#include "behaviors.h" #include // ============================================================================ // Base Behavior Implementation // ============================================================================ Behavior::Behavior() { controlledMotors.clear(); } void Behavior::addMotor(uint8_t motorID) { // Check if motor already in list for (uint8_t id : controlledMotors) { if (id == motorID) { return; // Already added } } controlledMotors.push_back(motorID); } void Behavior::removeMotor(uint8_t motorID) { controlledMotors.erase( std::remove(controlledMotors.begin(), controlledMotors.end(), motorID), controlledMotors.end() ); } void Behavior::clearMotors() { controlledMotors.clear(); } // ============================================================================ // Focus Behavior Implementation // ============================================================================ FocusBehavior::FocusBehavior() { isActive = false; currentPosition = POSITION_CENTER; // Add motors 14 and 15 to controlled list addMotor(FOCUS_MOTOR_1); addMotor(FOCUS_MOTOR_2); } bool FocusBehavior::update() { // Check radar for valid targets uint8_t targetCount = radar.getTargetCount(); if (targetCount == 0) { // No target - return to center isActive = false; currentPosition = POSITION_CENTER; return false; } // Get first valid target const RadarTarget& target = radar.getTarget(0); if (!target.valid) { isActive = false; currentPosition = POSITION_CENTER; return false; } // Active tracking - calculate position from radar x coordinate isActive = true; currentPosition = calculatePositionFromRadarX(target.x); return true; } bool FocusBehavior::getMotorPosition(uint8_t motorID, uint16_t& position) { // Only provide position for motors we control if (motorID != FOCUS_MOTOR_1 && motorID != FOCUS_MOTOR_2) { return false; } // Only provide position if behavior is active if (!isActive) { return false; } position = currentPosition; return true; } uint16_t FocusBehavior::calculatePositionFromRadarX(float radarX) { // Clamp radar x to valid range if (radarX < RADAR_X_MIN) radarX = RADAR_X_MIN; if (radarX > RADAR_X_MAX) radarX = RADAR_X_MAX; // Linear mapping from radar x (-80 to 80) to motor position (1700 to 2300) // Center (2047) corresponds to radar x = 0 // Left (-80) maps to 1700, Right (80) maps to 2300 // Normalize radar x to -1.0 to 1.0 range float normalizedX = radarX / RADAR_X_MAX; // Calculate range from center // Left side: center - 347 = 1700 // Right side: center + 253 = 2300 float rangeLeft = POSITION_CENTER - POSITION_MIN; // 347 float rangeRight = POSITION_MAX - POSITION_CENTER; // 253 uint16_t position; if (normalizedX < 0.0f) { // Left side: use left range position = POSITION_CENTER + (uint16_t)(normalizedX * rangeLeft); } else { // Right side: use right range position = POSITION_CENTER + (uint16_t)(normalizedX * rangeRight); } // Clamp to valid range if (position < POSITION_MIN) position = POSITION_MIN; if (position > POSITION_MAX) position = POSITION_MAX; return position; } // ============================================================================ // Behavior Manager Implementation // ============================================================================ BehaviorManager behaviorManager; BehaviorManager::BehaviorManager() { behaviors.clear(); } void BehaviorManager::addBehavior(Behavior* behavior) { if (behavior == nullptr) return; // Check if already added for (Behavior* b : behaviors) { if (b == behavior) return; } behaviors.push_back(behavior); } void BehaviorManager::removeBehavior(Behavior* behavior) { behaviors.erase( std::remove(behaviors.begin(), behaviors.end(), behavior), behaviors.end() ); } void BehaviorManager::update() { // Update all behaviors for (Behavior* behavior : behaviors) { if (behavior) { behavior->update(); } } } bool BehaviorManager::getMotorPosition(uint8_t motorID, uint16_t& position) { // Check all behaviors to see if any wants to control this motor for (Behavior* behavior : behaviors) { if (behavior && behavior->getMotorPosition(motorID, position)) { return true; // Found a behavior controlling this motor } } return false; // No behavior controlling this motor }