package swervelib.encoders; import com.reduxrobotics.sensors.canandcoder.Canandcoder; /** * HELIUM {@link Canandcoder} from ReduxRobotics absolute encoder, attached through the CAN bus. */ public class CanAndCoderSwerve extends SwerveAbsoluteEncoder { /** * The {@link Canandcoder} representing the CANandCoder on the CAN bus. */ public Canandcoder encoder; /** * Create the {@link Canandcoder} * * @param canid The CAN ID whenever the CANandCoder is operating on the CANBus. */ public CanAndCoderSwerve(int canid) { encoder = new Canandcoder(canid); } /** * Reset the encoder to factory defaults. *

* This will not clear the stored zero offset. */ @Override public void factoryDefault() { encoder.resetFactoryDefaults(false); } /** * Clear sticky faults on the encoder. */ @Override public void clearStickyFaults() { encoder.clearStickyFaults(); } /** * Configure the Canandcoder to read from [0, 360) per second. * * @param inverted Whether the encoder is inverted. */ @Override public void configure(boolean inverted) { encoder.setSettings(new Canandcoder.Settings().setInvertDirection(inverted)); } /** * Get the absolute position of the encoder. * * @return Absolute position in degrees from [0, 360). */ @Override public double getAbsolutePosition() { return encoder.getAbsPosition() * 360; } /** * Get the instantiated absolute encoder Object. * * @return Absolute encoder object. */ @Override public Object getAbsoluteEncoder() { return encoder; } /** * Cannot set the offset of the Canandcoder. * * @param offset the offset the Absolute Encoder uses as the zero point. * @return true if setting the zero point succeeded, false otherwise */ @Override public boolean setAbsoluteEncoderOffset(double offset) { return encoder.setSettings(new Canandcoder.Settings().setZeroOffset(offset)); } /** * Get the velocity in degrees/sec. * * @return velocity in degrees/sec. */ @Override public double getVelocity() { return encoder.getVelocity() * 360; } }