A 50 kg block is supported by the spring arrangement shown in Fig. 4b www i. ii. iii iv. 12 kN/m www www 24 kN/m 50 kg 12 kN/m Fig. 4b Sketch the free body diagram for: The static equilibrium position for the system; The dynamic case when the mass is displaced downwards by a deflection of x m and released. The 50 kg block in Fig. 4b (above) is moved vertically downward from its equilibrium position and released and it then vibrates in simple harmonic motion (SHM). Knowing that the amplitude of the resulting motion is 40 mm, determine the following: Frequency of vibration in Hz; Maximum velocity of the block.

A 50 kg block is supported by the spring arrangement shown in Fig. 4b www i. ii. iii iv. 12 kN/m www www 24 kN/m 50 kg 12 kN/m Fig. 4b Sketch the free body diagram for: The static equilibrium position for the system; The dynamic case when the mass is displaced downwards by a deflection of x m and released. The 50 kg block in Fig. 4b (above) is moved vertically downward from its equilibrium position and released and it then vibrates in simple harmonic motion (SHM). Knowing that the amplitude of the resulting motion is 40 mm, determine the following: Frequency of vibration in Hz; Maximum velocity of the block.

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Description: b.A 50 kg block is supported by the spring arrangement shown in Fig. 4bi.ii.iiiiv.12 kN/mwwwwww24 kN/m50 kgwwww12 kN/mFig. 4bSketch the free body diagram for:The static equilibrium position for the system;The dynamic case when the mass is displaced

Elements Of Electromagnetics

7th Edition

ISBN:9780190698614

Author:Sadiku, Matthew N. O.

Publisher:Sadiku, Matthew N. O.

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b.
A 50 kg block is supported by the spring arrangement shown in Fig. 4b
i.
ii.
iii
iv.
12 kN/m
www
www
24 kN/m
50 kg
wwww
12 kN/m
Fig. 4b
Sketch the free body diagram for:
The static equilibrium position for the system;
The dynamic case when the mass is displaced downwards by a
deflection of x m and released.
The 50 kg block in Fig. 4b (above) is moved vertically downward
from its equilibrium position and released and it then vibrates in
simple harmonic motion (SHM). Knowing that the amplitude of the
resulting motion is 40 mm, determine the following:
Frequency of vibration in Hz;
Maximum velocity of the block.

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