No rocket fuel. No exhaust. No consumables. Electromagnetic launch from four permanent installations — Japan, the Swiss Alps, Pikes Peak, and the lunar south pole. The same physics. Four environments. One continuous pipeline from ground to orbit to L4.
A mass driver is a linear electromagnetic accelerator. A payload sits in a carrier sled. A sequence of superconducting coils energises in precise succession, accelerating the sled along the track to launch velocity without combustion, without exhaust, without propellant of any kind.
The power comes from the grid, not the payload. Every launch draws from a capacitor bank charged by the site fusion power plant. The driver resets and charges while the next payload is loaded. Continuous, repeatable, scalable.
On Earth, mass drivers operate at high altitude to minimise atmospheric drag on the exiting payload. Japan and Pikes Peak exploit mountainous terrain. The Swiss bunker is buried in bedrock — its barrel emerges above the treeline into thin Alpine air. On the Moon there is no atmosphere at all. The lunar driver launches directly to orbital insertion velocity with no drag losses whatsoever.
Every kilogram launched from Earth must fight through 100 kilometres of atmosphere. Every chemical rocket carries its own oxidiser — dead mass burning away before the payload ever reaches orbit.
The Moon changes everything. Lunar escape velocity is 2.38 km/s. A mass driver on the rim of Shackleton crater — where near-continuous sunlight powers the fusion plant — can loft canisters of He-3, processed regolith, and manufactured components directly to orbital rendezvous with no propellant at all.
The same crystal CVD diamond and CNT superconducting coil technology manufactured at L4 is what the driver is built from. The factory makes the infrastructure that ships the factory's output.