The rapid evolution of the modern battlefield is changing how operational advantage is created. Mission effectiveness no longer depends solely on the performance of an individual platform, but increasingly on the ability to connect and synchronize platforms, sensors, forces, and information in real time. The growing use of autonomous systems, robotic platforms, and unmanned aerial systems enables complex missions to be assigned to advanced technologies, reducing personnel exposure while increasing operational effectiveness.
Reflecting these evolving operational requirements, the August 2026 review by the Israeli Ministry of Defense Directorate of Defense Research & Development (DDR&D/MAFAT) identifies cyber and communications capabilities as central to modern force development. Mobilicom’s secure communications and cybersecurity solutions are designed to strengthen the operational resilience of unmanned and autonomous systems within its Secured Autonomy™ framework.
Navigation and Communications in Disrupted Environments: The Operational Resilience Challenge
The DDR&D/MAFAT review highlights data from the Pulsar-0 experimental satellite, which mapped the broad extent of electronic warfare activity. The satellite recorded large-scale GPS interference extending from France to the Pakistani border, reducing navigation signal strength from 40 dB to 10 dB.
Where GPS is exposed to jamming or spoofing, mission continuity increasingly depends on resilience. Alongside emerging research approaches, operational systems require a system-level architecture that combines navigation resilience with secure, interference-resilient communications in challenging electromagnetic environments.
Securing Autonomous Systems: Data Integrity and Protection Against Cyber Threats
The growing integration of artificial intelligence (AI) into operational systems accelerates information processing and decision-making, but also introduces new risks. One is automation bias – the tendency to rely too heavily on system recommendations, particularly under time pressure. Examples in the DDR&D/MAFAT review also reinforce the importance of reliable input data, reflecting the familiar principle: Garbage In, Garbage Out.
Autonomous systems are also exposed to cyber threats that can compromise a single platform and potentially affect a wider network of connected assets. These may include compromise of software or sensors and attempts to gain unauthorized control of command-and-control (C2) channels. A compromise in one component may have cascading effects across connected systems.
Addressing these threats does not require abandoning autonomy. It requires control and enforcement mechanisms that evaluate system behavior in real time. Continuous runtime protection integrated into the system architecture is crucial to support system integrity and mission continuity. The United States Department of War (DoW) announced on September 2025 the implementation of the Cybersecurity Risk Management Construct (CSRMC) that specifically defines the requirement for onboard continuous cybersecurity.
Swarms and Distributed Autonomous Formations: The Importance of Resilient Tactical Communications
An example of manned-unmanned teaming (MUM-T) can be found in the European iMUGS2 robotics program. During a 72-hour field trial, an infantry unit operated six unmanned ground vehicles with autonomous coordination. When one vehicle detected degraded connectivity, it automatically served as a relay node for the others, helping preserve command-and-control continuity.
At the same time, large-scale deployment of low-cost unmanned platforms enables armed forces to explore new force-employment models and reduce cost per kill. The challenge is to integrate robust communications, cybersecurity, and protection capabilities without materially compromising platform weight, cost, or complexity.
As the number of connected platforms grows, protecting the network as a whole becomes increasingly important. A compromise of one platform can allow a threat to propagate to other assets. Swarms and distributed autonomous formations therefore require consistent security policies, real-time monitoring, and the ability to isolate a compromised platform to limit propagation and preserve tactical network functionality.
Secured Autonomy™: Multi-Layer Protection for Autonomous Systems
Mobilicom’s Secured Autonomy™ framework combines complementary protection layers for unmanned and autonomous systems: secure communications and resilience in electronic warfare environments through ICE Cybersecurity, and platform- and fleet-level cybersecurity through OS3® (Operational Security, Safety, and Standards Software).
Pillar 1: Secured Communications & EW Protection
ICE (Immunity, Cybersecurity, and Encryption) is designed to protect platform data links in complex operational environments. Its Immunity component actively detects interference and deception, including jamming and spoofing, to support operational continuity. ICE is integrated into Mobilicom communications products, including the MCU and SkyHopper families.
Pillar 2: Secured Autonomous Platforms
OS3® provides onboard continuous runtime cybersecurity protection. OS3® Edge supports platform integrity, OEM file protection, process monitoring, and real-time anomaly detection. It is designed to add protection against manipulation of autonomous systems, unauthorized commands, and attempts to compromise C2 channels, supporting system integrity and mission continuity.
Pillar 3: Secured Autonomous Fleets
OS3® Cloud and OS3® Controller extend protection beyond the individual platform through consistent security policy enforcement and monitoring of connected assets. Automated isolation and containment can identify and isolate a compromised or anomalous platform, reducing the risk of threat propagation and helping preserve fleet functionality, platform coordination, and mission continuity.
Conclusion: Operational Resilience in the Age of Autonomy
The August 2026 DDR&D/MAFAT review emphasizes that technological sovereignty and strategic resilience depend on sustained investment in reliable infrastructure and technological capabilities. As unmanned and autonomous systems become more central to the battlefield, protecting them requires a system-level approach combining secure, interference-resilient communications, platform cybersecurity, and protection across connected fleets.
Mobilicom’s Secured Autonomy™ framework combines ICE Cybersecurity for communications protection with OS3® for platform and fleet-level cybersecurity. Integrating these layers into the system architecture is intended to strengthen operational resilience, reduce exposure to cyber and electronic warfare threats, and support mission continuity. As autonomy becomes a core element of force employment, secure communications and cybersecurity are becoming integral to the architecture on which operational autonomy depends.
Source note: The data, trends, and operational examples presented in this article are based, in part, on the August 2026 review of the Israeli Ministry of Defense Directorate of Defense Research & Development (DDR&D/MAFAT).
