JRAD Timeline

JRAD’s evolution is not defined by calendar years, but by the maturation of a magnetic architecture that moved from concept → doctrine → tools → platform → ecosystem. Each phase represents a structural shift in capability, understanding, and engineering integration.

Phase I — Concept

The earliest stage of JRAD began with foundational questions about motion, fields, and energy. This phase focused on identifying the limitations of combustion‑based mobility and exploring the feasibility of recursive magnetic propulsion. Key insights emerged around field geometry, lift behavior, and the possibility of closed‑loop magnetic motion.

Phase II — Doctrine

As the conceptual groundwork solidified, JRAD transitioned into a doctrinal phase. This involved defining the principles that govern magnetic propulsion, including multi‑field interactions, axial‑flux turbine flywheel integration, regenerative power cycles, and thermal neutrality. The doctrine established the rules, constraints, and architectural relationships that all JRAD systems must follow.

Phase III — Tools

With doctrine in place, JRAD developed engineering tools to model, test, and validate magnetic propulsion systems. These tools include the Propulsion Sizing Simulator, Rear Field Sizing Simulator, and AFSG Integration Tools. They provide real‑time insight into field geometry, lift behavior, coil performance, and operational envelopes — enabling precise engineering decisions.

Phase IV — Platform

The platform phase marks the transition from tools to integrated systems. JRAD’s magnetic architecture expanded into flight suits, hover vehicles, drones, habitats, and power systems. Each platform is designed as a component of a unified magnetic ecosystem, sharing common field geometries, power loops, and stability frameworks.

Phase V — Ecosystem

The final phase represents JRAD’s long‑term vision: a fully integrated magnetic ecosystem where propulsion, power generation, mobility, and habitation operate as a coherent whole. In this phase, JRAD technologies reinforce one another, enabling scalable mobility across air, ground, sea, and orbital environments.