Real physics · textbook laws. For an ideal pair of parallel conducting plates in vacuum, neglecting edge effects: electric field E = V / d; capacitance C = ε₀ A / d; stored energy U = ½ C V²; attractive force at constant voltage F = ½ ε₀ A(V/d)². ε₀ = 8.8541878128 × 10⁻¹² F/m (textbook constant).
Engineering-inspired reconstruction. The stacked impulse-generator modules, insulators, copper terminals, grading rings, divider station, transformer, shielded test fixture and crane represent real categories of laboratory apparatus. Shapes, layout, count and dimensions are illustrative, not a real facility specification.
Simplifications. The live equations apply only to the fictional ideal parallel-plate fixture. No fringe-field solution, humidity or gas-insulation dependence, dielectric leakage, impulse transient, circuit parasitic, breakdown-voltage estimate, thermal analysis, or safety-clearance design is included. A Marx-like bank and the electrode source are not modeled as a validated circuit.
Speculative or representational elements. Arrangement of bank stages, translucent guards, field traces, telemetry screens and moving glow particles are display choices. Field animation conveys direction and distribution qualitatively; it is not a validated particle or field solver.
Independent check. A separately evaluated simple division of the control values appears beside the engine electric-field readout. The default values are illustrative and were checked for plausible SI magnitudes.
Important: Illustrative design, not affiliated with any real institution or manufacturer.