For decades, GPS has underpinned modern military operations. It guides autonomous systems, enables precision targeting and provides the positional awareness commanders rely upon to coordinate forces across increasingly complex battlespaces.
But today's conflicts are exposing a new reality. GPS is no longer guaranteed.
Electronic warfare, jamming and spoofing have become routine features of modern combat. From Eastern Europe to the Indo-Pacific, militaries are preparing for environments where satellite navigation may be degraded, denied or deliberately manipulated. The question is no longer whether GPS will be contested, but whether autonomous systems can continue operating when it is.
For Australia, that challenge carries particular significance. The Australian Army's contribution to the National Defence Strategy 2026 (NDS26) recognizes that the future force must be capable of fighting in the littorals, striking at long range and continually adapting to an increasingly contested operating environment. As the Australian Defence Force invests in long-range precision effects, autonomous systems and integrated operations across land, air and maritime domains, resilient navigation becomes a mission-critical capability. Sovereignty, therefore, is not simply about acquiring new technology—it is about ensuring critical operational capabilities continue to deliver when the operating environment becomes contested.
This is where Vantor's Raptor capability is changing the conversation.
Rather than relying exclusively on GPS, Raptor enables autonomous systems to determine their position by matching imagery captured from pre-existing onboard electro-optical sensors against Vantor's highly accurate three-dimensional representation of the physical world. The result is resilient navigation and precise coordinate extraction, enabling platforms to continue operating effectively even when GPS is unavailable or unreliable.
That capability begins with something few organisations can provide: an exceptionally accurate and continuously refreshed geospatial foundation. Built from decades of satellite collection and advanced 3D terrain production, it gives Raptor the reference model needed to recognise terrain, establish position and generate targeting coordinates with confidence. While that foundation is a critical technical differentiator, its value lies in what it enables operationally: reliable navigation when traditional positioning methods can no longer be trusted.
For operators, the outcome is straightforward.
As Australia expands its investment in long-range strike capabilities, the resilience of the platforms delivering those effects becomes just as important as their range. Precision is only meaningful if autonomous systems can continue to navigate and generate accurate target coordinates in contested electromagnetic environments.
The Australian Army's renewed focus on littoral operations reinforces this challenge. Future operations will increasingly take place across complex coastal terrain where land, sea and air intersect, requiring autonomous systems that can operate confidently despite degraded positioning signals. Whether supporting tactical reconnaissance, maritime surveillance, logistics or precision effects, resilient navigation provides greater operational freedom across the battlespace.
The same applies to the close fight. Whether supporting special operations forces, Joint Terminal Attack Controllers or tactical reconnaissance units, resilient positioning enables forces to maintain precision and operational tempo even when adversaries attempt to deny access to satellite navigation. For uncrewed aircraft manufacturers and integrators, Raptor's software-based implementation provides a SWaP-C-optimised pathway to incorporate GPS-resilient navigation into next-generation autonomous platforms without fundamentally redesigning existing mission architectures.
Navigating in GPS-denied environments is no longer a theoretical requirement. The widespread use of electronic warfare in Ukraine has demonstrated how quickly GPS-dependent systems can lose effectiveness in contested environments. At the same time, growing tensions across the Indo-Pacific have reinforced the need for autonomous systems capable of operating independently of vulnerable navigation signals. As militaries invest in increasingly autonomous capabilities, resilient positioning is becoming a mission requirement rather than a desirable feature.
Importantly, Raptor is not intended to replace existing navigation systems. It complements them, providing an additional layer of resilience that allows platforms to maintain operational effectiveness when GPS performance degrades. This layered approach reflects the reality of modern military operations, where redundancy and resilience are essential to mission success.
The broader implication extends beyond individual platforms.
As the ADF integrates crewed and uncrewed systems across land, maritime and air domains, resilient positioning becomes a common operational requirement rather than a platform-specific capability. Future military advantage will belong to forces that can sustain operations despite electronic attack, degraded communications and denied access. Autonomous systems will only become more central to military operations, but their value ultimately depends on their ability to navigate, identify targets and complete missions in the environments where they are most needed.
The Army's contribution to NDS26 recognises that future success depends on an integrated force capable of fighting in the littorals, striking at long range and continually adapting to emerging threats. Technologies that enable forces to operate despite GPS denial are part of that adaptation—not because they replace existing systems, but because they increase resilience when those systems are challenged.
As defence forces continue to modernise, success will depend not only on fielding more autonomous systems, but on ensuring those systems retain the freedom to operate when adversaries attempt to deny it.
In the future battlespace, operational advantage will not belong to the force with the greatest number of autonomous platforms. It will belong to the force whose platforms can keep navigating, keep targeting and keep completing the mission when GPS cannot.
Learn more at vantor.com.