instead of answering question calculate distance from instantaneous
center to center of massSince, you do not want the answer to the asked questions, I'm
going to skip the procedure, but the velocity of end B is required
to find out the Instantaneous center therefore, I'll just use the
results.
VB = 1.869 in/s at an angle of 59.1o with
horizontal.
Now, we know, the instantaneous center of rotation can be found
out by drawing perpendicular lines to the velocity vectors at the
ends of the rod and locating the intersection point of the two
lines. Velocity of end A is horizontal, therefore, perpendicular to
it will be a vertical line. Similarly, a perpendicular line is
drawn to the velocity vector at end B, which will be at an angle of
30.9o with horizontal as shown below:

In the figure, point C represents the Center of mass and O
represents the Instantaneous Center of Rotation.
Now, We need to find out the length OC.
AD = AB Sin 35o = 20 x 0.574 = 11.47"
BD = AB Cos 350 = 16.38"
OD = BD Tan 30.9o = 9.805"
OA = AD + OD = 11.47 + 9.805 = 21.275"
Now, AE = 10 Sin 35o = 5.735"
Therefore, OE = OA - AE = 21.275 - 5.735 = 15.54"
And EC = 10 Cos 35o = 8.19"
Using Pythagoras theroem,
OC = (OE2 + EC2)1/2 =
(15.542 + 8.192)1/2 = 17.56"
Therefore, the distance between the Instantaneous center of
rotation and the center of mass = 17.56 inches.
Thank you! Upvotes are appreciated.
instead of answering question calculate distance from instantaneous center to center of mass end A moves...
covered up is use any
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