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Mechanical Characteristics Next, we will apply Newton's law to write the differential equations that model the mechanical portion of the DC motor. Write here the diff eqs. of the mechanical portion: Write here Newton's law (sum of the torques of the motor must equal zero): Write here the diff eqs. of the mechanical portion: Note that the electromagnetic torque is proportional to the current through the armature winding and can be written as the product of the velocity constant (K₁)times the current. The torque constant K depends on the flux density of the fixed magnets.

Mechanical Characteristics Next, we will apply Newton's law to write the differential equations that model the mechanical portion of the DC motor. Write here the diff eqs. of the mechanical portion: Write here Newton's law (sum of the torques of the motor must equal zero): Write here the diff eqs. of the mechanical portion: Note that the electromagnetic torque is proportional to the current through the armature winding and can be written as the product of the velocity constant (K₁)times the current. The torque constant K depends on the flux density of the fixed magnets.

Introductory Circuit Analysis (13th Edition)
Introductory Circuit Analysis (13th Edition)
13th Edition
ISBN:9780133923605
Author:Robert L. Boylestad
Publisher:Robert L. Boylestad
Chapter1: Introduction
Section: Chapter Questions
Problem 1P: Visit your local library (at school or home) and describe the extent to which it provides literature...
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Mechanical Characteristics Next, we will apply Newton's law to write the differential equations that model the mechanical portion of the DC motor. Write here the diff eqs. of the mechanical portion: Write here Newton's law (sum of the torques of the motor must equal zero): Write here the diff eqs. of the mechanical portion: Note that the electromagnetic torque is proportional to the current through the armature winding and can be written the product of the velocity constant (K₂)times the current. The torque constant K depends on the flux density of the fixed magnets.
Transcribed Image Text:Mechanical Characteristics Next, we will apply Newton's law to write the differential equations that model the mechanical portion of the DC motor. Write here the diff eqs. of the mechanical portion: Write here Newton's law (sum of the torques of the motor must equal zero): Write here the diff eqs. of the mechanical portion: Note that the electromagnetic torque is proportional to the current through the armature winding and can be written the product of the velocity constant (K₂)times the current. The torque constant K depends on the flux density of the fixed magnets.
The electric circuit of the armature and the free-body diagram of the rotor are shown in the following figure. R ww Armature circuit L 30 be Rotor Fig. 1- Dynamic Model of a DC Motor i Fixed field or permanent magnet
Transcribed Image Text:The electric circuit of the armature and the free-body diagram of the rotor are shown in the following figure. R ww Armature circuit L 30 be Rotor Fig. 1- Dynamic Model of a DC Motor i Fixed field or permanent magnet
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