Back/Quantum Navigation Breakthrough: CPI TMD Advances HARLEQUIN System for Maritime Technology
tech·December 21, 2025·qmco

Quantum Navigation Breakthrough: CPI TMD Advances HARLEQUIN System for Maritime Technology

ED
Editorial
Cashu Markets·2 min read
TL;DR
  • CPI TMD's HARLEQUIN system uses quantum technology for reliable maritime navigation independent of GNSS like GPS.
  • The hybrid quantum accelerometer enhances positioning accuracy, improving resilience during satellite signal disruptions.
  • Quantum innovations are transforming industries, evident in advancements in navigation and data processing technologies.

### Quantum Navigation Breakthrough: CPI TMD Advances Maritime Technology

CPI TMD Technologies Division has made significant strides in quantum navigation by successfully conducting sea trials of its HARLEQUIN quantum-hybrid inertial navigation system (INS) aboard the THV Galatea, a vessel operated by Trinity House. This achievement underscores the growing relevance of quantum-enabled sensing technology in maritime applications, offering a reliable positioning solution that operates independently of Global Navigation Satellite Systems (GNSS) such as GPS. The implications are substantial, especially given research indicating that a 24-hour GNSS outage could cost the UK economy approximately £1.4 billion, affecting logistics, transportation, and critical infrastructure.

The HARLEQUIN system combines traditional INS components, including a precise clock, a ring laser gyroscope, and a MEMS accelerometer, with a gMOT-based quantum accelerometer, marking a notable evolution in navigation technology. This hybrid setup aims to enhance GNSS holdover capabilities, allowing for continued accurate positioning even during satellite signal disruptions. By validating the operational performance of quantum sensors in real-world maritime conditions, CPI TMD demonstrates the potential for these technologies to improve resilience in various sectors, including defense and commercial shipping.

Funded by Innovate UK and developed in collaboration with academic partners such as the University of Strathclyde and Dr. Joseph Cotter's team at Imperial College London, the HARLEQUIN project highlights the importance of interdisciplinary collaboration in advancing quantum technology. The gMOT cold atom source, integral to the quantum sensor's functionality, ensures a portable and robust design. Unlike conventional INS technologies, which are prone to cumulative errors over time, HARLEQUIN's quantum-enhanced sensing capabilities promise to deliver significantly improved positional accuracy, paving the way for future innovations in navigation systems.

In related developments, MicroCloud Hologram Inc. has unveiled an innovative quantum-enhanced deep convolutional neural network image 3D reconstruction technology system. This system employs quantum convolutional networks for feature extraction and quantum-optimized models for 3D reconstruction, showcasing the potential of quantum technology in enhancing machine learning and data processing capabilities.

As the market for quantum technologies continues to expand, advancements such as those from CPI TMD and MicroCloud highlight the transformative impact of quantum innovations across various industries, ranging from maritime navigation to advanced imaging systems.