Difference between revisions of "Motor Control"

From fswiki.us
Jump to navigation Jump to search
Line 1: Line 1:
 
[[Category:Electric Vehicle]]
 
[[Category:Electric Vehicle]]
 +
=DC Brushed Motor Control=
 +
=Six-Step Control=
 +
=Field Oriented Control for Synchronous Machines=
 +
==Transformations==
 +
===Clarke Transform===
 +
===Park Transform===
 +
==Current Regulation==
 +
A PI controller is commonly used to regulate the phase currents. This is explained by starting with a simple motor model in the DQ-frame (the motor is represented by a voltage source, resistance, and inductance).
 +
 +
 +
<math>
 +
I_{dq} = \frac{V_{dq} - V_{emf}}{R_s + sL_{dq}}
 +
</math>
 +
 +
 +
We can then write the equation for the system as follows:<br /><math> G(s) = \frac{I_{dq}(s)}{V_{dq}(s) - V_{EMF,dq}} = \frac{1}{R_s + sL_{dq}} = \frac{\frac{1}{L_{dq}}}{(s + \frac{R_s}{L_{dq}})} </math>
  
=DC Brushed Motor Control=
 
  
=Six-Step Control=
 
  
=Field Oriented Control for Synchronous Machines=
 
  
==Transformations==
 
  
===Clarke Transform===
 
  
===Park Transform===
 
  
==Current Regulation==
 
  
 
==Surface Mount Permanent Magnet Machines==
 
==Surface Mount Permanent Magnet Machines==
 
 
==Interior Permanent Magnet Machines==
 
==Interior Permanent Magnet Machines==
 
 
=Field Oriented Control for Asynchronous Machines=
 
=Field Oriented Control for Asynchronous Machines=

Revision as of 20:51, 2 June 2020

DC Brushed Motor Control

Six-Step Control

Field Oriented Control for Synchronous Machines

Transformations

Clarke Transform

Park Transform

Current Regulation

A PI controller is commonly used to regulate the phase currents. This is explained by starting with a simple motor model in the DQ-frame (the motor is represented by a voltage source, resistance, and inductance).



We can then write the equation for the system as follows:





Surface Mount Permanent Magnet Machines

Interior Permanent Magnet Machines

Field Oriented Control for Asynchronous Machines