HVAC_DEV_Sensor/SensorSPI.c

272 lines
8.1 KiB
C

//
// Created by cfif on 03.06.2024.
//
#include "SensorSPI.h"
#include "SystemDelayInterface.h"
static void setSensorTypeAdr(tSensorSPI *env, tConABC *connABC, uint8_t adr) {
switch (adr) {
case 0: {
GpioPinSet(&connABC->A, false);
GpioPinSet(&connABC->B, false);
GpioPinSet(&connABC->C, false);
break;
}
case 1: {
GpioPinSet(&connABC->A, true);
GpioPinSet(&connABC->B, false);
GpioPinSet(&connABC->C, false);
break;
}
case 2: {
GpioPinSet(&connABC->A, false);
GpioPinSet(&connABC->B, true);
GpioPinSet(&connABC->C, false);
break;
}
case 3: {
GpioPinSet(&connABC->A, true);
GpioPinSet(&connABC->B, true);
GpioPinSet(&connABC->C, false);
break;
}
case 4: {
GpioPinSet(&connABC->A, false);
GpioPinSet(&connABC->B, false);
GpioPinSet(&connABC->C, true);
break;
}
case 5: {
GpioPinSet(&connABC->A, true);
GpioPinSet(&connABC->B, false);
GpioPinSet(&connABC->C, true);
break;
}
case 6: {
GpioPinSet(&connABC->A, false);
GpioPinSet(&connABC->B, true);
GpioPinSet(&connABC->C, true);
break;
}
case 7: {
GpioPinSet(&connABC->A, true);
GpioPinSet(&connABC->B, true);
GpioPinSet(&connABC->C, true);
break;
}
}
}
#define DelayCn 1000
static void Delay(uint32_t count) {
for (uint32_t i = 0; i < count; ++i) {
__asm__ volatile("nop");
}
}
bool setSpiSensor(tSensorSPI *env, tSensorType sensorType, tSensorAdr sensorAdr, uint16_t data) {
switch (sensorType) {
case SENSOR_TYPE_A: {
bool result = false;
if (sensorAdr >= SENSOR_ADR_9) {
setSensorTypeAdr(env, &env->conns->COON_A.Con, sensorAdr - SENSOR_ADR_9);
Delay(DelayCn);
GpioPinSet(&env->conns->COON_A.En1, true);
GpioPinSet(&env->conns->COON_A.En2, false); // CS En2
} else {
setSensorTypeAdr(env, &env->conns->COON_A.Con, sensorAdr);
Delay(DelayCn);
GpioPinSet(&env->conns->COON_A.En1, false); // CS En1
GpioPinSet(&env->conns->COON_A.En2, true);
}
Delay(DelayCn);
result = SpiPortTransmit(&env->spiPorts->Spi1_IO, &data, 1000);
Delay(DelayCn);
GpioPinSet(&env->conns->COON_A.En1, true);
GpioPinSet(&env->conns->COON_A.En2, true);
Delay(DelayCn);
return result;
}
case SENSOR_TYPE_B: {
bool result = false;
// Эти управляются мультиплексором SENSOR_TYPE_A
if ((sensorAdr == SENSOR_ADR_9) || (sensorAdr == SENSOR_ADR_10)) {
if (sensorAdr == SENSOR_ADR_9) {
setSensorTypeAdr(env, &env->conns->COON_A.Con, SENSOR_ADR_7);
}
if (sensorAdr == SENSOR_ADR_10) {
setSensorTypeAdr(env, &env->conns->COON_A.Con, SENSOR_ADR_8);
}
GpioPinSet(&env->conns->COON_A.En1, true);
GpioPinSet(&env->conns->COON_A.En2, false); // CS En2
Delay(DelayCn);
// Только тут SPI2
result = SpiPortTransmit(&env->spiPorts->Spi2_IO, &data, 1000);
Delay(DelayCn);
GpioPinSet(&env->conns->COON_A.En1, true);
GpioPinSet(&env->conns->COON_A.En2, true);
Delay(DelayCn);
} else {
setSensorTypeAdr(env, &env->conns->COON_B.Con, sensorAdr);
Delay(DelayCn);
result = SpiPortTransmit(&env->spiPorts->Spi2_IO, &data, 1000);
Delay(DelayCn);
GpioPinSet(&env->conns->COON_B.En1, true);
}
Delay(DelayCn);
return result;
}
case SENSOR_TYPE_E: {
if (sensorAdr >= SENSOR_ADR_9) {
setSensorTypeAdr(env, &env->conns->COON_E.Con, sensorAdr - SENSOR_ADR_9);
Delay(DelayCn);
GpioPinSet(&env->conns->COON_E.En1, true);
GpioPinSet(&env->conns->COON_E.En2, false); // CS En2
} else {
setSensorTypeAdr(env, &env->conns->COON_E.Con, sensorAdr);
Delay(DelayCn);
GpioPinSet(&env->conns->COON_E.En1, false); // CS En1
GpioPinSet(&env->conns->COON_E.En2, true);
}
Delay(DelayCn);
bool result = SpiPortTransmit(&env->spiPorts->Spi3_IO, &data, 1000);
Delay(DelayCn);
GpioPinSet(&env->conns->COON_E.En1, true);
GpioPinSet(&env->conns->COON_E.En2, true);
Delay(DelayCn);
return result;
}
case SENSOR_TYPE_D: {
bool result = false;
// Эти управляются мультиплексором SENSOR_TYPE_E
if ((sensorAdr == SENSOR_ADR_9) || (sensorAdr == SENSOR_ADR_10)) {
if (sensorAdr == SENSOR_ADR_9) {
setSensorTypeAdr(env, &env->conns->COON_E.Con, SENSOR_ADR_5);
}
if (sensorAdr == SENSOR_ADR_10) {
setSensorTypeAdr(env, &env->conns->COON_E.Con, SENSOR_ADR_6);
}
Delay(DelayCn);
GpioPinSet(&env->conns->COON_E.En1, true);
GpioPinSet(&env->conns->COON_E.En2, false); // CS En2
Delay(DelayCn);
result = SpiPortTransmit(&env->spiPorts->Spi3_IO, &data, 1000);
Delay(DelayCn);
GpioPinSet(&env->conns->COON_E.En1, true);
GpioPinSet(&env->conns->COON_E.En2, true);
} else {
GpioPinSet(&env->conns->COON_D.En1, false); // CS En1
Delay(DelayCn);
setSensorTypeAdr(env, &env->conns->COON_D.Con, sensorAdr);
Delay(DelayCn);
result = SpiPortTransmit(&env->spiPorts->Spi3_IO, &data, 1000);
Delay(DelayCn);
GpioPinSet(&env->conns->COON_D.En1, true);
}
Delay(DelayCn);
return result;
}
case SENSOR_TYPE_F: {
if (sensorAdr >= SENSOR_ADR_17) {
setSensorTypeAdr(env, &env->conns->COON_F.Con, sensorAdr - SENSOR_ADR_17);
Delay(DelayCn);
GpioPinSet(&env->conns->COON_F.En1, true);
GpioPinSet(&env->conns->COON_F.En2, true);
GpioPinSet(&env->conns->COON_F.En3, false); // CS En3
} else {
if (sensorAdr >= SENSOR_ADR_9) {
setSensorTypeAdr(env, &env->conns->COON_F.Con, sensorAdr - SENSOR_ADR_9);
Delay(DelayCn);
GpioPinSet(&env->conns->COON_F.En1, true);
GpioPinSet(&env->conns->COON_F.En2, false); // CS En2
GpioPinSet(&env->conns->COON_F.En3, true);
} else {
setSensorTypeAdr(env, &env->conns->COON_F.Con, sensorAdr);
Delay(DelayCn);
GpioPinSet(&env->conns->COON_F.En1, false); // CS En1
GpioPinSet(&env->conns->COON_F.En2, true);
GpioPinSet(&env->conns->COON_F.En3, true);
}
}
Delay(DelayCn);
bool result = SpiPortTransmit(&env->spiPorts->Spi4_IO, &data, 1000);
Delay(DelayCn);
GpioPinSet(&env->conns->COON_F.En1, true);
GpioPinSet(&env->conns->COON_F.En2, true);
GpioPinSet(&env->conns->COON_F.En3, true);
Delay(DelayCn);
return result;
}
}
return false;
}
void SensorSpi_Init(tSensorSPI *env, tSpiPorts *spiPorts, tConns *conns) {
env->spiPorts = spiPorts;
env->conns = conns;
}