Improve the cost exchange
Designed around lower-cost, scalable defensive systems for missions where expensive traditional air-defense effects may be poorly matched to inexpensive UAS threats.
Modular sensing and autonomous interception architecture for low-altitude air defense.
Hive is being developed as an affordable, modular counter-UAS architecture for detecting, tracking, cueing, and intercepting low-altitude unmanned aircraft while supporting rapid deployment, scalable production, and future technology insertion.
Designed around lower-cost, scalable defensive systems for missions where expensive traditional air-defense effects may be poorly matched to inexpensive UAS threats.
Modular sensing, ground, and interceptor elements are intended to support flexible deployment and mission-specific configurations.
Replaceable hardware modules and software-defined functions support continued upgrades without forcing a complete platform redesign.
Hive separates major sensing, mission-processing, flight-control, and effector functions so each part of the architecture can be developed and upgraded around a common mission chain.
Radar, thermal, electro-optical, and future sensor modules support low-altitude detection and track generation.
Distributed computing separates deterministic flight control from perception, sensor fusion, autonomy, and mission processing.
Sensor and ground components provide track and mission cueing to compatible Hive systems through the platform architecture.
Bumblebee interceptors provide the autonomous airborne component of the Hive counter-UAS architecture.
West Sound Defense systems organized around sensing, track generation, cueing, and autonomous interception.
The Hive design philosophy emphasizes modularity, autonomous operation, maintainability, manufacturability, and long-term technology evolution.
Independent subsystem boundaries and common interfaces support technology insertion and parallel development.
Flight-critical control is separated from computationally intensive mission, perception, and autonomy functions.
The architecture supports radar, thermal, electro-optical, and future sensing options as mission requirements evolve.
Mission software is designed to support autonomous navigation, target processing, guidance, and mission execution.
Modular electronics and rapid manufacturing methods are intended to simplify production, maintenance, and replacement.
Processors, sensors, communications, and mission software can evolve independently instead of forcing whole-system replacement.
Hive is engineered as a continuously evolving platform rather than a fixed product.
Hive uses a modular architecture designed to support subsystem upgrades without requiring a complete aircraft redesign.
Key components can be replaced or upgraded as requirements and technology evolve while retaining the core vehicle and system architecture.
New processors, radar technologies, navigation sensors, mission sensors, and software capabilities can be integrated as technology advances, helping the platform remain operationally relevant throughout its service life.
When a new UAS threat, behavior, or operating profile emerges, applicable detection, classification, tracking, guidance, or mission-logic updates can be developed and deployed to fielded systems without necessarily requiring changes to the aircraft hardware.
Hive supports two paths for capability growth: software updates when existing hardware can address the threat, and modular hardware upgrades when new sensing, processing, communications, or other physical capabilities are required.
Hive is progressing from system architecture and subsystem maturation toward integrated prototype development. Public website information describes the program architecture and intended capabilities; performance values that are not released are shown as Not Public.