On 29 November 2020, at the Bahrain International Circuit in Sakhir, Romain Grosjean’s Haas lost control at 241kph, struck the guardrail at 192kph with a peak of 67g, went through it and caught fire. Twenty-seven seconds later the driver walked out of the flames on his own legs. On 3 July 2022, at Silverstone, Zhou Guanyu’s Alfa Romeo was hit at the first corner, flipped and slid upside down into the tyre wall. After the race Zhou was talking to his team in the pit lane, unhurt. These are the two accidents that explain what Formula 1 is for better than any press release.

Updated September 2026.

Two men who should have died

It is worth pausing on those two freeze frames, because they tell different stories. Grosjean survived through the combination of a carbon fibre survival cell, which held against a 67g impact on a triple guardrail, and a fireproof suit that bought him the time to climb out of a blaze at temperatures that would have killed anyone within seconds. The medical report lists burns to the backs of both hands, a sprained left ankle and some bruising. No fractures.

Zhou survived thanks to nine kilograms of titanium that, a few years earlier, much of the paddock wanted removed. The Halo, the hoop anchored to the chassis at three points above the cockpit, began as a Mercedes proposal, with the team releasing its video in August 2015, and was then developed and tested by the FIA. The reaction was an outcry: ugly, against the spirit of racing, ruinous for visibility. These were the same months in which motorsport was mourning Jules Bianchi, who died in July 2015 after nine months in a coma following his crash at Suzuka in October 2014.

In July 2017 the FIA decided to make it mandatory anyway, from 2018 in Formula 1, Formula 2 and Formula E, then in Formula 3 from 2019 and Formula 4 from 2022. It has to withstand 125 kilonewtons, close to twelve tonnes. On 13 May 2018, in Formula 2 at Barcelona, driver Tadasuke Makino became its first beneficiary in a race when Nirei Fukuzumi’s car climbed over the side of his and the rear wheel landed on the Halo. On 12 September 2021, at Monza, Max Verstappen’s Red Bull ended up on top of Lewis Hamilton’s Mercedes: the right rear wheel touched the top of the helmet and the hoop deflected the load. Hamilton said it had saved his neck. Nobody proposes removing it now.

The paradox that makes 2026 interesting

Let us call “the double constraint” the condition motorsport has always designed within, and which in the 2026 season becomes more explicit than it has ever been. This year’s cars are lighter and smaller than their predecessors: minimum weight drops to 768 kilograms against 800 in 2025, the wheelbase shortens from 3,600 to 3,400 millimetres and the width from 2,000 to 1,900. At the same time the FIA has made homologation stricter. The roll hoop, the structure behind the driver’s head, is now tested at 20g instead of 16 and with a 23% higher load; side intrusion protection at the flank of the fuel cell has been more than doubled; and the nose is a two-stage design, so that after a first impact a structure capable of absorbing a second one remains.

Taking away thirty-two kilograms and increasing structural resistance are two demands that pull in opposite directions. That is precisely what makes the regulation interesting: it forces more safety out of less material, which happens to be the central problem of the car industry for the past twenty years, where every kilogram saved is range gained or emissions avoided.

The icebreaker

The top tiers of motorsport work like an icebreaker opening a route for the rest of the industry, though it pays to be precise about what has actually crossed the ice. The carbon fibre monocoque arrived in Formula 1 with the McLaren MP4/1 in 1981 and on a production car only in 2003, with the Mercedes SLR McLaren: twenty-two years apart. Brake energy recovery entered Formula 1 as KERS in 2009 and is now in every hybrid on the road. The survival cell, meaning the very idea that the cockpit should be a rigid structure that does not deform while everything around it is sacrificed, comes from there.

Other things have travelled in the opposite direction, and it is only fair to say so. Traction control was born on a production car, the 1971 Buick Riviera, almost twenty years before it worked properly in Formula 1. Fireproof fabrics are a chemical industry development that racing adopted rather than invented. And the HANS device, created in motorsport in the mid-1980s and mandatory in Formula 1 since 2003, has never reached everyday cars. The transfer is real, but it is neither automatic nor one-way.

It is a slow transfer, and one that goes largely untold, because it reaches our cars without a badge and without a date. Nobody getting into a car thinks that the structure protecting them in a head-on impact descends from a series of tests designed to keep someone alive at 300kph. But there it is.

Why this matters to anyone buying sponsorship

The reason this story should interest a company is not sentiment. It is that safety is one of the very few areas where motorsport produces results anyone can verify, and verify in a domain, human life, that needs no explaining to any board.

A supplier of composite materials, braking systems, on-board electronics, technical textiles or simulation software entering Formula 1, MotoGP or Formula E is not only buying visibility: it is buying a test bench no laboratory reproduces and a story the marketing department does not have to invent. It is the difference between saying a product is reliable and showing where it was put to the test.

It is also why motorsport occupies an anomalous position among sports. It lives simultaneously as entertainment, as industrial research and as real risk, and the three dimensions cannot be separated. Remove the risk and you remove the reason those technologies get developed; leave it without countermeasures and you go back to the years when someone died every season.

What is left to do

The question the federation has been asking itself for decades looks absurd: can twenty cars race at 350kph on a track nine metres wide in complete safety? The honest answer is no, not in complete safety. The useful answer is that every year the margin moves a little further out, and that every shift eventually reaches the road.

Grosjean and Zhou walked away from their cars because for forty years somebody kept moving that margin, often against the opinion of those who found the countermeasures ugly or excessive. It is worth remembering every time a new safety rule is met with irritation, because the cost of that rule is visible immediately and its benefit only shows on the day it is needed.

That is what Formula 1 is for. Not to establish who is fastest, which is merely the pretext. To find out, in conditions nobody would reproduce voluntarily, how far the protection of a human being inside a moving object can be pushed.

Sources: Formula 1, the introduction of the Halo from 2018; FIA Foundation, the Halo and the crashes where it protected drivers; Mercedes-AMG F1, the 2026 chassis and regulation changes; Crash.net, the 2026 rules across aero, chassis and engine.