Motion Control Theory
68
AMP-204C / AMP-208C
4.2
Motion Control Operations
This section describes motion control modes provided by the
controller and their operation principle. The objective is to help
users make most of the motion control capacity of your controller
to accomplish desired applications.
4.2.1
Coordinated System
This controller employs Cartesian coordinate system where one or
more axes motion can be executed by one-to-one mapping each
axis to a motor. There exists a conversion relation between axis of
the Cartesian coordinate system and the motor being controlled.
This conversion relation enables users to set up their own
coordinate system without restricitons. Figure below indicates a
coordinate system relation. The unit conversion factor will be
reviewed in next section.
Figure 4-3: Controller coordinates system block
You may read out or set up coordinate command location or actual
coordinate location
I32 APS_get_command_f (I32 Axis_ID, F64 *Command);
//command location reading
I32 APS_get_command_f (I32 Axis_ID, F64 *Command);
//command location setup
I32 APS_get_command_f (I32 Axis_ID, F64 *Command);
//actual location reading
I32 APS_get_command_f (I32 Axis_ID, F64 *Command);
//actual location setup
Coordinated
system
Motor
coordinate
Command
Position(F64)
Feedback
Position(F64)
Command
counter (I32)
Encoder
counter (I32)
Motor
Servo loop
control
/
Pulse
generator
Unit
factor
Summary of Contents for AMP-204C
Page 8: ...viii Contents ...
Page 12: ...xii List of Figures ...
Page 14: ...xiv List of Tables ...
Page 52: ...38 Getting Start with The Installation ...
Page 71: ...Signal Connection 57 AMP 204C AMP 208C Signal connection diagram ...
Page 72: ...58 Signal Connection Figure 3 13 General purpose digital I O signal connection example ...