Turning quantum technology into quantum capability

Quantum technologies are advancing quickly, particularly in Positioning, Navigation and Timing (PNT). Innovations such as quantum clocks, inertial sensors and quantum-enabled map-matching systems have the potential to deliver far greater resilience and accuracy than conventional navigation systems. However, creating breakthrough technology is only part of the challenge. 

History shows that technical excellence alone rarely guarantees success. Many innovative technologies fail to make the transition from laboratory research into operational capability. The challenge is not simply developing quantum technology but turning it into quantum capability. 

Why resilient navigation matters

Growing reliance on Global Navigation Satellite Systems (GNSS) has exposed vulnerabilities across critical infrastructure, defence and commercial operations. GNSS can be disrupted by outages, interference or operation in denied environments, creating demand for alternative navigation and timing solutions. 

Quantum technologies offer several promising alternatives:

  • Quantum clocks provide highly stable timing without GNSS dependence.
  • Quantum accelerometers and gyroscopes can improve navigation accuracy during periods when external signals are unavailable. Gravity and magnetic map-matching techniques enable passive positioning without satellite infrastructure. 

From innovation to impact

The potential applications are significant, ranging from resilient navigation for aircraft, ships and autonomous vehicles to improved performance for rail networks and critical national infrastructure. Quantum technologies could also support covert operations and long-endurance autonomous systems. 

Despite this promise, many technologies fail to progress beyond research. They become trapped in the "Valley of Death" between successful development and widespread adoption. Common barriers include unclear use cases, lack of identified end users, limited operational evidence, insufficient funding and no clear route into existing programmes. QinetiQ has experience helping companies test their products in operational scenarios to support investment and development decisions.

 
Valley of death graph

Three questions for successful adoption

To move from laboratory success to operational deployment, quantum systems must answer three key questions:

  1. Do they solve a real problem? Technologies addressing critical challenges such as assured timing, resilient navigation or autonomous operation are more likely to attract investment and user support.
  2. Are they truly different? Successful solutions need a sustainable advantage, whether through superior performance, intellectual property, specialist expertise or difficult-to-replicate algorithms and datasets.
  3. Can they be transitioned into a service? Adoption requires clear customer demand, successful demonstrations, committed sponsors and a realistic route to operational service. 

Focusing on operational outcomes

Organisations looking to accelerate adoption should concentrate on solving customer problems and reducing risk for prospective users rather than promoting the novelty of quantum technology. End users buy operational outcomes, not sensors.

Successful solutions are also likely to complement existing systems rather than replace them outright. By enhancing current navigation and timing architectures, quantum technologies can deliver greater resilience while minimising disruption and deployment risk. 

Building confidence through demonstration

Operational trials and demonstrations are essential. While laboratory testing proves technical viability, customers and regulators need evidence that systems perform in realistic environments.

Clear performance metrics should demonstrate measurable benefits such as improved availability, increased safety, reduced downtime or lower operating costs. A strong business case is just as important as technical performance. 

The importance of integration and collaboration

Technologies that are modular, interoperable and compatible with existing systems face fewer adoption barriers. Equally important is collaboration between developers, integrators, infrastructure operators, regulators and end users. Strong partnerships are essential to reduce technical and commercial risk, while creating clearer pathways to deployment. 

The greatest opportunities often emerge where technology maturity, operational need and deployment readiness align. Success requires early engagement with users, testing in representative environments and planning for commercial transition alongside technical development. 

Bridging the gap

QinetiQ can help bridge the gap between innovation and adoption by combining deep technical expertise with operational insight. Through independent testing and benchmarking, systems integration, modelling and simulation, digital twins, algorithm development, and the generation of independent evidence, we help organisations understand not only whether a quantum technology works, but whether it can deliver meaningful capability in the environments that matter. These activities provide the confidence and assurance needed to move promising quantum technologies beyond research programmes and into deployable solutions. 

The future of quantum PNT will be shaped not only by scientific breakthroughs but by the ability to demonstrate operational value, integrate with existing systems and provide a credible path to deployment. The organisations that succeed in quantum PNT will be those that can turn quantum technology into quantum capability.

05/11/2026

  • Jamie Vovrosh, Senior Quantum Scientist

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