At a SpaceX test site in Texas, Elon Musk unveiled Tesla’s long-delayed second-generation Roadster. In the demonstration, an uncrewed car rode up a curved ramp, flipped in mid-air on bursts of compressed air and landed on its wheels. Musk declared that “flying cars are real”. The engineering is striking, but what was shown is a brief, cold-gas-assisted jump. No certification path has been announced, and the US Federal Aviation Administration says the vehicle does not meet its definition of an aircraft.
Elon Musk had promised “the most exciting, whether it works or not, demo ever”. On the night of Thursday 15 October, at a SpaceX facility near Waco, Texas, and livestreamed on X, Tesla finally showed the second-generation Roadster it first revealed in 2017. Coverage reached Indian audiences on the morning of Friday 16 October.
According to TechCrunch, CBS/AFP and Euronews, the demonstration car drove up a curved, inverted ramp, appeared to cling to the surface while upside down, launched off the end, rolled through 180 degrees and landed on its wheels. In a second stunt, it lifted itself over a row of Tesla vehicles, among them a Cybertruck, a Semi and a Cybercab, in what Euronews described as a “kickflip”. No one was inside. Musk said that was “to make sure we don’t kill anyone”.
“Flying cars are real,” Musk said, adding that success was “not guaranteed” but that “it will probably work”, CBS reported.
How it works
Tesla’s engineers gave an unusually candid account of the hardware. Lars Moravy, Tesla’s vice-president of vehicle engineering, said a fan suction system on the car’s underside can generate up to 2 g of downforce. That is enough to hold the car to an inverted surface, a principle borrowed from motor racing’s “fan cars” of the 1970s.
The airborne phase uses cold-gas thrusters. TechCrunch reports that Moravy described 10 thrusters fed by about 600 litres of compressed air stored in carbon-fibre-overwrapped pressure vessels (COPVs), packed into “every usable void” of the car. Releasing high-pressure gas through nozzles produces thrust without combustion. It is the same basic principle that spacecraft use for small attitude adjustments. Musk spoke of “altitude control thrusters” and “rear main thrusters”, and said Tesla had “borrowed some technology from SpaceX”.
The physics explains the limits. Stored compressed gas holds very little energy for its weight compared with fuel or batteries. A few hundred litres, even at very high pressure, can deliver strong thrust for only a few seconds. It is enough to steer a jump that has already begun with the car’s own speed off a ramp, but nowhere near enough for sustained, controlled flight. No source reported a jump height or flight duration, and Tesla has not published thrust figures.
Claims and specifications
Tesla says the Roadster will come in three versions:
- Performance (“road ready”): two seats, active aerodynamics and the suction system.
- Thrust (“race ready”): two seats, rear cold-gas thrusters and sub-one-second 0–60 mph acceleration.
- Rocket (“air ready”): one seat, 10 thrusters and what Tesla calls a full flight system, offered by invitation only.
Tesla quotes a range of about 300 miles (480 km) and a top speed above 230 mph (370 km/h). Musk says production will begin in 2028.
Several details differ between reports, and none has been independently tested:
- Acceleration: quoted as 0–60 mph in “one second”, “under one second” or 0.81 seconds.
- Reservation deposits: CBS reports $5,000 for the non-flying car; TechCrunch reports $50,000 for Performance and $250,000 for Thrust.
No vehicle price was announced. The car’s history also counsels caution. Deliveries were promised within “a few years” of 2017, and the unveiling itself slipped from late 2025 to April 2026, and then from 1 October, when weather forced a postponement.
Is it a flying car?
That depends on the definition, and on this point regulators matter more than marketing. CBS reports that the FAA told it the vehicle does not meet its definition of an aircraft. A senior US Transportation Department official expressed scepticism that the car can actually take off, and said there was no clear answer on which body would oversee it. NHTSA, which regulates road vehicles but relies on manufacturers to certify their own compliance, did not respond. Tesla has not disclosed any certification plan for the flight capability.
The headline claim of a “first-ever flying car” does not hold up either. Several companies have built road-capable vehicles that fly in the conventional sense, with wings or rotors and sustained lift. Some have obtained limited airworthiness certificates abroad or experimental permits in the United States. Separately, electric vertical take-off and landing (eVTOL) air taxis, such as those of Joby and Archer, are working through FAA type certification. Tesla’s demonstration is a different thing: a high-performance road car with a thruster-assisted jump. It is engineering theatre of a high order, but it is not evidence of a practical airborne vehicle.
Musk himself was frank about the business case. He said the car is “not necessarily a safety optimised car” and that he was “not sure it moves the needle massively from a revenue standpoint”. Analyst Dan Ives told CBS that investors should not treat it as a growth driver.
Genuine engineering questions
The demonstration still raises real technical questions:
- Pressure vessels. Packing a road car with high-pressure COPVs means managing crash safety, since the vessels could rupture, along with refuelling and inspection over the car’s life. TechCrunch notes that COPVs have been implicated in past SpaceX rocket failures.
- Suction aerodynamics. Fan-generated downforce could improve cornering grip on the road, though fan cars were banned from Formula 1 after 1978 because of the debris they threw up.
- Control. Stabilising a car in mid-air with short thruster pulses requires the kind of fast attitude control developed for reusable rockets, which is the most credible link to SpaceX.
Why NSH is covering it
NSH has included this story because it dominated global technology coverage and its central claim, a flying car, needs testing against the evidence, not because it is a mobility breakthrough. Readers in India, which is developing its own regulatory framework for drones and advanced air mobility, should note the distinction. Real advanced air mobility, including electric air taxis, depends on airworthiness certification, air-traffic integration and safety cases. A ramp jump settles none of those.
