(4) BIA 30 disk: radius = r = 0.350m r BIA = 0.300m rad: length= L = 0.90 A disk and a rod are pin-connected at B, and are arranged as shown. Given that the disk rolls without sliding to the right, with center A velocity V₁ = 3.6 m/s →, and that end I of the rod remains in contact with the wall, use the ICR method to find : (a) the angular velocity WBD of the rod (mag and direc) (b) the velocity VD of end D (mag and direc) It is also given that A and B are at the same height.

(4) BIA 30 disk: radius = r = 0.350m r BIA = 0.300m rad: length= L = 0.90 A disk and a rod are pin-connected at B, and are arranged as shown. Given that the disk rolls without sliding to the right, with center A velocity V₁ = 3.6 m/s →, and that end I of the rod remains in contact with the wall, use the ICR method to find : (a) the angular velocity WBD of the rod (mag and direc) (b) the velocity VD of end D (mag and direc) It is also given that A and B are at the same height.

Elements Of Electromagnetics

7th Edition

ISBN:9780190698614

Author:Sadiku, Matthew N. O.

Publisher:Sadiku, Matthew N. O.

ChapterMA: Math Assessment

Section: Chapter Questions

Problem 1.1MA

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(4) BIA f B D 30 disk: radius = r = 0.350m B/A 0.300m rod : length = L = (b) the velocity V of end D (mag and direc) D It is also given that A and B are at the same height. A disk and a rod are pin-connected at B, and are arranged as shown. Given that the disk rolls without sliding to the right, with center velocity V A ) = 3.6 m/s →→, and that end I of the red remains in contact with the wall, use the ICR method to find : (a) the angular velocity Wap of the rod (mag and direc) ०.१०
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