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The Technology Behind Formula 1 Racing
swandives writes "The Australian Grand Prix F1 event is being held in Melbourne this weekend (27-28 March) and Computerworld Australia has interviewed the technology teams for BMW Sauber, McLaren Racing, Red Bull Racing, and Renault about how they run their IT systems and how technology has changed the sport. Each car has about 100 sensors which capture data and send anywhere up to 20GB back to the pits during a race. The tech guys arrive a week before a race to set everything up — the kit for BMW Sauber weighs close to 3200 kilograms — and when it's all over, they pack it all up and move on to the next event. Good pics too."
All we need is a good computer analogy to explain this story!
Perhaps you should look up the definition of sport ... I'll help, heres one that matters:
1. (General Sporting Terms) an individual or group activity pursued for exercise or pleasure, often involving the testing of physical capabilities and taking the form of a competitive game such as football, tennis, etc.
If you think there is no physical side to race car driving then I encourage you to ride as a passenger for one F1 race (not that you could) ... I'd bet 2 months pay you couldn't stay conscious just being in the car for a race, let alone staying alert and driving. $50 says you couldn't sit in the car and deal with the heat alone for the length of time they do. $10 says you couldn't stand on the asphalt with the fire suit on for the 2 to 5 hour duration of a typical summer F1 in the US or Brazil or the like.
You post makes it clear that you have no clue whats involved in racing and think when you watch the Indy 500 on TV that its really as easy as it looks on camera.
Yes, high end racing such as NASCAR, F1 and IndyCar (amount other less popular ones) have a great dependency on technology. So does football even if you don't realize it cause its not as obvious. When you consider that several types of racing limit the technology to something from one vendor then the tech matters a whole shitload less. IndyCar for instance uses one engine manufacture and one chassis manufacture and one brand of tire (that may have changed this year, they haven't really figured out their plan yet). So it doesn't matter that they have outrageous technology cause everyone else has the EXACT same tech, once again putting the human perspective back into it. Indy does try a little harder than F1 to make the field more consistent where as F1 is more open and as such has more expensive cars, but you'll find far more varying technology in your local walmart parking lot than you will at any modern high end racing event short of maybe some LeMans events with multiple classes of cars in one race.
Where there are large sums of money involved there are going to be people trying to maximize their portion of those large sums of money however they can and technology is a good reliable starting point for that. Of course its far easier on slashdot to read some article and start proclaiming things like your an expert about something you really don't understand at all. Congrats, you got that part down perfect!
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The tech in F1 is outstanding. They are above and beyond all other forms of motor racing and car technology in general. The Le Mans Prototypes are the only thing approaching F1 levels.
There was a point a few years ago (before the new regulations went into effect) where they were worried that the intake speed of the air into the engine was approaching supersonic. Nobody really knew what that would do to the engines (read: intake manifold).
Last year, on Speed channel, Steve Matchett was interviewing a Red Bull engineer, and the engineer basically said that the real life "Q" from British Intelligence had approached them with questions about their tech. That really says something about the level that F1 plays at.
Here is an interesting fact: Despite all the limiting regulations that have been put in place, including reduced aero packages, no refueling, no traction control, etc., this weekend at Melbourne a new lap record was set by Vettel. The old lap record was set in 2004 with a V10 engine revving to probably 21,000 rpms. Current engine is a 2.4L V8 probably revving to 18,000 rpms. So, despite all the restrictions, the teams are still able to move the technology forward so drastically that they are basically nullifying the FIA's (sport governing body) efforts to slow the cars down.
As an American working with technology, I would hope that more of my peers appreciated the extreme cutting edge that F1 dances on.
I've always figured that if it doesn't require you to be in some semblance of decent physical shape, it's not really a sport.
I'm not sure I can think of a less physically demanding sport than formula 1.
Next time you want to sit in a tiny box at 40-50C, and continuously concentrate for 2 hours on something that requires reactions as fast as a human can manage, while undergoing upwards of 7 lateral Gs. *Then* you can tell us that formula 1 isn't physically demanding.
The average driver loses 2 stone (12 kilograms for those on the continent) during a single race, because the sport is so physical.
I do data acquisition/telemetry/electronics with endurance racing teams in ALMS and other series. While we don't have quite the infrastructure that F1 teams have, we do collect quite a bit of data. In the car, there is a data acquisition system consisting of a combination display/logger, which also collects data from several other components on the car via CAN network. Data can be logged at speeds up to 1000 Hz for detailed analysis once the car is downloaded in the pits. This data is also broadcast via telemetry while the car is on track. The Engine Control Unit has it's own logging capability as well, which collects engine parameters and traction control data. We also collect video whenever the car is on track.
The data we collect is used for several key purposes.
1. Driver performance -- The drivers use a handful of logged channels (steering angle, throttle position, gear, brake pressures, lat/lon G, etc.) to compare laps. With the data, we can overlay laps to compare where time is gained or lost in relation to other laps for a driver or compare to their teammate/co-driver. This helps both drivers to see how things can be done better, which improves laps times.
2. Engineering -- Sensors such as damper (shock) position, ride heights, aero pressures, etc. allow us to quantify what the drivers are telling us. Ultimately, we have to tune the handling of the car to what will allow the drivers to go the fastest. After each outing or session, we'll debrief and they'll tell us what the car is doing in various places around the track. We then use the data to help identify what it is the car is doing physically and what adjustments need to be made to give the driver a better car.
3. Health of the car -- Many channels (temperatures, pressures, amperages, etc.) give us a picture of the health of the car. The car must be reliable and this information can tell us if a component is failing. Even though we can't send data to the car while it's on track, there are ways that we can utilize some of the redundancies built into the systems (electrical systems anyhow) or change other things to help assure the car will make it to the finish.