Files
TencentOS-tiny/board/NUCLEO_STM32L073RZ/BSP/Src/lora_demo.c
Winfred LIN b6cb7147cc added fuzzy matching feature to at_echo; added set some AT+ commands for RHF76; added support for LSM6DS3;
1. in tos_at.h, added int  fuzzy_matching; field into at_echo_st struct, if this field is set to K_TRUE, then if echo message contains the string in "echo_expect" field.
2. added __API__ int tos_at_echo_fuzzy_matching_create(at_echo_t *echo, char *buffer, size_t buffer_size, char *echo_expect_contains) api to tos_at.c, which will create an at_echo_t with fuzzy_matching = K_TRUE;
3. added RHF76_ATCMD_SET_DELAY and  rhf76_set_delay to RHF76.h to allow set/query RX delay config
4. added RHF76_ATCMD_SET_DATA_RATE and rhf76_set_data_rate to RHF76.h to allow set/query date rate config
5. added rhf76_at_cmd_exe for DEBUG purpose, so that user can execute any AT+ commands they want
6. added code in lora_demo.c to demonstrate package segmentation.
2020-04-06 23:11:48 +10:00

386 lines
17 KiB
C
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#include "lora_demo.h"
#include "stm32l0xx_hal_flash_ex2.h"
#include "RHF76.h"
#include "bsp.h"
#include <Math.h>
/*
==================================================================================
data template:
Type Name Token DataType RW Attribute
property temperature temperature integer readonly range: [-100, 155]
initial: 0
step: 1
unit: centigrade
property humidity humidity integer readonly range: [-0, 100]
initial: 0
step: 1
unit: %
property pressure pressure integer read-write range: [259, 1260]
initial: 260
step: 1
unit: hPa
property magnFullscale magnFullscale integer read-write range: [4, 16]
initial: 4
step: 1
unit: guass
property magn_x magn_x float read-write range: [-16, 16]
initial: 0
step: 1
unit: guass
property magn_y magn_y float read-write range: [-16, 16]
initial: 0
step: 1
unit: guass
property magn_z magn_z float read-write range: [-16, 16]
initial: 0
step: 1
unit: guass
property altitude altitude float read-write range: [-1000, 10000]
initial: 0
step: 1
unit: m
property isconfirmed isconfirmed bool read-write 0: confirmed message
1: unconfirmed message
property report_period period integer read-write range: [0, 3600]
initial: 0
step: 1
unit: second
==================================================================================
up-link parser javascript:
function RawToProtocol(fPort, bytes) {
var data ={
"method": "report",
"clientToken": new Date(),
"params": {}
}
data.params.magnFullscale = GetMagnFullscale(bytes[0]);
var tempSensitivity = bytes[1];
var humiSensitivity = bytes[2] | (bytes[3]<<8);
var presSensitivity = bytes[4] | (bytes[5]<<8);
var magnSensitivity = bytes[6] | (bytes[7]<<8);
data.params.temperature = (ConvertToInt16(bytes[8] | (bytes[9]<<8))*1.0/10).toFixed(2);
data.params.humidity = ((bytes[10] | (bytes[11]<<8))*1.0/10).toFixed(2);
data.params.magnX = (ConvertToInt16(bytes[12] | (bytes[13]<<8))*1.0/magnSensitivity).toFixed(2);
data.params.magnY = (ConvertToInt16(bytes[14] | (bytes[15]<<8))*1.0/magnSensitivity).toFixed(2);
data.params.magnZ = (ConvertToInt16(bytes[16] | (bytes[17]<<8))*1.0/magnSensitivity).toFixed(2);
data.params.period = bytes[18] | (bytes[19]<<8);
data.params.pressure = ((bytes[20] | (bytes[21]<<8) | (bytes[22]<<16) | (bytes[23]<<24))*1.0/presSensitivity).toFixed(2);
data.params.altitude = ((Math.pow(1017.92/data.params.pressure,1.0/5.257) - 1)*(data.params.temperature/10.0+273.15)/0.0065).toFixed(2);
return data;
}
function ConvertToInt16(num)
{
var intNum = num;
if ((num & 0x8000) > 0) {
intNum = num - 0x10000;
}
return intNum;
}
function GetMagnFullscale(fullscale){
var MagnFullscale = { 0: 4, 1: 8, 2: 12, 3: 16 };
return MagnFullscale[fullscale] === undefined ? 4 : MagnFullscale[fullscale];
}
==================================================================================
down-link parser javascript:
function ProtocolToRaw(obj) {
var data = new Array();
data[0] = 5; // fport = 5
data[1] = 0; // unconfirmed mode
data[2] = obj.params.period & 0x00FF;
data[3] = (obj.params.period >> 8) & 0x00FF;
data[4] = GetMagnFullscale(obj.params.magnFullscale);
data[5] = obj.params.isconfirmed;
return data;
}
function GetMagnFullscale(fullscale){
var MagnFullscale = { 4: 0, 8: 1, 12: 2, 16: 3 };
return MagnFullscale[fullscale]===undefined?0:MagnFullscale[fullscale];
}
*/
typedef struct device_data_st {
// -- data set 1
uint8_t magn_fullscale; // fullscale of magnetometer (RW)
uint8_t temp_sensitivity; // temperature sensitivity (R)
uint16_t humi_sensitivity; // humidity sensitivity (R)
uint16_t press_sensitivity; // pressure sensitivity (R)
uint16_t magn_sensitivity; // magnetic sensitivity (R)
int16_t temperature; // temperature (R)
int16_t humidity; // humidity (R)
int16_t magn_x; // X-magnetic value in LSB (R)
int16_t magn_y; // Y-magnetic value in LSB (R)
int16_t magn_z; // Z-magnetic value in LSB (R)
uint16_t period; // report period (R)
uint32_t pressure; // pressure (R)
// --- data set 2
uint16_t accel_fullscale; // fullscale of accelerometer(RW)
uint16_t gyro_fullscale; // fullscale of magnetometer (RW)
int16_t accel_x; // X-accel value in LSB (R)
int16_t accel_y; // Y-accel value in LSB (R)
int16_t accel_z; // Z-accel value in LSB (R)
int16_t gyro_x; // X-gyro value in LSB (R)
int16_t gyro_y; // Y-gyro value in LSB (R)
int16_t gyro_z; // Z-gyro value in LSB (R)
uint32_t accel_sensitivity; // accel sensitivity (R)
uint32_t gyro_sensitivity; // gyro sensitivity (R)
} __PACKED__ dev_data_t;
typedef struct device_data_wrapper_st {
union {
dev_data_t dev_data;
uint8_t serialize[sizeof(dev_data_t)];
} u;
} dev_data_wrapper_t;
dev_data_wrapper_t dev_data_wrapper;
DeviceConfig_TypeDef device_config;
void set_config_to_default(DeviceConfig_TypeDef* config)
{
config->config_address = 0x08080000U;
config->is_confirmed = true;
config->report_period = 10;
config->magn_fullscale = MAGN_FULLSCALE_4;
config->accel_fullscale = ACCEL_FULLSCALE_4;
config->gyro_fullscale = GYRO_FULLSCALE_250;
}
/**
* @brief Write the configuration to the internal EEPROM bank 1
* @note a single config frame is of 32-bit(a word, 4bytes), and the config
* block starts with a frame whose value is 0x464E4F43U ('CONF' from
* low to high) and ends with a frame with a value of 0xFFFFFFFFU; a
* single data frame has a following structure<72><65>
* ----------------------------------------------------------------
* | byte | 0 | 1 | 2 | 3 |
* ----------------------------------------------------------------
* | value| Device Config Type | value-L | value-H | reserve |
* ----------------------------------------------------------------
* the reserve byte could be used as an extra byte for the config
* value, i.e. a 24-bit value.
*
* @param config system configurations
*
* @retval HAL_StatusTypeDef HAL Status
*/
HAL_StatusTypeDef write_config_to_Flash(DeviceConfig_TypeDef config)
{
uint32_t frame[5] = {0};
frame[0] = 0x464E4F43U; // <'C'><'O'><'N'><'F'> from low to high
frame[1] = (uint32_t)config.is_confirmed<<8 | (uint32_t)DCT_IS_CONFIRM;
frame[2] = (uint32_t)config.report_period<<8 | (uint32_t)DCT_REPORT_PERIOD;
frame[3] = (uint32_t)config.repeat_time<<8 | (uint32_t)DCT_REPEAT_TIME;
frame[3] = (uint32_t)config.magn_fullscale<<8 | (uint32_t)DCT_MAGN_FULLSCALE;
frame[3] = (uint32_t)config.accel_fullscale<<8 | (uint32_t)DCT_ACCEL_FULLSCALE;
frame[3] = (uint32_t)config.gyro_fullscale<<8 | (uint32_t)DCT_GYRO_FULLSCALE;
frame[4] = 0xFFFFFFFFU;
HAL_FLASH_Unlock();
uint8_t retry = 10;
HAL_StatusTypeDef status = HAL_OK;
for(int i=0; i<5; i++)
{
status = HAL_OK;
do{
status = HAL_FLASH_Program(FLASH_TYPEPROGRAM_WORD, config.config_address+4*i, frame[i]);
}while(retry--!=0 && status != HAL_OK);
}
HAL_FLASH_Lock();
return status;
}
HAL_StatusTypeDef read_config_from_Flash(DeviceConfig_TypeDef* config)
{
uint32_t data = 0;
HAL_StatusTypeDef status = HAL_FLASH_ReadWord(config->config_address, &data);
if(status == HAL_OK)
{
// a valid config starts with <'C'><'O'><'N'><'F'> and ended with a word of 0xFFFFFFFF
if((char)(data&0xFF) == 'C'
&&(char)(data>>8&0xFF) == 'O'
&&(char)(data>>16&0xFF) == 'N'
&&(char)(data>>24&0xFF) == 'F')
{
int i = 0;
int retry = 10;
DeviceConfigType_TypeDef config_type = DCT_DEFAULT;
while(data!=0xFFFFFFFF)
{
i+=4;
status = HAL_FLASH_ReadWord(config->config_address+i, &data);
if(status != HAL_OK){
retry--;
i-=4;
if(retry == 0) break;
}else{
config_type = (DeviceConfigType_TypeDef)(data&0xFF);
switch(config_type)
{
case DCT_IS_CONFIRM:
{
config->is_confirmed = (bool)(data>>8&0xFF);
break;
}
case DCT_REPORT_PERIOD:
{
config->report_period = (uint16_t)(data>>8&0xFFFF);
break;
}
case DCT_REPEAT_TIME:
{
config->repeat_time = (uint8_t)(data>>8&0xFF);
break;
}
case DCT_MAGN_FULLSCALE:
{
config->magn_fullscale = (LIS3MDL_FullScaleTypeDef)(data>>8&0xFF);
break;
}
case DCT_ACCEL_FULLSCALE:
{
config->accel_fullscale = (LSM6DS3_AccelFullscaleTypeDef)(data>>8&0xFF);
break;
}
case DCT_GYRO_FULLSCALE:
{
config->gyro_fullscale = (LSM6DS3_GyroFullscaleTypeDef)(data>>8&0xFF);
break;
}
default:
{
break;
}
}
}
}
}
}
return status;
}
void recv_callback(uint8_t *data, uint8_t len)
{
printf("len: %d\n", len);
int i = 0;
for (i = 0; i < len; ++i) {
printf("data[%d]: %d\n", i, data[i]);
}
if (len == 1) {
device_config.report_period = data[0];
} else if (len >= 2) {
device_config.is_confirmed = (bool)data[3];
device_config.report_period = data[0] | (data[1] << 8);
device_config.magn_fullscale = (LIS3MDL_FullScaleTypeDef)data[2];
LIS3MDL_Set_FullScale(device_config.magn_fullscale);
write_config_to_Flash(device_config);
}
}
void print_to_screen(sensor_data_t sensor_data)
{
float pressure = sensor_data.sensor_press.pressure*1.0/sensor_data.sensor_press.sensitivity;
float altitude = (pow(1013.25/pressure,1.0/5.257) - 1)*((int16_t)sensor_data.sensor_tempnhumi.temperature/10.0+273.15)/0.0065;
printf("temperature: %2.2f\n", (int16_t)sensor_data.sensor_tempnhumi.temperature / 10.0);
printf("humidity : %2.2f\n", sensor_data.sensor_tempnhumi.humidity / 10.0);
printf("pressure : %2.2f,\t altitude: %2.2f\n", pressure, altitude);
printf("magn : %2.3f, %2.3f, %2.3f\n",
(int16_t)sensor_data.sensor_magn.magn_x*1.0/sensor_data.sensor_magn.sensitivity,
(int16_t)sensor_data.sensor_magn.magn_y*1.0/sensor_data.sensor_magn.sensitivity,
(int16_t)sensor_data.sensor_magn.magn_z*1.0/sensor_data.sensor_magn.sensitivity);
}
/**
* @brief application entry
* @modified by jieranzhi 2020/03/31
*/
void application_entry(void *arg)
{
// retrieve configuration from the EEPROM (if any)
set_config_to_default(&device_config);
HAL_StatusTypeDef status = read_config_from_Flash(&device_config);
if(status != HAL_OK)
{
printf("retrieve configuration FAILED!\r\n");
}
// initialization
sensor_data_t sensor_data;
BSP_Sensor_Init(device_config);
rhf76_lora_init(HAL_UART_PORT_1);
tos_lora_module_recvcb_register(recv_callback);
tos_lora_module_join_otaa("8cf957200000f52c", "8cf957200000f52c6d09aaaaad204a72");
// do the job
while (1) {
BSP_Sensor_Read(&sensor_data);
print_to_screen(sensor_data);
// generate data frame for data set 1
dev_data_wrapper.u.dev_data.magn_fullscale = (uint8_t)(sensor_data.sensor_magn.fullscale);
dev_data_wrapper.u.dev_data.temp_sensitivity = (uint8_t)(sensor_data.sensor_tempnhumi.temp_sensitivity);
dev_data_wrapper.u.dev_data.humi_sensitivity = (uint16_t)(sensor_data.sensor_tempnhumi.humi_sensitivity);
dev_data_wrapper.u.dev_data.press_sensitivity = (uint16_t)(sensor_data.sensor_press.sensitivity);
dev_data_wrapper.u.dev_data.magn_sensitivity = (uint16_t)(sensor_data.sensor_magn.sensitivity);
dev_data_wrapper.u.dev_data.temperature = (int16_t)(sensor_data.sensor_tempnhumi.temperature);
dev_data_wrapper.u.dev_data.humidity = (int16_t)(sensor_data.sensor_tempnhumi.humidity);
dev_data_wrapper.u.dev_data.magn_x = (int16_t)(sensor_data.sensor_magn.magn_x);
dev_data_wrapper.u.dev_data.magn_y = (int16_t)(sensor_data.sensor_magn.magn_y);
dev_data_wrapper.u.dev_data.magn_z = (int16_t)(sensor_data.sensor_magn.magn_z);
dev_data_wrapper.u.dev_data.period = device_config.report_period;
dev_data_wrapper.u.dev_data.pressure = (uint32_t)(sensor_data.sensor_press.pressure);
// generate data frame for data set 2
dev_data_wrapper.u.dev_data.accel_fullscale = (uint16_t)(sensor_data.sensor_motion.accelFullscale);
dev_data_wrapper.u.dev_data.gyro_fullscale = (uint16_t)(sensor_data.sensor_motion.gyroFullscale);
dev_data_wrapper.u.dev_data.accel_sensitivity = (uint32_t)(sensor_data.sensor_motion.accelSensitivity);
dev_data_wrapper.u.dev_data.gyro_sensitivity = (uint32_t)(sensor_data.sensor_motion.gyroSensitivity);
dev_data_wrapper.u.dev_data.accel_x = (int16_t)(sensor_data.sensor_motion.accelX);
dev_data_wrapper.u.dev_data.accel_y = (int16_t)(sensor_data.sensor_motion.accelY);
dev_data_wrapper.u.dev_data.accel_z = (int16_t)(sensor_data.sensor_motion.accelZ);
dev_data_wrapper.u.dev_data.gyro_x = (int16_t)(sensor_data.sensor_motion.gyroX);
dev_data_wrapper.u.dev_data.gyro_y = (int16_t)(sensor_data.sensor_motion.gyroY);
dev_data_wrapper.u.dev_data.gyro_z = (int16_t)(sensor_data.sensor_motion.gyroZ);
// package segmentation
uint8_t data_frame1[25]={0}; // idx = 0
uint8_t data_frame2[25]={1}; // idx = 1
memcpy(data_frame1+1, dev_data_wrapper.u.serialize, sizeof(uint8_t)*24);
memcpy(data_frame2+1, dev_data_wrapper.u.serialize+24, sizeof(uint8_t)*24);
// send data to the server (via gateway)
if(device_config.is_confirmed){
tos_lora_module_send(data_frame1, sizeof(data_frame1));
tos_lora_module_send(data_frame2, sizeof(data_frame2));
}else{
tos_lora_module_send_unconfirmed(data_frame1, sizeof(data_frame1));
tos_lora_module_send_unconfirmed(data_frame2, sizeof(data_frame2));
}
tos_task_delay(device_config.report_period * 1000);
}
}