A turbine rotor is mounted on a stepped shaft that is fixed at both ends as shown in The torsional stiffnesses of the two segments of the shaft are given by k - 3000 N-m/rad and k2 = 4,000 N-m/rad. The turbine generates a hamonic torque given by M(t) = Mo cos cot about the shaft axis with M, = 200 N-m and es = 500 rads. The mass moment of inertia of the rotor about the shaft axis is h = 0.05 kg-m. Assuming the equivalent torsional damping constant of the system as e, = 2.5 N-m-s/rad, determine the steady-state response of the rotor, 6(t). ka M) - Mo cos est Turbine rotor, Jo
A turbine rotor is mounted on a stepped shaft that is fixed at both ends as shown in The torsional stiffnesses of the two segments of the shaft are given by k - 3000 N-m/rad and k2 = 4,000 N-m/rad. The turbine generates a hamonic torque given by M(t) = Mo cos cot about the shaft axis with M, = 200 N-m and es = 500 rads. The mass moment of inertia of the rotor about the shaft axis is h = 0.05 kg-m. Assuming the equivalent torsional damping constant of the system as e, = 2.5 N-m-s/rad, determine the steady-state response of the rotor, 6(t). ka M) - Mo cos est Turbine rotor, Jo
Elements Of Electromagnetics
7th Edition
ISBN:9780190698614
Author:Sadiku, Matthew N. O.
Publisher:Sadiku, Matthew N. O.
ChapterMA: Math Assessment
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![A turbine rotor is mounted on a stepped shaft that is fixed at both ends as shown in
The torsional stiffnesses of the two segments of the shaft are given by k = 3.000 N-m/rad
and k2 = 4,000 N-m/rad. The turbine generates a hamonic torque given by M(1) = Mo cos
ot about the shaft axis with Mg = 200 N-m and as = 500 rad/s. The mass moment of inertia
of the rotor about the shaft axis is h = 0.05 kg-m. Assuming the equivalent tosional
damping constant of the system as e, = 2.5 N-m-s/rad, determine the steady-state response
of the rotor, 6(1).
ka
M() = Ma cos e
Turbine rotor, Jo
A 50-kg turbine is mounted on four parallel springs, each of stiffness of 3 x 10° N/m
When the machine operates at 40 Hz. its steady-state amplitude is observed as 1.8 mm
What is the magnitude of the excitation?
Given m = 50 kg. k = 3x 10 Nm. e = 40 Hz. X= 1.8 mm
Find: Fe](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Ff355bcab-f2f6-487b-a28e-c39dff234933%2Fb8b385d0-65fa-476f-a2dc-214eef928819%2F17ro19t_processed.jpeg&w=3840&q=75)
Transcribed Image Text:A turbine rotor is mounted on a stepped shaft that is fixed at both ends as shown in
The torsional stiffnesses of the two segments of the shaft are given by k = 3.000 N-m/rad
and k2 = 4,000 N-m/rad. The turbine generates a hamonic torque given by M(1) = Mo cos
ot about the shaft axis with Mg = 200 N-m and as = 500 rad/s. The mass moment of inertia
of the rotor about the shaft axis is h = 0.05 kg-m. Assuming the equivalent tosional
damping constant of the system as e, = 2.5 N-m-s/rad, determine the steady-state response
of the rotor, 6(1).
ka
M() = Ma cos e
Turbine rotor, Jo
A 50-kg turbine is mounted on four parallel springs, each of stiffness of 3 x 10° N/m
When the machine operates at 40 Hz. its steady-state amplitude is observed as 1.8 mm
What is the magnitude of the excitation?
Given m = 50 kg. k = 3x 10 Nm. e = 40 Hz. X= 1.8 mm
Find: Fe
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