The teams bring enormous amounts of equipment to each race. Obviously a lot of that equipment is wrenches, screwdrivers, and related machinery. But every team is bringing essentially a portable datacenter to each race:
The car has around 300 sensors and the SECU monitors over 4,000 parameters. During the course of a typical race the car will transmit around 3 GB of telemetry data as well as around 4 GB of logging, however this is just the seed for computation. When processed and combined with other sources such as audio and video analysis it can mean a team leaves a typical race weekend with over a terabyte of valuable data — data that is drawn on again and again before and during future events and seasons. -- https://www.eetimes.com/the-importance-of-electronics-in-for...
https://motorsport.tech/formula-1/fuel-flow-gate-did-ferrari...
To those not familiar, Adrian Newey, currently at Red Bull Racing, is the most successful race car designer by almost any metric. His first championship winning cars were designed in the 1980s (for American racing series), and he's built championship winning cars for Williams, McLaren and Red Bull.
Very interesting read, especially about the dynamics. Winning teams have a focus, they don’t run well by committees (look at Ferrari) the difference between a championship and average season is often in the margins and the spaces between the “rules.”
I might be all wrong with this, but it's the impression I got from his book.
[0] https://www.racecar-engineering.com/ [1] https://twitter.com/ScarbsTech
You could stick a commodity pushrod V8 in there and make 1000hp easy with a bolt on turbo and run the same laptimes.
Nothing else on earth is close to the aero.
Here's the issue: the engine manufacturers are also one of the most important financial sponsors of the sport. You'd need to convince Mercedes, Ferrari and Renault to build obsolete engines and put down a big bag of money.
And besides, you won't be able to fit a big V8 engine under the bodywork of a current-gen F1 car with the narrow coke bottle shape at the rear.
The engines are also pretty damn impressive, running at 50%+ thermal efficiency. Ye olde pushrod V8 would run out of fuel at half race distance with current fuel regulations.
70 years of iteration on a basic design goes a long way.
The engine would have to put out about 7 mpg at 110 mph average speed, with lots of braking and acceleration and top speeds north of 200 mph.
It would need a turbo and significant amount of boost to put out a comparable 850 hp. And not exceed 100kg/hour fuel flow rate.
And it's still about 60kg heavier at about 150kg vs. 210kg.
All of this is kinda a silly comparison, because an LS engine won't fit in an F1 car and afaik can't be used as a stressed structural member.
But in all honesty, you have to hand it to the old American V8, it is at a hell of a local maxima.
Fuel chemistry, aerodynamics, functional simulation, driver ergonomics, safety dynamics, tire chemistry, metallurgy, analytics, data recording, composites, suspension, real-time telemetry and communication, digital systems management.. the list goes on forever.
If the device/technique/procedure wasn't invented by F1, it was made better by it, and tons of it have trickled down to consumer products in the past 70+ years.