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MKS22-CubeFine
LPC824
Fork of CubeFine by
Diff: Microduino_Motor.cpp
- Revision:
- 0:362c1482232c
- Child:
- 1:54a2d380f8c7
diff -r 000000000000 -r 362c1482232c Microduino_Motor.cpp --- /dev/null Thu Jan 01 00:00:00 1970 +0000 +++ b/Microduino_Motor.cpp Thu Jun 02 04:03:31 2016 +0000 @@ -0,0 +1,159 @@ +#include "Microduino_Motor.h" + +static motor_t motors[10]; // static array of key structures + +uint8_t MotorCount = 0; // the total number of attached keys + +Motor::Motor(PinName _motor_pinA, PinName _motor_pinB) +{ + if ( MotorCount < 10) { + this->motorIndex = MotorCount++; // assign a key index to this instance + //if (_motor_pinA < NUM_DIGITAL_PINS && _motor_pinB < NUM_DIGITAL_PINS) { + if (true) { +#if 0 + pinMode( _motor_pinA, OUTPUT) ; +#else + _period_us = 255; // 500Hz + pwmout_init(&_pwmA, _motor_pinA); + pwmout_period_us(&_pwmA, _period_us); // 500Hz + pwmout_pulsewidth_us(&_pwmA, 1); +#endif + motors[this->motorIndex].Pin.nbr_A = _motor_pinA; + +#if 0 + pinMode( _motor_pinB, OUTPUT) ; +#else + pwmout_init(&_pwmB, _motor_pinB); + pwmout_period_us(&_pwmB, _period_us); // 500Hz + pwmout_pulsewidth_us(&_pwmB, 1); +#endif + motors[this->motorIndex].Pin.nbr_B = _motor_pinB; + + this->fix=1; + } + } else { + this->motorIndex = 255 ; // too many keys + } +} + +void Motor::Fix(float _fix) +{ + this->fix=_fix; +} + +int16_t Motor::GetData(int16_t _throttle, int16_t _steering, uint8_t _dir) +{ + this->_motor_vol = _throttle; + + if(_dir == 1) + { + this->_motor_vol -= _steering / 2; + } + else + { + this->_motor_vol += _steering / 2; + } + if (this->_motor_vol > 255) + this->_motor_vol = 255; + else if (this->_motor_vol < -255) + this->_motor_vol = -255; + + //this->_motor_vol *= fix; + + return this->_motor_vol; +} + +#if 0 +void Motor::Driver(int16_t _motor_driver) +{ + int8_t channel_A = motors[this->motorIndex].Pin.nbr_A; + int8_t channel_B = motors[this->motorIndex].Pin.nbr_B; + if (_motor_driver == 0) { + digitalWrite(channel_A, LOW); + digitalWrite(channel_B, LOW); + } else if (_motor_driver > 0) { + analogWrite(channel_A, _motor_driver); + digitalWrite(channel_B, LOW); + } else { + analogWrite(channel_A, 255 + _motor_driver); + digitalWrite(channel_B, HIGH); + } +} +#else +void Motor::Driver(int16_t _motor_driver) +{ + //static bool flag = true; + uint32_t pulseWidth = 0; + //PinName channel_A = motors[this->motorIndex].Pin.nbr_A; + //PinName channel_B = motors[this->motorIndex].Pin.nbr_B; + #if 0 + pwmout_pulsewidth_us(&_pwmA, _period_us/2); + pwmout_pulsewidth_us(&_pwmB, 0); + return; + #endif + #if 0 + pwmout_pulsewidth_us(&_pwmA, 0); + pwmout_pulsewidth_us(&_pwmB, _period_us/2); + return; + #endif + if (_motor_driver == 0) { + pwmout_pulsewidth_us(&_pwmA, 0); + pwmout_pulsewidth_us(&_pwmB, 0); + } else if (_motor_driver > 0) { + #if 1 + pulseWidth = _period_us / 255 * _motor_driver; + pwmout_pulsewidth_us(&_pwmA, pulseWidth); + pwmout_pulsewidth_us(&_pwmB, 2); + #else + pwmout_pulsewidth_us(&_pwmA, _period_us/2); + pwmout_pulsewidth_us(&_pwmB, 0); + #endif + } else { + #if 0 + _motor_driver = 255 + _motor_driver; + pulseWidth = _period_us / 255 * _motor_driver; + pwmout_pulsewidth_us(&_pwmA, 0); + pwmout_pulsewidth_us(&_pwmB, pulseWidth); + #elif 1 + _motor_driver = abs(_motor_driver); + pulseWidth = _period_us / 255 * _motor_driver; + pwmout_pulsewidth_us(&_pwmA, 2); + pwmout_pulsewidth_us(&_pwmB, pulseWidth); + #elif 0 + _motor_driver = 255 + _motor_driver; + pulseWidth = _period_us / 255 * _motor_driver; + pwmout_pulsewidth_us(&_pwmA, _period_us); + pwmout_pulsewidth_us(&_pwmB, pulseWidth); + #else + pwmout_pulsewidth_us(&_pwmA, 0); + pwmout_pulsewidth_us(&_pwmB, 241); + #endif + } +} +#endif + +void Motor::Free() +{ + int8_t channel_A = motors[this->motorIndex].Pin.nbr_A; + int8_t channel_B = motors[this->motorIndex].Pin.nbr_B; +#if 0 + digitalWrite(channel_A, LOW); + digitalWrite(channel_B, LOW); +#else + pwmout_pulsewidth_us(&_pwmA, 0); + pwmout_pulsewidth_us(&_pwmB, 0); +#endif +} + +void Motor::Brake() +{ + int8_t channel_A = motors[this->motorIndex].Pin.nbr_A; + int8_t channel_B = motors[this->motorIndex].Pin.nbr_B; +#if 0 + digitalWrite(channel_A, HIGH); + digitalWrite(channel_B, HIGH); +#else + pwmout_pulsewidth_us(&_pwmA, _period_us); + pwmout_pulsewidth_us(&_pwmB, _period_us); +#endif +} \ No newline at end of file