Safety in IndyCar should take inspiration from Formula 1. The safety systems used in the American series have come under scrutiny following Scott McLaughlin’s crash, where the barriers failed to hold up—unlike those seen at Suzuka during the Formula 1 Japanese Grand Prix.
Motorsport continues to witness high-speed incidents that raise serious questions about the effectiveness of safety infrastructure. Two recent cases provide a particularly useful comparison: the dramatic crash involving Scott McLaughlin during IndyCar free practice at Barber Motorsports Park, and the heavy impact suffered by Oliver Bearman during the Formula 1 Japanese Grand Prix at Suzuka.
The Scott McLaughlin IndyCar crash
During free practice for the Alabama Grand Prix at Barber, Scott McLaughlin lost control of his car on entry to Turn 1. After touching the grass with the right-rear wheel, the car spun and hit the barrier rear-first at high speed. The rear of the car lifted off the ground, the vehicle broke through the barriers, and partially penetrated beyond the protective fencing, forcing a red flag interruption to the session.
McLaughlin was able to exit the cockpit without serious physical consequences and was released after medical checks. However, the impact appeared particularly severe due to the penetration of the barrier and the unpredictable behavior of the car, which effectively “punched through” the containment system.
During the Japanese Grand Prix, Oliver Bearman lost control of his Haas while approaching the Spoon Curve. Ahead of him was the Alpine of Franco Colapinto, which was recharging its battery, but the significant speed difference forced Bearman into an evasive maneuver. The car ran onto the grass before hitting the barrier laterally at Spoon, with a peak deceleration of around 50G.
Bearman suffered only a bruise to his right knee, with no fractures. He was able to exit the cockpit—albeit limping—and reached the medical center for further checks. The impact was described as “massive,” yet the driver avoided serious injury.
Barriers: a gap in effectiveness
The comparison between these two incidents highlights a structural difference in passive safety measures. In Formula 1, the barriers—often made up of high-density tire stacks, TecPro systems, or other advanced energy-absorbing technologies—effectively contained the energy of the impact, dissipating forces of up to 50G without allowing the car to penetrate or break through the protective structures. The driver was subjected to extreme forces, but the system limited the physical consequences to a minor injury.
In contrast, the barriers typically used at IndyCar circuits—generally consisting of SAFER Barriers combined with traditional catch fencing—showed clear limitations in McLaughlin’s accident. The penetration of the containment fence and the lifting of the car suggest a lower capacity for energy absorption and a reduced ability to keep the car within the designated run-off area.
Similar incidents in the past have already demonstrated how these solutions, although improved over time, remain more vulnerable to breaches and unpredictable behavior compared to the standards currently adopted in Formula 1.
Safety considerations in modern motorsport
Over the years, Formula 1 has invested heavily in barrier systems designed to manage extremely high-energy impacts with greater predictability and reduced risk of penetration. This approach has made it possible, even in extreme cases such as Bearman’s crash, to turn what could have been a major accident into an incident from which the driver walks away with minimal injuries.
IndyCar infrastructure, on the other hand, still appears to rely on solutions that, while having saved many lives in the past, now show clear limitations when accidents involve rotations, oblique impacts, or significant vertical loads. The barrier breach seen at Barber is not an isolated case, but rather a signal that the containment system requires a comprehensive update to match the levels of protection that are now achievable.
The incidents involving Scott McLaughlin and Oliver Bearman, occurring within a short period of time, offer a stark comparison. On one side, a barrier system that successfully contained a 50G impact and limited the consequences to a minor injury; on the other, a protection system that failed, allowing the car to break through the fencing.
The superiority of the passive safety measures adopted in Formula 1 compared to those still widely used in IndyCar is clearly evident. It is time for the American series to acknowledge these limitations and invest in more modern and effective barrier systems, reducing a gap that currently exposes drivers to avoidable risks. Safety cannot be a compromise tied to tradition—it must remain an absolute priority, pursued with the highest standards available today.
In summary, the recent crashes involving Scott McLaughlin and Oliver Bearman highlight the significant disparity between IndyCar and Formula 1 safety standards. Based on the content of these incidents, F1’s advanced barrier technology proved far more effective at dissipating extreme energy, whereas the IndyCar barriers at Barber showed worrying signs of structural failure.
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