BIRE Modular Systems™ introduces a new generation of compact, lift-based tidal and riverine energy generators, engineered to deliver silent, reliable, and infrastructure-free power for civilian resilience and autonomous marine operations.
Unlike traditional rotating turbines, BIRE’s systems use lift-based hydrodynamics to extract energy from flowing water with high efficiency and minimal acoustic or environmental footprint. This approach reduces mechanical complexity and enables consistent power output across seasonal and site-specific flow variations. The modular architecture allows for scalable deployment, ranging from individual standalone units to integrated microgrids, which are adaptable to local energy needs and operational constraints.
Lab-based testing has validated key performance metrics across a range of flow regimes, demonstrating strong potential for year-round, low-maintenance renewable energy generation. A pilot site for in-river testing is currently in development, marking a significant step toward field deployment and commercial readiness.
Designed for rapid deployment in remote or infrastructure-limited locations, BIRE Modular Systems™ support a wide range of civilian applications, including emergency energy response, climate-resilient coastal infrastructure, marine environmental monitoring, underwater charging stations, and off-grid scientific or industrial operations. In addition, complementary subscale energy modules are under development to extend mission endurance for UUVs, gliders, and underwater sensor networks through localized mid-mission recharging, without reliance on surface resupply or manned intervention.
With architecture optimized for scalability, interoperability, and resilience, BIRE Modular Systems™ provides a practical, near-term solution for both civilian and strategic missions. This presentation will share the design methodology, laboratory validation results, and future pilot deployment plans, demonstrating how BIRE Technologies is advancing sustainable and autonomous marine power systems.
