: Multi-MAPS

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AI plain-English summary

A UK team is building a chip-sized gyroscope that uses the spin of atoms to navigate without GPS. GPS signals are easy to jam, spoof, or lose—in tunnels, underwater, or during military operations. Current alternatives, like mechanical gyroscopes, drift over time and require frequent recalibration. This project tackles that gap by developing an atomic spin gyroscope: a device that measures rotation by tracking how atoms precess in a magnetic field, much like a spinning top. The result is a navigation-grade sensor that stays accurate without external signals. If successful, the Multi-MAPS module could replace bulkier, less stable navigation systems in submarines, autonomous drones, underground infrastructure monitors, and factory robots. It would allow vehicles and equipment to know exactly where they are—and how they are moving—even when GPS is unavailable. The project builds on existing UK quantum research and aims to produce a commercial prototype within 24 months. This is applied engineering, not fundamental science: the team is turning known quantum principles into a rugged, manufacturable device for real-world navigation.

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Accurate inertial measurement units are critical for autonomous navigation where access to Global Navigation Satellite System networks is denied/unavailable/unreliable. This is particularly relevant to timing, navigation in defence, and civilian applications such as seabed explorations, autonomous infrastructure monitoring, and manufacturing control. The Multi-MAPS project will develop a navigation-grade atomic-photonic module based on an atomic spin gyroscope. This 24-month project builds on the outputs of several quantum projects to create a pathway to developing a commercial atomic spin gyroscope based on co-magnetometry within the UK.

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Related Research

Grants with similar aims, by meaning.

QGyro
Enhanced atomic co-magnetometry for inertial sensing
HARLEQUIN - High-Accuracy Robust deployabLE QUantum Inertial Navigation
Chip-scale Atomic Systems for a Quantum Navigator
ANAGRAM - Commercialisation of an Atomic Gravity Meter

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Collaborative R&D

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