Technology

1gSpace vehicle architectures are based on sustained continuous acceleration as the primary operational regime for interstellar flight. Maintaining Earth-equivalent gravity is treated as a structural design condition, shaping propulsion, power generation, thermal management, and long-duration human operation under deep-space constraints.

Crewed platforms are designed for multi-year service without external resupply. Life-support, radiation protection, environmental control, and internal logistics are integrated as permanent system functions, enabling continuous habitation and operational continuity despite isolation, delay, and gradual system degradation.

Power distribution, thermal control, communications, and mechanical servicing are engineered to remain functional across extended mission timelines. System margins and failure modes are addressed through redundancy, fault containment, and the ability to adapt operational behavior as conditions evolve.

Operational coordination is provided by AURAI, a redundant autonomous control architecture integrated across propulsion, power, environmental, and safety systems. AURAI manages resource allocation, anomaly response, and long-horizon stability, allowing both crewed and uncrewed platforms to operate independently of continuous ground control.

DCMCAAFR Reactors

The Dual-Core Magnetically Confined Antiproton-Augmented Fusion Reactor (DCMCAAFR) family provides ship power and continuous-thrust capability for deep-space operations. Primary energy is derived from aneutronic p–B¹¹ fusion in dual confinement volumes; antiproton augmentation is applied under controlled conditions to support ignition stability and burn control. Metallic-hydrogen preconditioning is utilized for thermal input and plasma staging.

Full-scale DCMCAAFR installations on large crewed vehicles support sustained 1 g profiles, with magnetic-nozzle exhaust and vectored fields for precise attitude-coupled thrust. The dual-core topology enhances stability, affords graceful-degradation pathways, and enables concurrent power production and propulsion. Compact DCMCAAFR variants, as flown on ACEP, scale the architecture for autonomous deep-space reconnaissance while preserving high specific-impulse operation and robust energy conversion.