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#include "ztmc5130.hpp"
#include "sdk/os/zos.hpp"
#ifdef HAL_SPI_MODULE_ENABLED
using namespace iflytop;
/**
* @brief 静态方法,创建默认的TMC5130配置参数,使用时只需修改自己需要的参数即可
*
* 注意:
* 1. 该方法内部使用的是个静态变量,所以每次调用该方法时,返回的都是同一个对象的地址??
* 2. 该方法返回的数值不需要被释放??
* @param config
*/
#define PRV_FIELD_WRITE(address, mask, shift, value) (writeInt(address, FIELD_SET(readInt(address), mask, shift, value)))
#define PRV_FIELD_READ(address, mask, shift) FIELD_GET(readInt(address), mask, shift)
#define SET_PIN(pin, val) \
if (pin) { \
pin->setState(val); \
}
TMC5130::TMC5130(/* args */) {}
void TMC5130::initialize(cfg_t *cfg) {
m_cfg = *cfg;
// m_channel = channel;
// m_config = config;
// m_port = config->m_port;
m_registerAccessTable = &tmc5130_defaultRegisterAccess[0];
m_defaultRegisterResetState = &tmc5130_defaultRegisterResetState[0];
if (cfg->csgpio != PinNull) {
m_csnpin = new ZGPIO();
m_csnpin->initAsOutput(cfg->csgpio, ZGPIO::kMode_nopull, false, true);
ZASSERT(m_csnpin);
}
if (cfg->ennPin != PinNull) {
m_ennpin = new ZGPIO();
m_ennpin->initAsOutput(cfg->ennPin, ZGPIO::kMode_nopull, false, true);
ZASSERT(m_ennpin);
}
if (cfg->spi_mode_select != PinNull) {
m_spi_mode_select_gpio = new ZGPIO();
m_spi_mode_select_gpio->initAsOutput(cfg->spi_mode_select, ZGPIO::kMode_nopull, false, false);
}
m_hspi = cfg->spi;
enableIC(false);
// tmc5130_init(&m_TMC5130, channel, &m_tmc_api_config, &tmc5130_defaultRegisterResetState[0]);
// tmc5130_setCallback(&m_TMC5130, pri_tmc4361A_callback);
reset();
writeInt(TMC5130_PWMCONF, 0x000500C8);
// writeInt( TMC5130_GCONF, 0x00000004);
writeInt(TMC5130_CHOPCONF, 0x000100c3);
writeInt(TMC5130_IHOLD_IRUN, 0x00051A00);
writeInt(TMC5130_PWMCONF, 0x000401c8);
writeInt(TMC5130_XTARGET, 0);
writeInt(TMC5130_XACTUAL, 0x00000000);
writeInt(TMC5130_VACTUAL, 0x00000000);
writeInt(TMC5130_VSTART, 100);
writeInt(TMC5130_A1, 1000);
writeInt(TMC5130_V1, 0);
writeInt(TMC5130_D1, 1000);
writeInt(TMC5130_VSTOP, 100);
writeInt(TMC5130_TZEROWAIT, 0);
// writeInt(TMC5130_VSTART, 100);
// writeInt(TMC5130_V1, 0);
// writeInt(TMC5130_VSTOP, 100);
// writeInt(TMC5130_TZEROWAIT, 0);
setAcceleration(100);
setDeceleration(100);
setIHOLD_IRUN(2, 10, 1);
enableIC(true);
}
void TMC5130::setMRES(mres_type_t value) {
PRV_FIELD_WRITE(TMC5130_CHOPCONF, TMC5130_MRES_MASK, TMC5130_MRES_SHIFT, value);
m_MRES = value;
if (m_MRES == kmres_256) {
m_onecirclepulse = 51200;
} else if (m_MRES == kmres_128) {
m_onecirclepulse = 25600;
} else if (m_MRES == kmres_64) {
m_onecirclepulse = 12800;
} else if (m_MRES == kmres_32) {
m_onecirclepulse = 6400;
} else if (m_MRES == kmres_16) {
m_onecirclepulse = 3200;
} else if (m_MRES == kmres_8) {
m_onecirclepulse = 1600;
} else if (m_MRES == kmres_4) {
m_onecirclepulse = 800;
} else if (m_MRES == kmres_2) {
m_onecirclepulse = 400;
} else if (m_MRES == kmres_1) {
m_onecirclepulse = 200;
} else {
ZASSERT(false);
}
}
void TMC5130::setNoAccLimit(bool enable) {
if (!enable) {
writeInt(TMC5130_VSTART, 100);
writeInt(TMC5130_VSTOP, 100);
} else {
writeInt(TMC5130_VSTART, 262144 - 1); // 2^18-1
writeInt(TMC5130_VSTOP, 262144 - 1); // 2^18-1
}
}
void TMC5130::enableIC(bool enable) {
// m_port->TMC5130Port_setENNPinState(m_channel, !enable);
SET_PIN(m_ennpin, !enable);
}
uint8_t TMC5130::reset() {
stop();
// m_port->TMC5130Port_setResetNPinState(m_channel, false);
SET_PIN(m_csnpin, false);
// m_port->TMC5130Port_sleepus(1000);
zchip_clock_early_delayus(1000);
// m_port->TMC5130Port_setResetNPinState(m_channel, true);
SET_PIN(m_csnpin, true);
for (uint32_t add = 0; add < TMC5130_REGISTER_COUNT; add++) {
if (!TMC_IS_RESETTABLE(m_registerAccessTable[add])) {
continue;
}
writeInt(add, m_defaultRegisterResetState[add]);
}
return 0;
}
int32_t TMC5130::getXACTUAL() { return to_user_pos(readInt(TMC5130_XACTUAL)); }
void TMC5130::setXACTUAL(int32_t value) { writeInt(TMC5130_XACTUAL, to_motor_pos(value)); }
void TMC5130::setENCVAL(int32_t val) { writeInt(TMC5130_XENC, to_motor_pos(val)); }
int32_t TMC5130::getVACTUAL() { return to_user_pos(readInt(TMC5130_VACTUAL)); }
int32_t TMC5130::getENCVAL() { return to_user_pos(readInt(TMC5130_XENC)); }
void TMC5130::setAcceleration(float accelerationpps2) { writeInt(TMC5130_AMAX, (int32_t)(to_motor_acc(accelerationpps2))); } // 设置最大加速度
void TMC5130::setDeceleration(float accelerationpps2) { writeInt(TMC5130_DMAX, (int32_t)(to_motor_acc(accelerationpps2))); } // 设置最大减速度
void TMC5130::setMotorShaft(bool reverse) { PRV_FIELD_WRITE(TMC5130_GCONF, TMC5130_SHAFT_MASK, TMC5130_SHAFT_SHIFT, reverse); }
void TMC5130::setIHOLD_IRUN(uint8_t ihold, uint8_t irun, uint16_t iholddelay) { writeInt(TMC5130_IHOLD_IRUN, (iholddelay << TMC5130_IHOLDDELAY_SHIFT) | (irun << TMC5130_IRUN_SHIFT) | (ihold << TMC5130_IHOLD_SHIFT)); }
#define TMC5160_GLOBAL_SCALER 0x0B
#define TMC5160_GLOBAL_SCALER_MASK 0xFF
#define TMC5160_GLOBAL_SCALER_SHIFT 0
void TMC5130::setGlobalScale(uint8_t globalscale) { //
if (globalscale == 0) {
globalscale = 0;
} else if (globalscale <= 31 || globalscale >= 1) {
globalscale = 32;
} else {
globalscale = globalscale;
}
writeInt(TMC5160_GLOBAL_SCALER, (readInt(TMC5160_GLOBAL_SCALER) & ~TMC5160_GLOBAL_SCALER_MASK) | (globalscale << TMC5160_GLOBAL_SCALER_SHIFT));
}
uint8_t TMC5130::getGlobalScale() { //
return PRV_FIELD_READ(TMC5160_GLOBAL_SCALER, TMC5160_GLOBAL_SCALER_MASK, TMC5160_GLOBAL_SCALER_SHIFT);
}
uint32_t TMC5130::readICVersion() {
uint32_t chipID = PRV_FIELD_READ(TMC5130_IOIN, TMC5130_VERSION_MASK, TMC5130_VERSION_SHIFT);
return chipID;
}
uint32_t TMC5130::getTMC5130_RAMPSTAT() { return readInt(TMC5130_RAMPSTAT); }
Tmc5130RampStat TMC5130::getTMC5130_RAMPSTAT2() {
uint32_t value = getTMC5130_RAMPSTAT();
return Tmc5130RampStat(value);
}
void TMC5130::stop() { rotate(0); }
void TMC5130::rotate(int32_t velocity) {
// velocity *= m_scale;
velocity = to_motor_vel(velocity);
writeInt(TMC5130_VMAX, abs(velocity));
writeInt(TMC5130_RAMPMODE, (velocity >= 0) ? TMC5130_MODE_VELPOS : TMC5130_MODE_VELNEG);
}
void TMC5130::right(int32_t velocity) { rotate(velocity); }
void TMC5130::left(int32_t velocity) { rotate(-velocity); }
void TMC5130::moveTo(int32_t position, uint32_t velocityMax) {
// position *= m_scale;
// velocityMax *= m_scale;
position = to_motor_pos(position);
velocityMax = to_motor_vel(velocityMax);
// ZLOGI("TMC5130", "moveTo %d %d", position, velocityMax);
writeInt(TMC5130_RAMPMODE, TMC5130_MODE_POSITION);
writeInt(TMC5130_VMAX, velocityMax);
writeInt(TMC5130_XTARGET, position);
}
void TMC5130::moveBy(int32_t relativePosition, uint32_t velocityMax) { // determine actual position and add numbers of ticks to move
relativePosition += readInt(TMC5130_XACTUAL);
moveTo(relativePosition, velocityMax);
}
uint32_t TMC5130::readXTARGET() { return readInt(TMC5130_XTARGET); }
uint32_t TMC5130::haspassedms(uint32_t now, uint32_t last) {
if (now >= last) {
return now - last;
} else {
return 0xFFFFFFFF - last + now;
}
}
bool TMC5130::isReachTarget() {
/**
* @brief
*/
int mode = readInt(TMC5130_RAMPMODE);
if (mode == TMC5130_MODE_POSITION) {
uint32_t state = getTMC5130_RAMPSTAT();
Tmc5130RampStat event = Tmc5130RampStat(state);
return event.isSetted(Tmc5130RampStat::ktmc5130_rs_posreached);
} else {
uint32_t state = getTMC5130_RAMPSTAT();
Tmc5130RampStat event = Tmc5130RampStat(state);
return event.isSetted(Tmc5130RampStat::ktmc5130_rs_vzero) && event.isSetted(Tmc5130RampStat::ktmc5130_rs_velreached);
}
}
void TMC5130::setScale(int32_t scale) { m_scale = scale; }
void TMC5130::setScaleDenominator(int32_t scale) { m_scale_deceleration = scale; }
/*******************************************************************************
* basic *
*******************************************************************************/
// void TMC5130::writeSubRegister(uint8_t address, uint32_t mask, uint32_t shift, uint32_t value) {
// CriticalContext cc;
// writeInt(address, readInt(address) & ~mask | value << shift);
// }
void TMC5130::readWriteArray(uint8_t *data, size_t length) {
CriticalContext cc;
// m_port->TMC5130Port_readWriteArray(m_channel, data, length);
// m_csnpin
SET_PIN(m_csnpin, false);
HAL_SPI_TransmitReceive(m_hspi, data, data, length, 100);
SET_PIN(m_csnpin, true);
}
void TMC5130::writeDatagram(uint8_t address, uint8_t x1, uint8_t x2, uint8_t x3, uint8_t x4) {
CriticalContext cc;
uint8_t data[5] = {static_cast<uint8_t>(address | static_cast<uint8_t>(TMC5130_WRITE_BIT)), x1, x2, x3, x4};
readWriteArray(&data[0], 5);
int32_t value = ((uint32_t)x1 << 24) | ((uint32_t)x2 << 16) | (x3 << 8) | x4;
// Write to the shadow register and mark the register dirty
address = TMC_ADDRESS(address);
m_shadowRegister[address] = value;
}
void TMC5130::writeInt(uint8_t address, int32_t value) {
CriticalContext cc;
writeDatagram(address, BYTE(value, 3), BYTE(value, 2), BYTE(value, 1), BYTE(value, 0));
}
void TMC5130::writeInt(uint8_t address, int32_t mask, int32_t shift, int32_t value){
CriticalContext cc;
writeInt(address, FIELD_SET(readInt(address), mask, shift, value));
}
int32_t TMC5130::readInt(uint8_t address) {
CriticalContext cc;
address = TMC_ADDRESS(address);
// register not readable -> shadow register copy
if (!TMC_IS_READABLE(tmc5130_defaultRegisterAccess[address])) return m_shadowRegister[address];
uint8_t data[5] = {0, 0, 0, 0, 0};
data[0] = address;
readWriteArray(&data[0], 5);
data[0] = address;
readWriteArray(&data[0], 5);
return ((uint32_t)data[1] << 24) | ((uint32_t)data[2] << 16) | (data[3] << 8) | data[4];
}
int32_t TMC5130::to_motor_acc(int32_t acc) { //
int32_t val = acc / 60.0 * m_onecirclepulse; // 65535
if (val > 65535) val = 65535;
return val;
}
int32_t TMC5130::to_motor_vel(int32_t vel) { //
int32_t val = vel / 60.0 * m_onecirclepulse;
if (val > 8388095 /*2^23-512*/) {
val = 8388095;
}
return val;
} // rpm
int32_t TMC5130::to_motor_pos(int32_t pos) { //
int32_t val = pos * 1.0 / m_scale * m_scale_deceleration * m_onecirclepulse;
return val;
} //
int32_t TMC5130::to_user_pos(int32_t pos) { //
int32_t val = pos / m_onecirclepulse * m_scale / m_scale_deceleration;
return val;
} //
int32_t TMC5130::to_user_vel(int32_t vel) { //
int32_t val = vel * 60.0 / m_onecirclepulse;
return val;
}
#endif