Posted by Sam on Sunday, October 28, 2012 at 12:54pm.
linear velocity=w*radius
inner velocity=w*(r)
outer velocity=w(r+.340)
So the difference in linear velocities at the track is
outer-inner=w(r+.340-r)=.340 w
Now consider the tires: they have to have the same linear velocity at the pavement. So the difference in tire velocitys is .340w
Inner tire=wit*radtire
outer tire=wot*(radtire)
difference=(wot-wit)radius=w*.340
so the difference in the angular speeds of the two tires is: difference=2Pi*radiustrack*.340/(19.9*radiuswheels)
w = 2*pi*f
f = 1/19.9
where f is the frequency of the car going around the track, w is the angular speed around the track, pi is 3.14
w = 2*pi/19.9 =0.315
The speed traveled by one tire is
w*r
where r is the radius of the wheel
The speed traveled by the other tire is
w*(r+1.63)
The difference in speeds of the wheels is w*(r+1.63)-w*r = 1.63w = .513 = w(tire)*r(tire)
where w(tire) is the angular speed of the tire, and r(tire) is the radius of the tire
w(tire)*0.340 = 0.513
Solve for w(tire)
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