Tesla Roadster 2026: Elon Musk’s flying car – trims, technology, price and release date

Explained · Updated 19 October 2026

Tesla Roadster 2026: Performance, Thrust and Rocket explained

Tesla has demonstrated the new Roadster at SpaceX’s test site in Texas – with fan-generated downforce, cold-gas thrusters and a jump off a ramp. What the three trims can do, what a reservation costs and what remains open on the road to the 2028 production target.

• 0–60 mph in 0.81 seconds during the live demo, according to Tesla
• Flight capability only on the single-seat Rocket, not approved for roads
• Reservation: $5,000 now plus $45,000 or $245,000 within ten days

Unveiled on 15 October 2026 (local time) · SpaceX test site, McGregor, Texas

The three trims Video and demo

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The new Tesla Roadster is an electric sports car with a fan system for extra downforce and – depending on the trim – cold-gas thrusters borrowed from spaceflight. Tesla offers it in three versions: the road-ready two-seat Performance, the limited, track-focused Thrust with rear thrusters, and the single-seat Rocket, which is invite-only and, according to Tesla, can fly. Tesla unveiled the car on the evening of 15 October 2026 local time in a livestream from the SpaceX test site in McGregor, Texas. Elon Musk named 2028 as the start of production.

Nine years after the next-generation Roadster was first shown, the project finally has hard material again: a 23-minute official video, a reworked product page and a reservation page with concrete amounts. This explainer covers what Tesla officially states, what could be seen and heard at the demonstration, how the technology works and which questions remain open for buyers – from the purchase price and road approval to delivery dates.

Updated: 19 October 2026. Based on Tesla’s US, UK and German product pages, the reservation pages, the full recording of the event on Tesla’s channel and Tesla’s posts on X. We have not driven the Roadster ourselves; performance figures are manufacturer claims or statements made during the presentation.

The key facts in 20 seconds

Performance, Thrust and Rocket: three very different Roadsters

Before discussing the new Roadster, it is worth asking which trim a claim refers to. Tesla’s US product page lists three versions with different purposes, seat counts and ways of getting one. The most spectacular abilities – flight manoeuvres and rolls – belong exclusively to the Rocket. Merging the three profiles into one car that has every extreme figure at once would be wrong.

Tesla’s footnotes deserve a close look. The US and UK pages state that the features and specifications shown “are reflective of our Thrust augment only and are available as an optional upgrade”. On top of that, the paragraphs about holding the car upside down, steer-by-wire, Track Mode and stabilising the car “in flight” carry a footnote saying they are available with the Rocket trim only, which is not offered in all regions. Anyone reserving a Performance should therefore not assume every ability shown in the video.

More figures appear not on the product page but in a post by Tesla on X shortly after the event: a range of over 300 miles, a top speed of over 230 mph for the Rocket, and 0–60 mph times of under 1.6 seconds (Performance), under 0.9 seconds (Thrust) and under 0.59 seconds (Rocket). The product page’s “under 1 second” for the Thrust and the post’s “under 0.9” do not contradict each other, but they show how vague “under” figures are. Tesla does not say how the range was measured, and there is no WLTP figure for Europe yet.

The event in McGregor: what Tesla showed

The presentation was streamed live on Tesla’s YouTube channel and on X. According to the recording’s metadata, the broadcast began on 16 October at 00:55 UTC – still the evening of 15 October in Texas and just before 3 a.m. in Central Europe. The venue was SpaceX’s rocket test and development site in McGregor, about 4,000 acres in size. As a warm-up, the hosts said, a Raptor engine had been static-fired.

On stage, Elon Musk was joined by Tesla chief designer Franz von Holzhausen and Lars Moravy, Tesla’s vice president of vehicle engineering. According to McGregor’s mayor pro tem, around 200 to 300 guests watched on site, local broadcaster KWTX reported. The recording runs for about 23 minutes and is divided into chapters. The ramp demonstration, in which a Roadster lifted off and was stabilised in the air, a manoeuvre dubbed the “kickflip” and an acceleration run on the test pad drew the most attention.

The video only loads from YouTube after you click (privacy-enhanced mode).

One detail matters for interpreting the footage: according to Musk, the car was “technically autonomous” for the demo to make sure nobody got hurt. The hosts introduced a figure in the car as Starman – and stressed that it was not a real person. Media reports variously describe the car as remote-controlled or autonomous, but all agree that no human was inside during the flight manoeuvres. The flight manoeuvres were therefore an automated demonstration, not proof of how the car flies in a customer’s hands.

Tesla also accompanied the presentation on X. The following posts come from the official Tesla account; we noted the view counts on 19 October.

What was said on stage – with timestamps

Many figures for the new Roadster come from the presentation rather than the product page. We picked out the key statements using the recording’s automatic transcript. The timestamps take you straight to the right moment in the original video so you can check every sentence yourself.

1. 2:30We need an audience to prove that it’s not AI …Elon Musk to the spectators at the test site
2. 4:39It is technically autonomous for this demo to make sure we don’t kill anyone.Musk on how the demonstration was run; long term, the Roadster is meant to be Tesla’s only manually driven car
3. 7:46Flying cars are real.Musk straight after the ramp demo
4. 8:11A fan suction system on the bottom of the car can pull up to 2 g.Explaining how the car could stick upside down; SpaceX technology does “the rest”
5. 10:22This is not necessarily a safety-optimised car.Musk on the Rocket’s flight capabilities
6. 11:50I’m not sure it’s necessarily legal in all jurisdictions, but there will be such a car that someone can own.Musk after the “kickflip”
7. 12:11Two pressure vessels, 600 litres in total, about 250 kilos of air and ten nozzles.Technical figures for the thruster system shown; the car can refill its air tank itself
8. 18:300.81 seconds.Time of the 0–60 mph run, shown during the event
9. 20:28The car can go over 230 miles per hour.Musk on top speed, roughly 370 km/h
10. 21:12We enter production in 2028 – actually, for real.Musk’s answer to the question of when customers will get the car, met with laughter from the audience

The quotes show how the presentation was pitched: as a show mixing technical details with punchlines. For a buying decision, the sentences about safety, legality and production matter most. Musk himself cautioned right at the start that success was “not guaranteed”.

The technology: fans, cold-gas thrusters and steer-by-wire

Technically, the new Roadster rests on three pillars that Tesla sums up in one line on its product page: active aero, cold-gas thrusters and a multi-mode suction system. On top of that comes electronic steering without a mechanical link. How the parts work together can be reconstructed fairly precisely from the product page and the presentation.

The suction system is the most interesting component for track use. A wing only produces downforce when air flows over it, whereas a powered fan works regardless of speed. Tesla says this creates enough suction “to hold the vehicle upside down, even when stationary”. During the presentation, the team said ordinary tyres typically manage about 1.26 g; with the suction system, cornering at more than 2 g would be possible. At low speed the system sucks the car down; at high speed the front and rear sections open to channel more air under the car.

The principle is not new: the British McMurtry Spéirling also uses fans and drove upside down on a rotating rig in 2025. Fan cars go back even further, to the Chaparral 2J of 1970 and the Brabham BT46B, which won a Formula 1 race in 1978.

The cold-gas thrusters come from spaceflight, where such systems orient satellites and rocket stages. According to the presentation, two carbon-overwrapped pressure vessels holding 600 litres in total store about 250 kilograms of air at very high pressure. Ten nozzles release it on demand; the product page says the actuators are all-electric and make micro-adjustments “within a fraction of a second”. No rocket propellant is needed: the car is supposed to refill its air tank itself. At the four rear nozzles, the team said, the exhaust leaves faster than the speed of sound – visible as so-called Mach diamonds in the jet.

Lars Moravy went into far more detail in an interview with the car magazine Hagerty. According to him, two electric motors drive only the rear wheels and together deliver more than one megawatt (over 1,340 hp) and more than 1,400 Nm – unlike the all-wheel-drive, three-motor concept of 2017. The Thrust gets four cold-gas thrusters fed from a 200-litre tank of compressed nitrogen behind the seats. The Rocket replaces the passenger seat with another 400-litre tank and adds six more thrusters. Together that makes the 600 litres and ten nozzles mentioned on stage. That the stage talked about air and the interview about nitrogen is no real contradiction: air is about 78 per cent nitrogen.

The video only loads from YouTube after you click (privacy-enhanced mode).

According to a summary of the interview by TeslaNorth, Moravy also gave a weight of just under 1,700 kilograms (final figures pending), 4680 cells at around 800 volts and a target of 15 to 80 per cent charge in about ten minutes. The limits of the thruster system become clear too: refilling all 600 litres currently takes six to seven hours, with about 30 minutes as the goal. For the Thrust, which uses the nozzles to accelerate, and even more for the Rocket, that is the key practical question – how often the boost can be used on a track and what maintenance the high-pressure tanks need.

Steering and chassis barely feature in the clips but are crucial for drivers. According to the presentation, steering, brakes and throttle are by-wire, and the yoke was designed specifically for steer-by-wire. The US product page also describes a Track Mode that lowers the car and transforms the suspension, plus selectable high-downforce and low-drag modes. For weight saving, Tesla mentions magnesium, titanium and carbon fibre, seats moulded into the chassis with a fixed seating position, and manual controls.

0.81 seconds: what the figure means – and what it doesn’t

The number of the night was 0.81 seconds – the time the Roadster needed to go from 0 to 60 miles per hour in the acceleration run, as shown during the presentation. Tesla advertises the Thrust with “0–60 in under 1 second” on its US and UK pages, while the German, French, Italian and Spanish pages say “0–100 in under 1 second”. That is a separate claim, not a conversion: 60 mph equals about 96.6 km/h, so 100 km/h is a little further. On X, Tesla also gave target figures for all three trims – from under 1.6 seconds for the Performance to under 0.59 seconds for the Rocket.

Shorter is quicker. All figures come from Tesla or Tesla’s presentation; none is independently measured.

Roadster concept, 2017claim at the unveiling1.9 s

Performance, Tesla 2026target per X post< 1.6 s

Thrust, Tesla 2026target per X post< 0.9 s

Demo on 15 Octobertime shown during the event0.81 s

Rocket, Tesla 2026target per X post< 0.59 s

Bar length relative to the 2017 figure. Tesla has not published the conditions of the demo run – surface, start definition, vehicle configuration.

Four points matter. First, the time was set under event conditions on a shortened run; the team itself said there was “not a whole lot of room out on the pad”. Second, the Thrust uses rear-thruster force on top of tyre grip, so acceleration does not depend on the tyres alone. Third, Musk said the production car would do “better than that”, the limit being not to “detach the retina” of the driver. And fourth, not all figures are measured the same way: Hagerty host Henry Catchpole described the Rocket figure as a rollout time. US magazines traditionally ignore the first foot of the run, which shortens the time noticeably. Until an independent, documented test exists, 0.81 seconds remains a manufacturer figure from a demonstration.

Design and interior: spaceflight as the template

Visually, the 2026 Roadster has little in common with the red prototype of 2017. On stage, the design team named the SR-71 reconnaissance aircraft and transforming cars as inspiration. Tesla describes hidden headlights, a full-length taillight and flush-mounted aerodynamics that “conceal the vehicle’s true form”. Thin-spoked wheels are meant to be very light yet strong.

The Ano White paint, Tesla says, takes inspiration from aerospace techniques: UV and cryogenic protection in space plus electrostatic dissipation and corrosion resistance for rockets before launch and during recovery. The windows are tinted gold to mimic the copper coating of spacesuit visors, complemented by titanium accents.

Inside, Tesla uses an Ultrawhite interior with grey microsuede details. The seats have microsuede bolsters and a “speed line” perforation pattern. According to the US page, the driver faces a yoke designed for steer-by-wire, a centre touchscreen and two smaller forward displays for critical driving information. Because the seats are moulded into the chassis, the seating position is fixed – so other things, such as pedals or steering, would have to adjust. How well that works for drivers of different sizes is one of the practical questions only a test drive can answer.

Roadster 2017 versus 2026: what is left of the original plan

Many spec sheets online still mix the 2017 figures with the 2026 car. Back then, Tesla unveiled the next-generation Roadster alongside the Semi truck and quoted numbers that are still widely repeated. The table separates the two.

The idea of building space technology into the Roadster is older than the new design. As early as June 2018, Musk announced on Twitter a “SpaceX option package” with about ten small rocket thrusters, fed with compressed air from a SpaceX pressure vessel – the trade-off being that the 2+2 would become a two-seater. That is exactly what happened in 2026. The range, on the other hand, has shrunk on paper from over 620 to over 300 miles – less than half of the promise on which reservations were collected in 2017. And in February 2018 a Roadster did fly into space: Musk’s personal first-generation Roadster, with the Starman mannequin at the wheel, launched on the Falcon Heavy’s maiden flight. That car has nothing to do with the new model – but the presentation referred to it repeatedly.

Price and reservation: what Tesla actually shows

Tesla has not published a purchase price – only the reservation amounts. On the US reservation page, the Performance requires $5,000 up front, labelled “fully refundable”, and a further $45,000 within ten days. For the Thrust, the second payment rises to $245,000. The UK page shows the same figures in pounds, and euro markets such as Germany, France, Italy and Spain the same figures in euros. The conditions read: “Reservations are not final until payment is received. Reservation subject to cancellation if payment is not completed within 10 days. Refunds for modifications will not be issued.”

Headlines such as “the Roadster costs $50,000” are therefore wrong: they confuse the reservation amount with the price of the car. The reservation also says nothing about delivery dates or which features will be included in the configuration you order.

Release date: production from 2028 – with a history

Asked when customers will get the car, Musk answered at the end of the presentation that production will start in 2028 – adding, amid laughter, “actually, for real”. The audience had its reasons: when the car was unveiled in 2017, availability was announced for 2020, and the date has slipped several times since. In Tesla’s quarterly investor updates, the Roadster was listed as “In development” for years, and in early 2026 as “Design Development”.

1. Nov 2017UnveilingShown together with the Semi, with availability announced for 2020.
2. Feb 2018Roadster in spaceMusk’s first-generation Roadster flies on the Falcon Heavy – a different car.
3. 2020–2025In developmentTesla lists the Roadster as a development project in its quarterly updates; target dates keep moving.
4. Sep 2026Date movedThe event was planned for 1 October; because of severe weather forecasts, Tesla moved the outdoor show to 15 October.
5. 15 Oct 2026Demo in TexasNew design, three trims, flight and acceleration demos, reservations open.
6. 2028Production targetAnnounced start of production. Factory, volumes and regional delivery dates are open.

A production target is not a delivery date. Between the start of production and handover lie the ramp-up, market approvals and logistics. Musk also announced a further demonstration: a jump over Snake River Canyon, in a nod to stuntman Evel Knievel’s failed attempt in 1974. Two days later he added on X that future demos would include flying over the Snake River “or maybe Grand Canyon”, landing on the wheels and exceeding half the speed of sound. No date was given for any of them.

Is the Roadster road-legal – and may it fly?

The clearest statement comes from Tesla itself: the Rocket is “not approved for public road use” and may not be available in all regions. According to the European product pages, availability is also subject to the legal requirements and applicable laws of each region. On stage, Musk said he was not sure such a car was legal in all jurisdictions.

For the Performance and Thrust, road approval depends on each market’s vehicle regulations – in the European Union, on the type approval every new production car must pass. Whether and with which functions that will succeed is open, especially for nozzles that expel compressed air at supersonic speed. No European or UK authority has commented so far. In the US, regulators already have: the FAA told CBS News that “the Tesla vehicle does not meet the FAA definition of an aircraft”. NHTSA said the manufacturer must comply with federal motor vehicle safety standards and that it “won’t hesitate to act to protect the driving public”. Flying is another matter altogether: a crewed vehicle that leaves the ground falls under aviation law and would need certification as an aircraft. The European Union Aviation Safety Agency (EASA) sets out separate requirements for vertical take-off and landing aircraft. Drone rules do not help here – they only apply to uncrewed aircraft. Germany’s Aviation Act is worth noting: under section 1(2), even “spacecraft, rockets and similar flying objects” count as aircraft while they are in airspace. No authority has assessed whether a jumping Roadster would qualify. Our assessment: lifting off in public spaces in Germany is hard to imagine without permission under aviation law.

Reactions: between amazement and scepticism

Few car launches in recent years have spread so quickly and divided opinion so sharply. Musk’s own post with the ramp clip had reached around 77 million views by 19 October. Reactions range from admiration for the engineering to fundamental doubts about its use.

The best-known criticism came from AI researcher and NYU professor Yann LeCun. His back-of-the-envelope maths: compressed air has a specific impulse of less than 50 seconds; even if half the car’s mass were compressed air, that would give less than ten seconds of useful thrust, “probably more like 5 seconds”. Musk replied with the Monty Python quote. LeCun’s estimate is close to the calculation in our fact check of the flight video: there, too, the air supply only lasts for seconds in the air.

The car press is divided as well. Electrek considers the engineering real but doubts Tesla will sell more than a handful of Thrust and Rocket cars, and points to the halved range. British car reviewer Mat Watson of Carwow suspects, according to MotorBiscuit, that the demo cars had been “seriously lightened”. And on 18 October Musk himself put the project in context on X: Optimus and Cybercab would make up the vast majority of Tesla’s value – “But Roadster is super cool, so we’re doing it anyway.”

Our assessment: a great show, not yet a finished car

For us, the fan system is at least as exciting as the flight. Downforce that does not depend on speed could fundamentally change how a sports car behaves on track. The challenge lies in the overall package: energy use, noise, sealing, durability and driving feel all have to work together. For buyers, that is a more important question than any single spectacular clip.

Tesla Roadster 2026: frequently asked questions

TransparencySources and data23 entries

This article is based on Tesla’s product and reservation pages, the full recording of the Roadster event and Tesla’s posts on X, all accessed on 19 October 2026. Quotes from the event were taken from YouTube’s automatic transcript. Sources already linked in the text are listed without a second link. Manufacturer claims, media reports and our own assessments are labelled as such in the text.

Tesla (manufacturer sources)

• Tesla US: Roadster product page – linked in the text (trims, 0–60 mph, steer-by-wire, Track Mode, Rocket footnotes)
• Tesla Germany: Roadster product page (0–100 km/h claim, availability note)
• Tesla US: reserve a Roadster – linked in the text ($5,000 + $45,000 or $245,000, conditions)
• Tesla UK: reserve a Roadster (payments in pounds)
• Tesla on YouTube: “Roadster Event”, livestream of 15/16 October 2026 – embedded in the text (chapters, quotes, 0.81 s, 2028)
• Tesla on X: posts of 15, 16 and 18 October 2026 – linked in the text
• Tesla: Semi and Roadster unveil, 2017 (historic figures: 1.9 s, 200 kWh, 620 miles, 2+2 seats, 2020)

Media, regulators and reactions

• Tesla on X: trim overview of 16 October 2026 – linked in the text (range over 300 miles, 0–60 mph targets, over 230 mph)
• Hagerty on YouTube: interview with Lars Moravy, 16 October 2026 – embedded in the text (drivetrain, tanks, thrusters; statements in conversation)
• TeslaNorth: summary of the Hagerty interview, 16 October 2026 – linked in the text (weight, battery, refill time)
• CBS News: questions to DOT, FAA and NHTSA, 16 October 2026 – linked in the text
• Snopes: fact check of 16 October 2026 – linked in the text (rating “True”)
• Top Gear: “The Tesla Roadster has finally landed”, 16 October 2026 – linked in the text
• Reuters (via Spokesman-Review): launch report, 15 October 2026 – linked in the text (Munster, Morningstar)
• The Motley Fool: market report of 16 October 2026 – linked in the text (close at $354.72)
• Electrek: report by Fred Lambert, 15 October 2026 – linked in the text
• MotorBiscuit: Mat Watson’s view, 18 October 2026 – linked in the text
• KWTX: report of 16 October 2026 – linked in the text (200 to 300 guests)
• X: posts by Elon Musk (June 2018 and 16, 17 and 18 October 2026) and Yann LeCun (17 October 2026) – linked in the text
• Gesetze im Internet: section 1 of the German Aviation Act (LuftVG) – linked in the text

Regulation and physics

• EASA: Vertical Take-Off and Landing – linked in the text (general framework, no Roadster classification)
• NIST: conversion factors (1 mile = 1,609.344 metres)
• NASA: State of the Art of Small Spacecraft Technology, In-Space Propulsion (how cold-gas thrusters work)