

Now,
Distance to be traveled on straight track, d = 250 m
Now,
radius of the curvature, r = 50 m
From figure we can see angle covered is 120
Thus, distance to be traveled on curved path, d' =
(120/360)*2**r
= 1/3*2*3.14*50
= 104.66 m
Thus, total distance traveled, x = d + d' = 250 + 104.66
= 354.66 m
As we have,
=> x = 0.0033 * t3
=> 354.66 = 0.0033 * t3
=> t3 = 354.66 / 0.0033 = 107472.7
=> t =
= 47.54 s
Now,
v = 0.01 * t2 = 0.01 * 47.542
= 22.6 m/s
and
a = 0.02*t = 0.02 * 47.54
= 0.95 m/s2
at = 0.02 m/s^2 where t is the time in seconds measured from rest. Imagine starting...
A) Starting from rest, you accelerate at 6.0 m/s/s for 5 seconds. You then travel at constant speed for 10 seconds. What is the constant velocity you are moving at after 5 seconds? B) Starting from rest, you accelerate at 6.0 m/s/s for 5 seconds. You then travel at constant speed for 10 seconds. How far did you travel over the 15 seconds?
Not
sure if these are right
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