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Consider a slender rod AB with a length I and a mass m. The ends are connected to blocks of negligible mass sliding along horizontal and vertical tracks. If the rod is released with no initial velocity from a horizontal position as shown in Fig.A, determine its angular velocity after it has rotated through an angle of 0 (see Fig B) using the conservation of energy method. (Hint: Moment of inertia of rod about G = (1/12)m²² The kinetic energy of a rigid body in plane motion is 1. = 1½ m² + 100² Datum B G Fig.A A Datum I sin 0 G Fig.B B

Consider a slender rod AB with a length I and a mass m. The ends are connected to blocks of negligible mass sliding along horizontal and vertical tracks. If the rod is released with no initial velocity from a horizontal position as shown in Fig.A, determine its angular velocity after it has rotated through an angle of 0 (see Fig B) using the conservation of energy method. (Hint: Moment of inertia of rod about G = (1/12)m²² The kinetic energy of a rigid body in plane motion is 1. = 1½ m² + 100² Datum B G Fig.A A Datum I sin 0 G Fig.B B

Elements Of Electromagnetics
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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Consider a slender rod AB with a length l and a mass m. The ends are connected to blocks of negligible mass sliding along horizontal and vertical tracks. If the rod is released with no initial velocity from a horizontal position as shown in Fig.A, determine its angular velocity after it has rotated through an angle of θ (see Fig B) using the conservation of energy method. (Hint: Moment of inertia of rod about G = (1/12)ml2 The kinetic energy of a rigid body in plane motion is 

Consider a slender rod AB with a length I and a mass m. The ends are connected to blocks of negligible mass sliding along horizontal and vertical tracks. If the rod is released with no initial velocity from a horizontal position as shown in Fig.A, determine its angular velocity after it has rotated through an angle of 0 (see Fig B) using the conservation of energy method. (Hint: Moment of inertia of rod about G = (1/12)m²² The kinetic energy of a rigid body in plane motion is 1. = 1½ m² + 100² Datum B G Fig.A A Datum I sin 0 G Fig.B B
Transcribed Image Text:Consider a slender rod AB with a length I and a mass m. The ends are connected to blocks of negligible mass sliding along horizontal and vertical tracks. If the rod is released with no initial velocity from a horizontal position as shown in Fig.A, determine its angular velocity after it has rotated through an angle of 0 (see Fig B) using the conservation of energy method. (Hint: Moment of inertia of rod about G = (1/12)m²² The kinetic energy of a rigid body in plane motion is 1. = 1½ m² + 100² Datum B G Fig.A A Datum I sin 0 G Fig.B B
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