Does
F1 technology benefit us?
Sure,
that new paddle shift on your Ferrari F360 is
an example of F1 technology for the street,
but what about the rest of us?
Racerchicks.com
technical advisor and racing expert
Robert gives us his run down on how Formula
One Racing technology has made it's mark in
our everyday cars:
Let’s
take a look at a few areas of street
technology that has benefited by, if not been
created by F1:
Antilock
braking
Back in
the heady days of electronic everything in F1,
antilock systems got a real workout at
10/10’s on the track. Purists always felt it
interfered with the real nature of racing,
letting the driver just stand on the brakes,
without concern for skid or direction. So,
just as these electronic systems disappeared
in F1, they became commercially popular in our
family Blatburg.
Systems
for antilock actually had their start in
aircraft, where the need for fast, controlled
deceleration was paramount. Ever see a salt
truck out on the old runway, giving one a good
dose? Well, I sure hope not, because salt is
very corrosive to the aluminum alloys used in
aircraft manufacture. And of course, when you
have a 100 million dollar airplane, you can
afford to spend a lot to help keep it in one
piece. Back then, the electronics were larger
than a breadbox, and cost more than, well, a
decent car,. Like so many things today, you
can thank the rapid evolution of the
microprocessor for making it possible to have
that technology today in the old Blatburg.
While
I don’t want to get into a technical
discussion of antilock, suffice to say the
each wheel has a sensor that counts the
revolutions, and they are connected to a
computer that analyzes the motion of each
wheel, relative to one another. When you step
on the brake it looks for a wheel to stop
turning, or turn slower, which means it is
sliding, or skidding. So, a neat little valve
in the brake line pulses the individual brake
very quickly to correct the problem.
Traction
Control
Anybody
who lives in a climate where you get ice and
snow knows having traction control on the ol’
BMW might be the difference between getting up
Aunt Thelma’s hill, or leaving her without
toilet paper for another week.
While
F1 doesn’t race in ice and snow conditions,
(well, with the near exception of Silverstone
last year), traction control was another very
useful technology for laying down eight
hundred to a thousand horsepower through a
couple of wheels. Drivers could just hold down
the accelerator pedal, and let the electronics
do their job and hence, could concentrate on
other parts of their driving.
Big
surprise, it happens to use some of the same
sensors that the antilock system does. And
another surprise, the brakes can actually be
useful in forcing the differential to transfer
power from a slipping wheel to one with
traction. Now, like most good things, it
isn’t quite so simple as just putting the
brake on. And it happens to need another
critical part that just happens to be our next
topic of conversation.
Fuel
Injection
The term fuel injection has been around for a
long time, even longer than I have, though it
has taken many forms over the years. First,
mechanical systems metered the fuel out to
each cylinder timed to coincide with the
intake stroke of the engine. And again, the
aircraft industry needed the efficiency of a
system that worked well no matter what
orientation the airplane might be in. Some out
there might remember downdraft Weber carbs on
pictures of F1 cars, and long for the great
sounds, but fuel injection became standard
equipment when teams realized they could get
better, smoother power delivery with more
precise fuel control.
Electronic
fuel injection made an appearance first on
passenger cars with the advent of clean air
regulations, in an effort to keep reasonable
driveability with emission reductions. Now,
for those of us who drive normal cars, it is
generally best to keep them in one
orientation, wheels down, except for stunt
shows. (Nika – hint!!!).
Modern
F1 systems in the early 90’s used the fuel
injection for another purpose, that’s right,
traction control. They found they could
combine the injection and ignition systems in
a powerful computer that could precisely
control the power output of the engine by
selectively shutting off cylinders. When you
combine it with traction control mentioned
earlier, it was so effective, it was banned by
F1 for again substituting technology for
driving skill.
Today,
it is ironic that because of technology, F1
has agreed to reinstate traction control as
they realize their inability to prove whether
or not a team is using it. So, better to just
let it be legal than waste time checking
thousands of line of software in engine
management systems.
So,
the big question, how much has advanced
technology in F1 helped our cars? In a word, a
bunch. F1 is the only virtually unlimited
technology game in motor racing today, and
this forces manufacturers to experiment with
new solutions, even at great cost. Now it may
take time for those solutions to filter down
to the rest of us, but you can see the impact
in not only the topics we have discussed
today, but active suspension systems, tire and
wheel technology, and new lightweight
composite materials to name a few.
Heck,
in a few years I look forward to my 800
horsepower, 17,000 rpm, paddle shifting
Blatburg that will run for a couple hundred
thousand miles, and so can you.
Racerchicks
wants to extend a big thank you to Robert for
his support. For a historical view -
check out our Cars of The Future Series PART
7 Racing (1971) for what was expected in
the future...meaning now!
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