Blind Tiger Communications was purpose-built to close a critical gap in cellular-domain security. Commercial cellular networks connect phones, drones, sensors, and autonomous systems beyond the reach of conventional localized RF defenses—enabling unvetted communications that can expose sensitive operations, compromise force protection, and threaten dismounted forces, forward positions, and critical infrastructure.
Blind Tiger owns the specialized cellular intelligence and control layer. Through Drone Rupture, Blind Tiger autonomously discovers surrounding cellular networks and uses proprietary, standards-based signaling to pull cellular-connected devices from incumbent networks into a controlled managed-access environment. Devices are identified, classified, and selectively allowed, rejected, or mitigated according to mission-defined policies—without broadband jamming or disrupting authorized communications.
MissionOS extends this capability by connecting cellular observations with operational context to deliver continuous awareness, threat interpretation, and governed decision support. Built on Modular Open Systems Approach (MOSA) principles, Drone Rupture and MissionOS operate independently or integrate into larger EW, ISR, counter-UAS, autonomous-platform, and command-and-control architectures.
Drone Rupture protects and controls the cellular domain independently. MissionOS turns those observations into contextual mission intelligence. Together they complement larger C2, ISR, and system-of-systems architectures.
Autonomous discovery, device intelligence, ranging, geolocation and selective access control without broadband jamming.
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Contextual edge intelligence, specialist diagnostics, mission orchestration, and MCP interoperability for governed operations.
Explore MissionOS →Drone Rupture continuously characterizes the cellular environment and provides mission-relevant evidence. MissionOS adds analytics, diagnostics and governed decision support.
Monitor network changes, characterize connected devices and build a current cellular picture. MissionOS correlates evidence, evaluates system health and supports informed, authorized operational decisions.
Explore the Five-Stage Visual Story →Deep cellular knowledge informs BTC's engineering—from network signaling and mobility to evolving wireless standards.
Leadership across commercial telecommunications, Georgia Tech research, cellular cybersecurity, and national standards development. Identifying vulnerabilities in cellular networks and protocols—and engineering solutions that strengthen communications security and mission protection.
Deep expertise across radio access, network signaling, mobility, and core architectures. Applying decades of cellular security research and standards knowledge to identify vulnerabilities, develop countermeasures, and deliver autonomous cellular intelligence and selective control.
Selected from more than 700 applicants to contribute specialized cellular communications expertise to a government-led innovation initiative involving Special Operations Forces and Intelligence Community stakeholders, addressing future operational communications challenges through 2035.
Field evaluations, demonstrations and product development.
Integrated cellular sensing, distance estimation, and selective mitigation demonstrated in a field evaluation.
Autonomous cellular surveillance and selective control aboard a USV, preserving its remote cellular backhaul.
Three autonomous nodes working as a cooperative mesh for cellular awareness and selective control.
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Discuss Drone Rupture, MissionOS, integration opportunities and mission requirements.
Government and prime-contractor engagement: mission-specific integration, technical briefings, and applicable contracting pathways. CAGE and UEI details available upon request.
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