I miss hearing people talk about engines properly. Horsepower. Torque. Mechanical grip. Drivers wrestling with a machine that might try to throw them into the nearest gravel trap if they got cocky with the throttle.
That was the conversation. Was…
Now it sounds like someone reading out the spec sheet for a laptop.
- Battery capacity.
- Energy recovery.
- Megajoules.
- Software deployment.
- Thermal management.
If anyone wants proof of what happens when technology gets piled on top of technology in the belief that it must make things better, you only have to look at the start of the 2026 Formula One season.
The most expensive racing series on earth. The most advanced machines ever built.
And some of them can’t even get onto the circuit.
New Rules, New Problems, Same Old Chaos
Formula One’s 2026 regulations were supposed to be the future.
A radical new power unit splitting output roughly 50/50 between internal combustion and electric power. New energy storage. New deployment systems. Cars that would be faster, greener, and more spectacular.
Two races in, and the future looks like it needs a reboot.
At the season opener in Melbourne, Oscar Piastri never made the start. On his reconnaissance lap, the car dumped an uncontrolled surge of torque through the wheels and sent him straight into the wall. Not a driver error. A software decision that the driver had no chance of correcting.
Max Verstappen’s qualifying was over before it began after the car locked up the rear axle under braking at Turn 1, spinning him into the gravel. He started twentieth. Both Red Bull cars then started the race with almost no battery charge after the new power systems failed to manage energy properly during the formation lap.
Several drivers arrived on the grid with flat batteries. Some couldn’t complete their burnouts to warm the tyres. Franco Colapinto nearly rear-ended Liam Lawson, who was virtually stationary on the grid because his power unit had no energy to give.
And that was just race one. Lap one of a new era!
The Reigning Champions Couldn’t Even Start the Car
In China today, McLaren, the team that won last year’s Constructors’ Championship, didn’t even make it to the grid.
Two cars. Hundreds of engineers. A budget that would fund a small town for a year.
Both Norris and Piastri were ruled out before the race began. Separate electrical issues on both cars. Norris never left the garage. Piastri was wheeled back from the grid moments before the formation lap.
They weren’t alone. Audi’s Gabriel Bortoleto and Williams’ Alex Albon also failed to start. Four cars out before a wheel had turned.
If this had happened at your local track day you’d shrug and say someone forgot to plug something in or tighten a bolt.
But this is Formula One. The supposed peak of engineering.
These cars are built with armies of specialists, wind tunnels that run day and night, simulation systems that cost millions, and software modelling that predicts almost everything that could possibly happen on a racetrack.
Well, almost everything.
Apparently not the bit where the car actually leaves the garage.
When the Race Becomes a Lottery
The race itself wasn’t much better.
Max Verstappen, four-time world champion, was running in sixth when his car lost power with about ten laps remaining. His steering wheel screen went blank. He limped back to the pits and retired. Both Aston Martins also retired. Seven cars in total either didn’t start or didn’t finish.
Verstappen has said publicly that every lap in the new car feels like survival. Not competition. Survival.
That’s a four-time world champion talking about the pinnacle of motorsport.
The pattern from Australia repeated itself. Cars behaving unpredictably. Energy deployment that changes from lap to lap. Drivers gaining or losing positions based on what the software decides to do rather than what they do with the steering wheel.
Lando Norris summed it up after Melbourne. Sometimes the power unit just randomly does things, and you get overtaken by five cars and can’t do anything about it.
The Driver Used to Be the Traction Control
There was a time when the driver was the traction control.
Too much throttle and the rear tyres spun. The driver corrected it with their right foot and their hands. Skill. Feel. Experience.
Now torque delivery is shaped by software. Energy deployment is calculated by algorithms. The differential is electronically controlled. Power arrives in bursts that drivers can’t always predict or manage.
The driver is no longer the entire control system. They’re part of a much larger one.
And when that larger system misbehaves, the driver is just trying to manage the problem rather than drive around it.
That’s why Verstappen’s comments about survival ring true. It’s not bravado. It’s frustration from a driver who knows the car is making decisions he can’t override.
More Technology, More Ways to Fail
There’s a belief in modern engineering that more technology automatically means better performance.
Sometimes that’s true. But sometimes is too unpredictable.
Safety improvements in Formula One are remarkable. Survival cells, the halo, improved barriers and medical response. Drivers walk away from crashes that would have been fatal in earlier decades.
But performance engineering works differently.
Every new system adds complexity. Every layer of complexity adds new failure points.
A mechanical failure is usually obvious. Something broke. Something overheated. Something snapped.
Digital failures are different.
- A power deployment map misbehaves.
- Software delivers an extra 100 kilowatts of power that nobody asked for.
- A sensor feeds the wrong data into the system.
- The battery doesn’t charge on the formation lap because the software couldn’t manage the energy cycle.
And suddenly the most advanced racing car ever built behaves like a confused robot.
The machine might be faster on paper. But it’s also more fragile. And less predictable.
If F1 Can’t Tame Tech, What Chance Has Everyone Else?
This is the part that makes me smile slightly.
Formula One teams have more resources than most industries could dream of.
- Hundreds of engineers.
- Massive computing power.
- Endless simulation.
- Budgets measured in hundreds of millions.
And two races into the new regulations, they’re already talking about changing the rules. There’s discussion about reducing the electrical power output, increasing the internal combustion engine’s share, and adjusting the energy deployment systems. Two races. That’s how quickly the reality caught up with the theory.
Which makes you wonder about the wider world.
Because every industry now seems convinced that adding more technology must be the answer.
- More software.
- More automation.
- More layers of digital systems.
Sometimes that works brilliantly. Sometimes it just adds more points of potential failure.
You end up with a machine that’s incredibly clever but strangely fragile.
Technology Is Brilliant. Until It Becomes the Problem.
None of this is an argument against technology.
Modern engineering has achieved extraordinary things. Cars are safer. Engines are more efficient. Racing technology pushes forward in ways that benefit the wider world.
But there’s a lesson hidden in the chaos of F1’s first two races under the new regulations.
Complexity is not always progress.
Sometimes the cleverest system is also the most delicate one. And sometimes the more layers we add, the further we move from something simple, reliable, and understandable.
- A powerful engine.
- An incredibly skilled driver (they all are).
- Mechanical grip and courage.
That combination worked rather well for decades.
And I think the sport, and maybe the world more broadly, might benefit from remembering that.
Got Questions About F1’s 2026 Growing Pains?
Why are so many F1 cars failing to start or finish races in 2026?
The 2026 regulations introduced a radical new power unit with a near 50/50 split between electric and combustion power. Teams are still learning how to manage the new energy storage and deployment systems, and electrical failures have been widespread in the opening races. Four cars failed to start the Chinese Grand Prix alone.
What happened to McLaren at the 2026 Chinese Grand Prix?
Both McLaren cars suffered separate electrical issues before the race. Lando Norris never left the garage, and Oscar Piastri was wheeled back from the grid moments before the formation lap. It was the first time both McLarens failed to start a race since the 2005 US Grand Prix at Indianapolis.
Why did Max Verstappen crash in qualifying at the 2026 Australian Grand Prix?
Verstappen’s car locked up the rear axle under braking at Turn 1, sending him into a high-speed spin and into the gravel trap. The new power unit’s interaction with braking and energy recovery systems has made cars less predictable under heavy braking. He qualified twentieth and started from the back of the grid.
Are the 2026 F1 regulations going to be changed?
There is already discussion about adjusting the rules after just two races. Potential changes include reducing the electrical power output, increasing the combustion engine’s share, and modifying energy deployment. F1 has indicated it wants to assess the situation after China before making any urgent changes ahead of the Japanese Grand Prix.
How much do F1 drivers actually control in the 2026 cars?
Drivers manage dozens of settings every lap, from energy deployment modes to brake balance and differential adjustments. The new 50/50 power split means energy management takes up a large part of their attention. Several drivers, including Verstappen, have described the experience as closer to system management than pure racing.