RF cybersecurity

Sovereign spectrum defense

Physics-based detection and closed-loop response for electronic warfare, built on hardware we control rather than hardware we rent from someone else’s export licence. The MW Framework applied to a local sensor grid detects what is physically impossible, not only what has already been catalogued.

Five differentiators

Where conventional EW systems fall short

Conventional electronic-warfare monitoring was built for known threats, synchronized clocks and passive observation. Modern RF attacks do not play by those rules.

  • Hardware sovereignty

    Sanction-proof by design
    Conventional EW

    Proprietary, encrypted black-box hardware from foreign vendors; if spare parts or firmware updates stop, the network goes dark.

    MW + local sensors

    Commodity, hardware-agnostic SDRs any local manufacturer can produce. The software is the differentiator, not the silicon.

  • Physics-based detection

    Catches the unknown, not just the known
    Conventional EW

    Threshold and signature matching: a novel waveform or a signal kept below the noise floor reads as “no threat”.

    MW + local sensors

    Measures the underlying physics — geometry, coupling and path-loss relationships — and flags any signal that violates them.

  • GPS-denied geolocation

    Works when GPS fails
    Conventional EW

    Time-difference-of-arrival needs GPS-synchronised clocks across every node; jam GPS and geolocation disappears.

    MW + local sensors

    Runs on received-signal-strength ratios and geometry alone. When the sky is jammed, the grid still triangulates.

  • Closed-loop response

    Detection to response in under a second
    Conventional EW

    Passive monitors that alert a human, who coordinates a response over minutes.

    MW + local sensors

    A reasoning engine fuses geolocation and classification, applies rules of engagement and dispatches a response in under half a second.

  • Elastic scalability

    A few nodes vs a territory
    Conventional EW

    Nanosecond time sync and raw backhaul cap conventional clusters at roughly 10–50 nodes per theatre.

    MW + local sensors

    Each node streams a few band-power values per second (about 1 KB), so one server batch-processes thousands of nodes.

At a glance

The summary

DimensionConventional EWMW + local sensors
DimensionHardware sourceConventional EWForeign-controlledMW + local sensorsLocal OEM, sanction-proof
DimensionDetection logicConventional EWKnown signatures onlyMW + local sensorsPhysics manifold — catches novel attacks
DimensionGeolocationConventional EWTDOA, requires GPSMW + local sensorsRSSI-based, GPS-free
DimensionResponseConventional EWPassive alert onlyMW + local sensorsAutomated countermeasure dispatch
DimensionScalabilityConventional EW10–50 nodesMW + local sensors5,000+ nodes, elastic

A sovereign, physics-driven picture of the spectrum.

Built on local hardware, resistant to jamming, and closed-loop from detection to response. Tell us your theatre and constraints.