Principal mechanism: a compliant mass–spring platform can reduce high-frequency base-driven motion; instruments sense relative motion and actuator trim is shown conceptually.
Textbook, 1 degree of freedom:
fₙ = √(k/m) / (2π)
r = f / fâ‚™
T = √[(1 + (2ζr)²) / ((1 − r²)² + (2ζr)²)]
x = T × y; δ = mg/k; P = 2π√(m/k)
Genuine science: mass, elastic support, damping, displacement sensing, vacuum interfaces and optical references are real engineering concepts.
Engineering-inspired reconstruction: chamber proportions, actuator layout, mechanical packings and safety enclosures are original illustrative design choices, not sourced specifications.
Simplified educational representation: the readout treats the complicated platform as a single linear damped degree of freedom. The response is not a finite-element model or validated vibration prediction.
Speculative features: glowing particles, beam pulses and active trim animation are visual storytelling, not measurements or proven controller dynamics. This exhibit does not isolate gravity itself.
Illustrative design, not affiliated with any real institution or manufacturer.