2026 McGregor TX Reveal: 80 kN SpaceX Thrusters & 2G Suction Fan

Tesla Flying Roadster & SpaceX Cold-Gas Thruster Physics Simulator

Test the engineering behind the Tesla–SpaceX Flying Roadster: fire 10 cold-gas compressed-air thrusters (80 kN thrust, 600L COPV tank) to hover and kickflip in mid-air, drive upside down using the 2G underbody suction fan, and compare 0–60 mph runs across Performance (<1.6s), Thrust (0.81s), and Rocket (<0.59s) trims.

0–60 MPH: 0.59 s (4.63 G Peak) COPV Tank: 250 kg (100% Full) Altitude / Mode: 0.0 m · Ready to Fire
Your browser supports HTML5 Canvas to render the Tesla Flying Roadster, SpaceX cold-gas shock diamonds, and 2G suction ramp.
0–60 MPH & Peak G-Force 0.59 sec 4.63 G longitudinal acceleration
Total SpaceX Cold-Gas Thrust 82.0 kN Lifts 8,358 kg (4.1x car weight)
600L COPV Hover Duration 7.8 sec 32.1 kg/s hover mass flow (Isp 68s)
Underbody Suction Downforce 2.00 G Fan Holds car upside down at 0 mph

How the 2026 Tesla Flying Roadster & SpaceX Cold-Gas Thrusters Work

At SpaceX's rocket development facility in McGregor, Texas, Tesla unveiled the production-intent next-generation Tesla Roadster—demonstrating a vehicle that drives completely upside down on a curved ramp using an underbody vacuum suction fan, launches into the air on **10 SpaceX cold-gas compressed-air thrusters**, executes a mid-air flip, and cushions its landing at **3.3 G**.

Unlike eVTOL air taxis that rely on wide helicopter rotors, the Roadster uses high-pressure cold-gas rocket physics paired with a Chaparral 2J / Brabham BT46B-style ground-effect suction fan to break the fundamental tire-traction barrier of wheeled vehicles.

How to Pilot & Test All 4 McGregor Demonstration Modes

  1. Stunt 1 — 80 kN Hover & Mid-Air Kickflip: Select the *3. Roadster Rocket* configuration and hold down 🚀 Hold: Fire 80 kN Thrusters (or hold the Spacebar / touch the canvas). Watch the 4 corner downward nozzles lift the car to `6.5+ meters` while the 600-liter COPV air tank depletes in real time. Click 🔄 Execute Mid-Air Kickflip while airborne to fire asymmetric attitude-control jets and land at 3.3 G.
  2. Stunt 2 — 0.59s / 0.81s SpaceX Drag Strip Launch: Switch to Stunt 2: SpaceX Drag Strip to compare tire-only electric acceleration against rear-diffuser cold-gas thruster propulsion. See how adding `82 kN` of jet thrust bypasses wheelspin to drop 0–60 mph from `1.58 seconds` down to `0.81 seconds` (Thrust trim) and `0.59 seconds` (Rocket trim).
  3. Stunt 3 — 2G Suction Fan Upside-Down Ramp Loop: Watch the multi-mode underbody fan evacuate air beneath the chassis at **2.0 G of negative lift**, holding the Roadster glued to the ceiling of the inverted McGregor ramp before firing the thrusters off the lip.
  4. Stunt 4 — Snake River Canyon Ballistic Jump Calculator: Test whether a `185 to 230 mph` ramp launch assisted by `80 kN` cold-gas thrusters can clear the famous `1,600-foot` (`488 m`) Snake River Canyon gap in Idaho.

Cold-Gas Rocket Isp, Suction Downforce & Sub-Second 0–60 MPH Equations

Our propulsion engine solves the exact Newtonian and compressible fluid equations governing the Roadster's two headline systems:

1. Combined Tire + Suction Fan + Cold-Gas Jet Acceleration (Newton's Second Law):
F_total = μ_tire · m · g · (1 + G_suction_fan) + F_thrusters_rear
a_peak = F_total ÷ m_vehicle, t_0_to_60mph = 26.8224 m/s ÷ a_avg

2. Cold-Gas Thruster Mass Flow Rate & Hover Duration (Isp ≈ 68 s, g_0 = 9.80665 m/s²):
v_exhaust = Isp × g_0 ≈ 666.8 m/s (Supersonic Cold Air Jet)
m_dot_hover = (m_vehicle · g_0) ÷ v_exhaust ≈ 28.7 kg/s ⇒ t_hover = Mass_Air_250kg ÷ m_dot

3. Inverted Ceiling Hold Condition (Suction Fan Downforce F_fan vs. Gravity):
F_normal_ceiling = m_vehicle · g · (G_suction_fan - 1.0) > 0 [Requires G_suction_fan > 1.0 G; Tesla pulls 2.0 G!]

Official 2026 Tesla Roadster Trims Comparison: Performance vs. Thrust vs. Rocket

Specification 1. Roadster Performance 2. Roadster Thrust 3. Roadster Rocket
Seating Layout 2-Seater (Molded Carbon Seats) 2-Seater + Rear COPV Tank Single-Seater + 600L COPV Tank
SpaceX Cold-Gas Thrusters None (Electric Motors Only) Rear Diffuser Thrusters 10 Directional Thrusters (80+ kN)
Underbody Suction Fan Yes (2.0 G Downforce System) Yes (2.0 G Downforce System) Yes (2.0 G Inverted Wall Grip)
Claimed 0–60 MPH (0–96 km/h) < 1.60 Seconds < 0.90 s (0.81s Live Demo) < 0.59 Seconds (4.63 G)
Quoted Top Speed > 230 mph (370+ km/h) > 230 mph (370+ km/h) > 230 mph (Target 383 mph / Mach 0.5)
Flight / Hover Capability Ground-Locked (High Downforce) Launch Assist & Wheelie Control Short Hover, Kickflip & 3.3G Landing
Street Legal Status Road-Ready Production Intent Pending Regulatory Review Track / Closed-Course Exhibition Only

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Frequently Asked Questions

1. How does the Tesla Flying Roadster leave the ground without wings or propellers?
The next-generation Tesla Roadster developed with SpaceX uses up to 10 cold-gas thrusters fed by a 600-liter Composite Overwrapped Pressure Vessel (COPV) storing roughly 250 kg of ultra-high-pressure compressed air. Releasing the compressed gas through supersonic nozzles generates over 80 kilonewtons (80,000 N) of thrust—enough force to lift more than 8,000 kg against gravity without combustion.
2. What are the three versions of the new Tesla Roadster and their 0–60 mph times?
Tesla announced three configurations: 1) Roadster Performance (two-seater road-ready trim with active aero and the 2G underbody suction fan, 0–60 mph in under 1.6 seconds); 2) Roadster Thrust (two-seater adding rear-mounted SpaceX cold-gas thrusters in the diffuser, 0–60 mph in under 0.9 seconds, demonstrated at 0.81 seconds); and 3) Roadster Rocket (single-seater with 10 directional cold-gas thrusters, claiming 0–60 mph in under 0.59 seconds).
3. How long can the Tesla Roadster hover on a 600-liter compressed air tank?
Cold-gas nitrogen or compressed-air thrusters have a specific impulse (Isp) of approximately 65 to 70 seconds (exhaust velocity ~667 m/s). Generating 80 kN of peak lift consumes roughly 120 kg of air per second, while hovering a 1,950 kg car (~19.1 kN thrust) consumes ~28.7 kg/s. A 250 kg compressed-air charge therefore supports up to ~8 seconds of continuous hover or multiple short jump/launch bursts before the onboard electric compressor refills the tank.
4. How does the Tesla Roadster drive upside down on a curved ramp?
Inspired by 1970s Chaparral 2J and Brabham BT46B fan cars, the Roadster features a multi-mode underbody fan and ground-sealing skirt system that evacuates air from beneath the chassis. This generates 2.0 G of suction downforce (twice the car's weight) even at 0 mph, pressing the Pirelli P Zero Trofeo RS tires into the surface strongly enough to hold the car upside down.
5. How does a car accelerate from 0 to 60 mph in 0.59 to 0.81 seconds?
Conventional cars are traction-limited by tire rubber friction on asphalt. The Roadster combines 2G of fan suction (which triples normal tire force on the pavement) with rear-firing SpaceX cold-gas jets that push the chassis directly without needing tire grip. Reaching 60 mph (26.82 m/s) in 0.81 seconds requires an average acceleration of 3.38 G, while 0.59 seconds requires 4.63 G.