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allwpilib/wpilibc/sim/src/RobotDrive.cpp

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/*----------------------------------------------------------------------------*/
/* Copyright (c) FIRST 2008-2017. All Rights Reserved. */
/* Open Source Software - may be modified and shared by FRC teams. The code */
/* must be accompanied by the FIRST BSD license file in the root directory of */
/* the project. */
/*----------------------------------------------------------------------------*/
#include "RobotDrive.h"
#include <algorithm>
#include <cmath>
#include "GenericHID.h"
#include "Joystick.h"
#include "Talon.h"
#include "Utility.h"
#include "WPIErrors.h"
using namespace frc;
const int RobotDrive::kMaxNumberOfMotors;
static auto make_shared_nodelete(SpeedController* ptr) {
return std::shared_ptr<SpeedController>(ptr, NullDeleter<SpeedController>());
}
/*
* Driving functions.
*
* These functions provide an interface to multiple motors that is used for C
* programming.
* The Drive(speed, direction) function is the main part of the set that makes
* it easy to set speeds and direction independently in one call.
*/
/**
* Common function to initialize all the robot drive constructors.
* Create a motor safety object (the real reason for the common code) and
* initialize all the motor assignments. The default timeout is set for the
* robot drive.
*/
void RobotDrive::InitRobotDrive() {
// FIXME: m_safetyHelper = new MotorSafetyHelper(this);
// FIXME: m_safetyHelper->SetSafetyEnabled(true);
}
/**
* Constructor for RobotDrive with 2 motors specified with channel numbers.
*
* Set up parameters for a two wheel drive system where the
* left and right motor pwm channels are specified in the call.
* This call assumes Talons for controlling the motors.
*
* @param leftMotorChannel The PWM channel number that drives the left motor.
* @param rightMotorChannel The PWM channel number that drives the right motor.
*/
RobotDrive::RobotDrive(int leftMotorChannel, int rightMotorChannel) {
InitRobotDrive();
m_rearLeftMotor = std::make_shared<Talon>(leftMotorChannel);
m_rearRightMotor = std::make_shared<Talon>(rightMotorChannel);
SetLeftRightMotorOutputs(0.0, 0.0);
m_deleteSpeedControllers = true;
}
/**
* Constructor for RobotDrive with 4 motors specified with channel numbers.
*
* Set up parameters for a four wheel drive system where all four motor
* pwm channels are specified in the call.
* This call assumes Talons for controlling the motors.
*
* @param frontLeftMotor Front left motor channel number
* @param rearLeftMotor Rear Left motor channel number
* @param frontRightMotor Front right motor channel number
* @param rearRightMotor Rear Right motor channel number
*/
RobotDrive::RobotDrive(int frontLeftMotor, int rearLeftMotor,
int frontRightMotor, int rearRightMotor) {
InitRobotDrive();
m_rearLeftMotor = std::make_shared<Talon>(rearLeftMotor);
m_rearRightMotor = std::make_shared<Talon>(rearRightMotor);
m_frontLeftMotor = std::make_shared<Talon>(frontLeftMotor);
m_frontRightMotor = std::make_shared<Talon>(frontRightMotor);
SetLeftRightMotorOutputs(0.0, 0.0);
m_deleteSpeedControllers = true;
}
/**
* Constructor for RobotDrive with 2 motors specified as SpeedController
* objects.
*
* The SpeedController version of the constructor enables programs to use the
* RobotDrive classes with subclasses of the SpeedController objects, for
* example, versions with ramping or reshaping of the curve to suit motor bias
* or deadband elimination.
*
* @param leftMotor The left SpeedController object used to drive the robot.
* @param rightMotor the right SpeedController object used to drive the robot.
*/
RobotDrive::RobotDrive(SpeedController* leftMotor,
SpeedController* rightMotor) {
InitRobotDrive();
if (leftMotor == nullptr || rightMotor == nullptr) {
wpi_setWPIError(NullParameter);
m_rearLeftMotor = m_rearRightMotor = nullptr;
return;
}
m_rearLeftMotor = make_shared_nodelete(leftMotor);
m_rearRightMotor = make_shared_nodelete(rightMotor);
}
// TODO: Change to rvalue references & move syntax.
RobotDrive::RobotDrive(SpeedController& leftMotor,
SpeedController& rightMotor) {
InitRobotDrive();
m_rearLeftMotor = make_shared_nodelete(&leftMotor);
m_rearRightMotor = make_shared_nodelete(&rightMotor);
}
RobotDrive::RobotDrive(std::shared_ptr<SpeedController> leftMotor,
std::shared_ptr<SpeedController> rightMotor) {
InitRobotDrive();
if (leftMotor == nullptr || rightMotor == nullptr) {
wpi_setWPIError(NullParameter);
m_rearLeftMotor = m_rearRightMotor = nullptr;
return;
}
m_rearLeftMotor = leftMotor;
m_rearRightMotor = rightMotor;
}
/**
* Constructor for RobotDrive with 4 motors specified as SpeedController
* objects.
*
* Speed controller input version of RobotDrive (see previous comments).
*
* @param rearLeftMotor The back left SpeedController object used to drive the
* robot.
* @param frontLeftMotor The front left SpeedController object used to drive
* the robot
* @param rearRightMotor The back right SpeedController object used to drive
* the robot.
* @param frontRightMotor The front right SpeedController object used to drive
* the robot.
*/
RobotDrive::RobotDrive(SpeedController* frontLeftMotor,
SpeedController* rearLeftMotor,
SpeedController* frontRightMotor,
SpeedController* rearRightMotor) {
InitRobotDrive();
if (frontLeftMotor == nullptr || rearLeftMotor == nullptr ||
frontRightMotor == nullptr || rearRightMotor == nullptr) {
wpi_setWPIError(NullParameter);
return;
}
m_frontLeftMotor = make_shared_nodelete(frontLeftMotor);
m_rearLeftMotor = make_shared_nodelete(rearLeftMotor);
m_frontRightMotor = make_shared_nodelete(frontRightMotor);
m_rearRightMotor = make_shared_nodelete(rearRightMotor);
}
RobotDrive::RobotDrive(SpeedController& frontLeftMotor,
SpeedController& rearLeftMotor,
SpeedController& frontRightMotor,
SpeedController& rearRightMotor) {
InitRobotDrive();
m_frontLeftMotor = make_shared_nodelete(&frontLeftMotor);
m_rearLeftMotor = make_shared_nodelete(&rearLeftMotor);
m_frontRightMotor = make_shared_nodelete(&frontRightMotor);
m_rearRightMotor = make_shared_nodelete(&rearRightMotor);
}
RobotDrive::RobotDrive(std::shared_ptr<SpeedController> frontLeftMotor,
std::shared_ptr<SpeedController> rearLeftMotor,
std::shared_ptr<SpeedController> frontRightMotor,
std::shared_ptr<SpeedController> rearRightMotor) {
InitRobotDrive();
if (frontLeftMotor == nullptr || rearLeftMotor == nullptr ||
frontRightMotor == nullptr || rearRightMotor == nullptr) {
wpi_setWPIError(NullParameter);
return;
}
m_frontLeftMotor = frontLeftMotor;
m_rearLeftMotor = rearLeftMotor;
m_frontRightMotor = frontRightMotor;
m_rearRightMotor = rearRightMotor;
}
/**
* Drive the motors at "outputMagnitude" and "curve".
* Both outputMagnitude and curve are -1.0 to +1.0 values, where 0.0 represents
* stopped and not turning. curve < 0 will turn left and curve > 0 will turn
* right.
*
* The algorithm for steering provides a constant turn radius for any normal
* speed range, both forward and backward. Increasing m_sensitivity causes
* sharper turns for fixed values of curve.
*
* This function will most likely be used in an autonomous routine.
*
* @param outputMagnitude The speed setting for the outside wheel in a turn,
* forward or backwards, +1 to -1.
* @param curve The rate of turn, constant for different forward
* speeds. Set curve < 0 for left turn or curve > 0 for
* right turn. Set curve = e^(-r/w) to get a turn radius
* r for wheelbase w of your robot. Conversely, turn
* radius r = -ln(curve)*w for a given value of curve and
* wheelbase w.
*/
void RobotDrive::Drive(double outputMagnitude, double curve) {
double leftOutput, rightOutput;
static bool reported = false;
if (!reported) {
reported = true;
}
if (curve < 0) {
double value = std::log(-curve);
double ratio = (value - m_sensitivity) / (value + m_sensitivity);
if (ratio == 0) ratio = .0000000001;
leftOutput = outputMagnitude / ratio;
rightOutput = outputMagnitude;
} else if (curve > 0) {
double value = std::log(curve);
double ratio = (value - m_sensitivity) / (value + m_sensitivity);
if (ratio == 0) ratio = .0000000001;
leftOutput = outputMagnitude;
rightOutput = outputMagnitude / ratio;
} else {
leftOutput = outputMagnitude;
rightOutput = outputMagnitude;
}
SetLeftRightMotorOutputs(leftOutput, rightOutput);
}
/**
* Provide tank steering using the stored robot configuration.
*
* Drive the robot using two joystick inputs. The Y-axis will be selected from
* each Joystick object.
*
* @param leftStick The joystick to control the left side of the robot.
* @param rightStick The joystick to control the right side of the robot.
*/
void RobotDrive::TankDrive(GenericHID* leftStick, GenericHID* rightStick,
bool squaredInputs) {
if (leftStick == nullptr || rightStick == nullptr) {
wpi_setWPIError(NullParameter);
return;
}
TankDrive(leftStick->GetY(), rightStick->GetY(), squaredInputs);
}
void RobotDrive::TankDrive(GenericHID& leftStick, GenericHID& rightStick,
bool squaredInputs) {
TankDrive(leftStick.GetY(), rightStick.GetY(), squaredInputs);
}
/**
* Provide tank steering using the stored robot configuration.
*
* This function lets you pick the axis to be used on each Joystick object for
* the left and right sides of the robot.
*
* @param leftStick The Joystick object to use for the left side of the robot.
* @param leftAxis The axis to select on the left side Joystick object.
* @param rightStick The Joystick object to use for the right side of the robot.
* @param rightAxis The axis to select on the right side Joystick object.
*/
void RobotDrive::TankDrive(GenericHID* leftStick, int leftAxis,
GenericHID* rightStick, int rightAxis,
bool squaredInputs) {
if (leftStick == nullptr || rightStick == nullptr) {
wpi_setWPIError(NullParameter);
return;
}
TankDrive(leftStick->GetRawAxis(leftAxis), rightStick->GetRawAxis(rightAxis),
squaredInputs);
}
void RobotDrive::TankDrive(GenericHID& leftStick, int leftAxis,
GenericHID& rightStick, int rightAxis,
bool squaredInputs) {
TankDrive(leftStick.GetRawAxis(leftAxis), rightStick.GetRawAxis(rightAxis),
squaredInputs);
}
/**
* Provide tank steering using the stored robot configuration.
*
* This function lets you directly provide joystick values from any source.
*
* @param leftValue The value of the left stick.
* @param rightValue The value of the right stick.
*/
void RobotDrive::TankDrive(double leftValue, double rightValue,
bool squaredInputs) {
static bool reported = false;
if (!reported) {
reported = true;
}
// square the inputs (while preserving the sign) to increase fine control
// while permitting full power
leftValue = Limit(leftValue);
rightValue = Limit(rightValue);
if (squaredInputs) {
if (leftValue >= 0.0) {
leftValue = (leftValue * leftValue);
} else {
leftValue = -(leftValue * leftValue);
}
if (rightValue >= 0.0) {
rightValue = (rightValue * rightValue);
} else {
rightValue = -(rightValue * rightValue);
}
}
SetLeftRightMotorOutputs(leftValue, rightValue);
}
/**
* Arcade drive implements single stick driving.
*
* Given a single Joystick, the class assumes the Y axis for the move value and
* the X axis for the rotate value.
* (Should add more information here regarding the way that arcade drive works.)
*
* @param stick The joystick to use for Arcade single-stick driving.
* The Y-axis will be selected for forwards/backwards and
* the X-axis will be selected for rotation rate.
* @param squaredInputs If true, the sensitivity will be increased for small
* values
*/
void RobotDrive::ArcadeDrive(GenericHID* stick, bool squaredInputs) {
// simply call the full-featured ArcadeDrive with the appropriate values
ArcadeDrive(stick->GetY(), stick->GetX(), squaredInputs);
}
/**
* Arcade drive implements single stick driving.
*
* Given a single Joystick, the class assumes the Y axis for the move value and
* the X axis for the rotate value.
* (Should add more information here regarding the way that arcade drive works.)
*
* @param stick The joystick to use for Arcade single-stick driving.
* The Y-axis will be selected for forwards/backwards and
* the X-axis will be selected for rotation rate.
* @param squaredInputs If true, the sensitivity will be increased for small
* values
*/
void RobotDrive::ArcadeDrive(GenericHID& stick, bool squaredInputs) {
// simply call the full-featured ArcadeDrive with the appropriate values
ArcadeDrive(stick.GetY(), stick.GetX(), squaredInputs);
}
/**
* Arcade drive implements single stick driving.
*
* Given two joystick instances and two axis, compute the values to send to
* either two or four motors.
*
* @param moveStick The Joystick object that represents the forward/backward
* direction
* @param moveAxis The axis on the moveStick object to use for
* forwards/backwards (typically Y_AXIS)
* @param rotateStick The Joystick object that represents the rotation value
* @param rotateAxis The axis on the rotation object to use for the rotate
* right/left (typically X_AXIS)
* @param squaredInputs Setting this parameter to true increases the sensitivity
* at lower speeds
*/
void RobotDrive::ArcadeDrive(GenericHID* moveStick, int moveAxis,
GenericHID* rotateStick, int rotateAxis,
bool squaredInputs) {
double moveValue = moveStick->GetRawAxis(moveAxis);
double rotateValue = rotateStick->GetRawAxis(rotateAxis);
ArcadeDrive(moveValue, rotateValue, squaredInputs);
}
/**
* Arcade drive implements single stick driving.
*
* Given two joystick instances and two axis, compute the values to send to
* either two or four motors.
*
* @param moveStick The Joystick object that represents the forward/backward
* direction
* @param moveAxis The axis on the moveStick object to use for
* forwards/backwards (typically Y_AXIS)
* @param rotateStick The Joystick object that represents the rotation value
* @param rotateAxis The axis on the rotation object to use for the rotate
* right/left (typically X_AXIS)
* @param squaredInputs Setting this parameter to true increases the sensitivity
* at lower speeds
*/
void RobotDrive::ArcadeDrive(GenericHID& moveStick, int moveAxis,
GenericHID& rotateStick, int rotateAxis,
bool squaredInputs) {
double moveValue = moveStick.GetRawAxis(moveAxis);
double rotateValue = rotateStick.GetRawAxis(rotateAxis);
ArcadeDrive(moveValue, rotateValue, squaredInputs);
}
/**
* Arcade drive implements single stick driving.
*
* This function lets you directly provide joystick values from any source.
*
* @param moveValue The value to use for fowards/backwards
* @param rotateValue The value to use for the rotate right/left
* @param squaredInputs If set, increases the sensitivity at low speeds
*/
void RobotDrive::ArcadeDrive(double moveValue, double rotateValue,
bool squaredInputs) {
static bool reported = false;
if (!reported) {
reported = true;
}
// local variables to hold the computed PWM values for the motors
double leftMotorOutput;
double rightMotorOutput;
moveValue = Limit(moveValue);
rotateValue = Limit(rotateValue);
if (squaredInputs) {
// square the inputs (while preserving the sign) to increase fine control
// while permitting full power
if (moveValue >= 0.0) {
moveValue = (moveValue * moveValue);
} else {
moveValue = -(moveValue * moveValue);
}
if (rotateValue >= 0.0) {
rotateValue = (rotateValue * rotateValue);
} else {
rotateValue = -(rotateValue * rotateValue);
}
}
if (moveValue > 0.0) {
if (rotateValue > 0.0) {
leftMotorOutput = moveValue - rotateValue;
rightMotorOutput = std::max(moveValue, rotateValue);
} else {
leftMotorOutput = std::max(moveValue, -rotateValue);
rightMotorOutput = moveValue + rotateValue;
}
} else {
if (rotateValue > 0.0) {
leftMotorOutput = -std::max(-moveValue, rotateValue);
rightMotorOutput = moveValue + rotateValue;
} else {
leftMotorOutput = moveValue - rotateValue;
rightMotorOutput = -std::max(-moveValue, -rotateValue);
}
}
SetLeftRightMotorOutputs(leftMotorOutput, rightMotorOutput);
}
/**
* Drive method for Mecanum wheeled robots.
*
* A method for driving with Mecanum wheeled robots. There are 4 wheels
* on the robot, arranged so that the front and back wheels are toed in 45
* degrees. When looking at the wheels from the top, the roller axles should
* form an X across the robot.
*
* This is designed to be directly driven by joystick axes.
*
* @param x The speed that the robot should drive in the X direction.
* [-1.0..1.0]
* @param y The speed that the robot should drive in the Y direction.
* This input is inverted to match the forward == -1.0 that
* joysticks produce. [-1.0..1.0]
* @param rotation The rate of rotation for the robot that is completely
* independent of the translation. [-1.0..1.0]
* @param gyroAngle The current angle reading from the gyro. Use this to
* implement field-oriented controls.
*/
void RobotDrive::MecanumDrive_Cartesian(double x, double y, double rotation,
double gyroAngle) {
static bool reported = false;
if (!reported) {
reported = true;
}
double xIn = x;
double yIn = y;
// Negate y for the joystick.
yIn = -yIn;
// Compenstate for gyro angle.
RotateVector(xIn, yIn, gyroAngle);
double wheelSpeeds[kMaxNumberOfMotors];
wheelSpeeds[kFrontLeftMotor] = xIn + yIn + rotation;
wheelSpeeds[kFrontRightMotor] = -xIn + yIn - rotation;
wheelSpeeds[kRearLeftMotor] = -xIn + yIn + rotation;
wheelSpeeds[kRearRightMotor] = xIn + yIn - rotation;
Normalize(wheelSpeeds);
m_frontLeftMotor->Set(wheelSpeeds[kFrontLeftMotor] *
m_invertedMotors[kFrontLeftMotor] * m_maxOutput);
m_frontRightMotor->Set(wheelSpeeds[kFrontRightMotor] *
m_invertedMotors[kFrontRightMotor] * m_maxOutput);
m_rearLeftMotor->Set(wheelSpeeds[kRearLeftMotor] *
m_invertedMotors[kRearLeftMotor] * m_maxOutput);
m_rearRightMotor->Set(wheelSpeeds[kRearRightMotor] *
m_invertedMotors[kRearRightMotor] * m_maxOutput);
// FIXME: m_safetyHelper->Feed();
}
/**
* Drive method for Mecanum wheeled robots.
*
* A method for driving with Mecanum wheeled robots. There are 4 wheels
* on the robot, arranged so that the front and back wheels are toed in 45
* degrees. When looking at the wheels from the top, the roller axles should
* form an X across the robot.
*
* @param magnitude The speed that the robot should drive in a given direction.
* [-1.0..1.0]
* @param direction The direction the robot should drive in degrees. The
* direction and maginitute are independent of the rotation
* rate.
* @param rotation The rate of rotation for the robot that is completely
* independent of the magnitute or direction. [-1.0..1.0]
*/
void RobotDrive::MecanumDrive_Polar(double magnitude, double direction,
double rotation) {
static bool reported = false;
if (!reported) {
reported = true;
}
// Normalized for full power along the Cartesian axes.
magnitude = Limit(magnitude) * std::sqrt(2.0);
// The rollers are at 45 degree angles.
double dirInRad = (direction + 45.0) * 3.14159 / 180.0;
double cosD = std::cos(dirInRad);
double sinD = std::sin(dirInRad);
double wheelSpeeds[kMaxNumberOfMotors];
wheelSpeeds[kFrontLeftMotor] = sinD * magnitude + rotation;
wheelSpeeds[kFrontRightMotor] = cosD * magnitude - rotation;
wheelSpeeds[kRearLeftMotor] = cosD * magnitude + rotation;
wheelSpeeds[kRearRightMotor] = sinD * magnitude - rotation;
Normalize(wheelSpeeds);
m_frontLeftMotor->Set(wheelSpeeds[kFrontLeftMotor] *
m_invertedMotors[kFrontLeftMotor] * m_maxOutput);
m_frontRightMotor->Set(wheelSpeeds[kFrontRightMotor] *
m_invertedMotors[kFrontRightMotor] * m_maxOutput);
m_rearLeftMotor->Set(wheelSpeeds[kRearLeftMotor] *
m_invertedMotors[kRearLeftMotor] * m_maxOutput);
m_rearRightMotor->Set(wheelSpeeds[kRearRightMotor] *
m_invertedMotors[kRearRightMotor] * m_maxOutput);
// FIXME: m_safetyHelper->Feed();
}
/**
* Holonomic Drive method for Mecanum wheeled robots.
*
* This is an alias to MecanumDrive_Polar() for backward compatability
*
* @param magnitude The speed that the robot should drive in a given direction.
* [-1.0..1.0]
* @param direction The direction the robot should drive. The direction and
* magnitude are independent of the rotation rate.
* @param rotation The rate of rotation for the robot that is completely
* independent of the magnitude or direction. [-1.0..1.0]
*/
void RobotDrive::HolonomicDrive(double magnitude, double direction,
double rotation) {
MecanumDrive_Polar(magnitude, direction, rotation);
}
/**
* Set the speed of the right and left motors.
*
* This is used once an appropriate drive setup function is called such as
* TwoWheelDrive(). The motors are set to "leftOutput" and "rightOutput"
* and includes flipping the direction of one side for opposing motors.
*
* @param leftOutput The speed to send to the left side of the robot.
* @param rightOutput The speed to send to the right side of the robot.
*/
void RobotDrive::SetLeftRightMotorOutputs(double leftOutput,
double rightOutput) {
wpi_assert(m_rearLeftMotor != nullptr && m_rearRightMotor != nullptr);
if (m_frontLeftMotor != nullptr)
m_frontLeftMotor->Set(Limit(leftOutput) *
m_invertedMotors[kFrontLeftMotor] * m_maxOutput);
m_rearLeftMotor->Set(Limit(leftOutput) * m_invertedMotors[kRearLeftMotor] *
m_maxOutput);
if (m_frontRightMotor != nullptr)
m_frontRightMotor->Set(-Limit(rightOutput) *
m_invertedMotors[kFrontRightMotor] * m_maxOutput);
m_rearRightMotor->Set(-Limit(rightOutput) *
m_invertedMotors[kRearRightMotor] * m_maxOutput);
// FIXME: m_safetyHelper->Feed();
}
/**
* Limit motor values to the -1.0 to +1.0 range.
*/
double RobotDrive::Limit(double num) {
if (num > 1.0) {
return 1.0;
}
if (num < -1.0) {
return -1.0;
}
return num;
}
/**
* Normalize all wheel speeds if the magnitude of any wheel is greater than 1.0.
*/
void RobotDrive::Normalize(double* wheelSpeeds) {
double maxMagnitude = std::fabs(wheelSpeeds[0]);
for (int i = 1; i < kMaxNumberOfMotors; i++) {
double temp = std::fabs(wheelSpeeds[i]);
if (maxMagnitude < temp) maxMagnitude = temp;
}
if (maxMagnitude > 1.0) {
for (int i = 0; i < kMaxNumberOfMotors; i++) {
wheelSpeeds[i] = wheelSpeeds[i] / maxMagnitude;
}
}
}
/**
* Rotate a vector in Cartesian space.
*/
void RobotDrive::RotateVector(double& x, double& y, double angle) {
double cosA = std::cos(angle * (3.14159 / 180.0));
double sinA = std::sin(angle * (3.14159 / 180.0));
double xOut = x * cosA - y * sinA;
double yOut = x * sinA + y * cosA;
x = xOut;
y = yOut;
}
/**
* Invert a motor direction.
*
* This is used when a motor should run in the opposite direction as the drive
* code would normally run it. Motors that are direct drive would be inverted,
* the Drive code assumes that the motors are geared with one reversal.
*
* @param motor The motor index to invert.
* @param isInverted True if the motor should be inverted when operated.
*/
void RobotDrive::SetInvertedMotor(MotorType motor, bool isInverted) {
if (motor < 0 || motor > 3) {
wpi_setWPIError(InvalidMotorIndex);
return;
}
m_invertedMotors[motor] = isInverted ? -1 : 1;
}
/**
* Set the turning sensitivity.
*
* This only impacts the Drive() entry-point.
*
* @param sensitivity Effectively sets the turning sensitivity (or turn radius
* for a given value)
*/
void RobotDrive::SetSensitivity(double sensitivity) {
m_sensitivity = sensitivity;
}
/**
* Configure the scaling factor for using RobotDrive with motor controllers in a
* mode other than PercentVbus.
*
* @param maxOutput Multiplied with the output percentage computed by the drive
* functions.
*/
void RobotDrive::SetMaxOutput(double maxOutput) { m_maxOutput = maxOutput; }
void RobotDrive::SetExpiration(double timeout) {
// FIXME: m_safetyHelper->SetExpiration(timeout);
}
double RobotDrive::GetExpiration() const {
return -1; // FIXME: return m_safetyHelper->GetExpiration();
}
bool RobotDrive::IsAlive() const {
return true; // FIXME: m_safetyHelper->IsAlive();
}
bool RobotDrive::IsSafetyEnabled() const {
return false; // FIXME: return m_safetyHelper->IsSafetyEnabled();
}
void RobotDrive::SetSafetyEnabled(bool enabled) {
// FIXME: m_safetyHelper->SetSafetyEnabled(enabled);
}
void RobotDrive::GetDescription(std::ostringstream& desc) const {
desc << "RobotDrive";
}
void RobotDrive::StopMotor() {
if (m_frontLeftMotor != nullptr) m_frontLeftMotor->Disable();
if (m_frontRightMotor != nullptr) m_frontRightMotor->Disable();
if (m_rearLeftMotor != nullptr) m_rearLeftMotor->Disable();
if (m_rearRightMotor != nullptr) m_rearRightMotor->Disable();
}
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