Project Dark Bulb · engineering simulator
Every configuration the programme analysed, computed live from the ledger-verified equations. Drag the parameters and the field recomputes — the negative-energy region, the shape function, and the mass budget update together. Nothing here is drawn by hand; the physics in this page is checked against the Python reference on load.
Energy density seen by Eulerian observers, in the x–ρ plane (ρ = distance from the axis of motion). The exotic matter forms a toroidal ring in the bubble wall, perpendicular to travel — and vanishes on the axis (ρ = 0) and inside the flat bubble. This is equation E-0012, the verified (claim C-0001) density, drawn directly.
The volume trick. A microscopic outer bubble (the tiny circle, radius ~10⁻¹⁵ m) hides a macroscopic pocket of expanded space inside. The curve is the volume-expansion factor B(r): it stays ~1 outside, then rises steeply through a thin transition to a huge value, creating interior room without a large outer surface. This cuts the energy 32 orders of magnitude (claim C-0020) — but the wall stress-energy is still Type IV (claim C-0018).
The cost landscape, log–log. Negative mass-equivalent against wall thickness, with reference lines at one solar mass, one galaxy, and the visible universe. The quantum-inequality limit (red line) is where field theory forces the wall to sit — ~10⁻³³ m — driving the cost to ~10²⁰ galaxy masses (claim C-0007) (claim C-0008).
The computable mission — a subluminal ship, Sol → alpha Centauri. Position against time for the accelerate–coast–decelerate profile at the chosen cruise speed. The crew clock (dashed) runs slightly slower than Earth's. This is the only route left open by the physics (claim C-0014).