6. A machine of mass m = 2kg is supported by four springs and a damper of coefficient of damping c = 1 N.s/m, as shown in Figure 6. It is observed that the equilibrium position is established after the springs have depressed by 24.5 mm under the weight of the machine. At time t = 0 , the machine is pushed down from its equilibrium position by y = 100mm , as shown, and then released. (a) For the system, (i) Calculate the total stiffness, kr, of the four springs and the natural circular frequency of vibration, @, , (ii) The damping ratio, 5 , and hence identify the prevailing type of Damping. (b) For the ensuing vibratic of the machine, (i) Sketch the appropriate amplitude-time curve, and (ii) Determine the displacement of the machine from its equilibrium position after 5 oscillations. Equilibrium position y = 100mm k Figure 6
6. A machine of mass m = 2kg is supported by four springs and a damper of coefficient of damping c = 1 N.s/m, as shown in Figure 6. It is observed that the equilibrium position is established after the springs have depressed by 24.5 mm under the weight of the machine. At time t = 0 , the machine is pushed down from its equilibrium position by y = 100mm , as shown, and then released. (a) For the system, (i) Calculate the total stiffness, kr, of the four springs and the natural circular frequency of vibration, @, , (ii) The damping ratio, 5 , and hence identify the prevailing type of Damping. (b) For the ensuing vibratic of the machine, (i) Sketch the appropriate amplitude-time curve, and (ii) Determine the displacement of the machine from its equilibrium position after 5 oscillations. Equilibrium position y = 100mm k Figure 6
Elements Of Electromagnetics
7th Edition
ISBN:9780190698614
Author:Sadiku, Matthew N. O.
Publisher:Sadiku, Matthew N. O.
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![6. A machine of mass m = 2kg is supported by four springs and a damper of
coefficient of damping c = 1 N.s/m, as shown in Figure 6. It is observed that the
equilibrium position is established after the springs have depressed by 24.5 mm
under the weight of the machine. At time t = 0 , the machine is pushed down from its
equilibrium position by y = 100mm , as shown, and then released.
(a) For the system,
(i) Calculate the total stiffness, kr, of the four springs and the natural
circular frequency of vibration, @, ,
(ii) The damping ratio, 5 , and hence identify the prevailing type of
Damping.
(b) For the ensuing vibration of the machine,
(i) Sketch the appropriate amplitude-time curve, and
(ii) Determine the displacement of the machine from its equilibrium position
after 5 oscillations.
Equilibrium
position
y = 100mm
k
C
Figure 6](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F72c6123d-db2c-43fa-bb4d-ef3d2a416cdd%2F5fe9e28b-512e-4477-8769-25fea1cc3bbf%2Faplvp5e_processed.jpeg&w=3840&q=75)
Transcribed Image Text:6. A machine of mass m = 2kg is supported by four springs and a damper of
coefficient of damping c = 1 N.s/m, as shown in Figure 6. It is observed that the
equilibrium position is established after the springs have depressed by 24.5 mm
under the weight of the machine. At time t = 0 , the machine is pushed down from its
equilibrium position by y = 100mm , as shown, and then released.
(a) For the system,
(i) Calculate the total stiffness, kr, of the four springs and the natural
circular frequency of vibration, @, ,
(ii) The damping ratio, 5 , and hence identify the prevailing type of
Damping.
(b) For the ensuing vibration of the machine,
(i) Sketch the appropriate amplitude-time curve, and
(ii) Determine the displacement of the machine from its equilibrium position
after 5 oscillations.
Equilibrium
position
y = 100mm
k
C
Figure 6
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