Consider a rotary motion axis driven by an electric motor. The rotary load is directly connected to the motor shaft with gear speed reducer of gear ratio = 5 and gear efficiency 0.75. The rotary load is a solid cylindrical shape made of Aluminium material, d=50 mm, Il=35 mm, p=2710 kg/m?. The desired motion of the load is a periodic motion as shown in figure. Motor rotor Desired Motion Gear ra Load T tame The total distance to be travelled is % of a revolution. The period of motion is toy=300 msec., and dwell portion of it is taw=100 msec., and the remaining part of the cycle time is equally divided between acceleration, constant speed and deceleration periods, t,-t,-ta=50 msec. Determine the required motor size for this application.
Consider a rotary motion axis driven by an electric motor. The rotary load is directly connected to the motor shaft with gear speed reducer of gear ratio = 5 and gear efficiency 0.75. The rotary load is a solid cylindrical shape made of Aluminium material, d=50 mm, Il=35 mm, p=2710 kg/m?. The desired motion of the load is a periodic motion as shown in figure. Motor rotor Desired Motion Gear ra Load T tame The total distance to be travelled is % of a revolution. The period of motion is toy=300 msec., and dwell portion of it is taw=100 msec., and the remaining part of the cycle time is equally divided between acceleration, constant speed and deceleration periods, t,-t,-ta=50 msec. Determine the required motor size for this application.
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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Transcribed Image Text:Consider a rotary motion axis driven by an electric motor. The rotary load is directly connected to
the motor shaft with gear speed reducer of gear ratio = 5 and gear efficiency = 0.75. The rotary load
is a solid cylindrical shape made of Aluminium material, d=50 mm, l=35 mm, p=2710 kg/m³. The
desired motion of the load is a periodic motion as shown in figure.
Motor rotor
Desired Motion
T.
Gear
ra
Load
T
tame
The total distance to be travelled is % of a revolution. The period of motion is tcyc=300 msec., and
dwell portion of it is taw=100 msec., and the remaining part of the cycle time is equally divided
between acceleration, constant speed and deceleration periods, t,-t,-ta=50 msec. Determine the
required motor size for this application.
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