Tesla Roadster INTERACTIVE 3D

How does a car drive upside down—and return to the ground? Explore the science.

Climb · grip · release · land
THE RAMP / SCIENCE IN MOTIONPREPARING MODEL
Interactive Roadster · Enable JavaScript to explore.
01 / ApproachIllustrative reconstruction · slowed for learning

Upward thrust must exceed weight to slow a downward-moving car.

Downward speed 0.0 km/h · thrust 0.00 × weightIdealised experiment: fixed attitude and prescribed lateral path; no impact or gas-depletion simulation.
0.0 / 24s
CURIOUS MINDS / GO ONE LEVEL DEEPER

What makes the impossible-looking possible?

Watch Tesla’s original demo
01 / TRY IT YOURSELF

Can pressure hold a car?

Adjust the pressure difference beneath a sealed floor. Compare the ideal force with the weight of a hypothetical 1,800 kg car.

Pressure force20.0 kN
Weight17.7 kN
Inverted: enough ideal forceVertical wall: enough ideal tyre grip
Assumptions: sealed area 2 m²; tyre friction coefficient 1.1; stationary vehicle; no leaks. These are lesson inputs, not Tesla specifications.
02 / THE LANDING

Downward motion. Upward force.

A falling car already has downward momentum. To stop that motion, its upward thrust must exceed its weight for long enough.

a = (Fthrust − mg) / m

If thrust equals weight, acceleration is zero—the car keeps its existing downward speed. To slow the fall, thrust must be greater than weight.

The replay uses an idealised gravity segment and a constant-acceleration braking segment. Horizontal travel and rotation are choreographed; this is not a flight-control simulation.
03 / A FINITE RESOURCE

Jets spend stored momentum.

Cold-gas jets push by expelling mass. An electrical battery can operate valves or compressors, but the stored gas still runs down during a burst.

Impulse = ∫ F dt = Δp

More force or a longer burn produces more impulse. Here Δp means change in momentum; in the pressure lesson, Δp means pressure difference.

A fan relies on a nearby surface and a pressure difference. A thruster carries its working gas and can push away from the surface.

Exact tank capacity, nozzle locations and control commands are not inferred from the video.
MODEL NOTES & SOURCES

Observed demonstration. Established physics.

The sequence follows Tesla’s “The Ramp” film: approach, inverted track, release and landing. The shape is a reference-based reconstruction, not Tesla CAD. Dimensions, internal packaging and playback timing are illustrative. The replay lands at 16.8 s on its own learning timeline; it does not reproduce measured event telemetry.