Safran and QinetiQ Partner to Deliver Advanced Anti-Jamming PNT Capabilities to UK Armed Forces
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| Cyber & Electronic Warfare Specialist
Amid escalating threats from electronic warfare and GNSS denial tactics, Safran Electronics & Defense and QinetiQ have formed a strategic alliance to provide the UK Ministry of Defence with advanced anti-jamming Positioning, Navigation and Timing (PNT) capabilities. The collaboration aims to enhance the resilience of British military platforms across land, air, and maritime domains against increasingly sophisticated electronic interference.
Strategic Rationale Behind the Partnership
The joint announcement by Safran and QinetiQ reflects growing recognition within NATO militaries of the critical vulnerability posed by overreliance on Global Navigation Satellite Systems (GNSS), such as GPS or Galileo. Adversaries—particularly Russia—have demonstrated extensive capabilities in GNSS spoofing and jamming across multiple theaters including Ukraine, Syria, and the Baltic region.
According to the companies’ joint statement on September 16th, 2025, this partnership will combine Safran’s expertise in inertial navigation systems (INS) with QinetiQ’s experience in defense-grade signal processing and sovereign UK system integration. The goal is to deliver scalable Resilient PNT (R-PNT) solutions that can operate in GNSS-denied or -degraded environments.
“This collaboration will provide our armed forces with assured positioning even when satellite signals are compromised,” said Steve Fitz-Gerald, Managing Director of QinetiQ’s UK defense business. “It’s about ensuring operational advantage through navigation superiority.”
Technology Stack: Inertial + RF + Sensor Fusion
The core technical approach centers around hybrid PNT architectures that fuse multiple sensor modalities:
- Inertial Navigation Systems (INS): Safran brings its Geonyx™ family of high-performance fiber-optic gyroscope-based INS units already fielded by several NATO forces.
- Anti-Jam Antennas: Multi-element Controlled Reception Pattern Antennas (CRPA) capable of spatial nulling against jammers.
- Alternative RF Signals: Use of non-GNSS radio frequency sources such as eLORAN or terrestrial beacons as fallback references.
- Sensor Fusion Algorithms: Integration of barometric altimeters, odometry inputs (wheel sensors), magnetometers and visual odometry for cross-domain redundancy.
This layered approach aligns with NATO STANAG guidance on Assured PNT (APNT), which emphasizes modularity and multi-source data fusion. The systems under development are expected to be platform-agnostic—scalable from dismounted soldiers up to armored vehicles or unmanned aerial systems (UAS).
Sovereign Capability Development for the UK MoD
A key element of this alliance is its emphasis on sovereign capability. While Safran is a French-headquartered multinational group with significant European defense credentials—including supplying INS units for Rafale fighters—the integration work led by QinetiQ ensures compliance with UK-specific security requirements under the Defence Equipment & Support (DE&S) framework.
This aligns with broader UK MoD initiatives such as Project Oberon (resilient space-based PNT) and Project Minerva (multi-domain situational awareness), both aimed at reducing reliance on vulnerable external signals. By developing R-PNT capabilities domestically or via trusted partners like Safran under ITAR-free conditions, the UK seeks greater autonomy in critical navigation infrastructure.
Operational Context: Lessons from Ukraine & Beyond
The battlefield relevance of resilient PNT has been underscored dramatically by recent conflicts. In Ukraine, Russian forces have deployed powerful mobile jammers like R-330Zh “Zhitel” that can disrupt GPS signals over dozens of kilometers. Ukrainian troops have reported widespread issues with drone navigation failures due to GPS jamming/spoofing—a problem partially mitigated through use of inertial backup systems or Starlink-based geolocation overlays.
NATO exercises such as Joint Warrior have also incorporated deliberate GNSS denial scenarios to stress-test coalition C4ISR networks. These drills reflect an emerging consensus that future peer conflicts will likely involve contested electromagnetic environments where APNT becomes mission-critical—not just for precision fires but also platform coordination and blue-force tracking.
Toward Fielding: Timelines & Trials
No specific delivery dates were disclosed in the September announcement; however, both companies indicated that prototype demonstrations are expected within 12–18 months under existing DE&S exploratory programs. These may include trials aboard British Army AJAX vehicles or Royal Navy autonomous surface vessels operating in GPS-contested littorals.
The program could also feed into NATO-wide standardization efforts via interoperability testing at facilities such as JFTC Bydgoszcz or through participation in EU-funded initiatives like EDIDP/EDF projects focused on secure navigation technologies.
Conclusion: Building Resilience into Core C4ISR Infrastructure
The Safran-QinetiQ partnership represents a strategic step toward hardening one of modern militaries’ most exploited vulnerabilities—reliable positioning data. As adversaries continue investing heavily in electronic attack capabilities targeting satellites and RF-dependent systems, Western forces must adapt by embedding resilience at every layer—from chip-level timing sources up through edge-deployed sensor fusion modules integrated into tactical networks.
If successful, this initiative could serve as a model for other allied nations seeking sovereign R-PNT solutions that blend commercial innovation with military-grade robustness against EW threats.
