void vConsolePutChar(xConsole *pxW, char cChar){
xConsoleProps *xP;
if(!pxW)
return;
xP = pxW->pvProp;
if(xP->xqConsole && xConsoleWnd && xConsoleWnd->bVisible)
xQueueSendToBack(xP->xqConsole, &cChar, OS_DELAY_MS(100));
}
static void config_adxl362(spi_device dev)
{
uint8_t cmd[3];
/* reset ADXL362 */
cmd[0] = ADXL362_CMD_WRITE_REG;
cmd[1] = ADXL362_REG_SOFT_RESET;
cmd[2] = ADXL362_RESET_CODE;
ad_spi_write(dev, cmd, sizeof(cmd));
OS_DELAY_MS(1);
/*
* configure filter control register
* range: 4g
* halved bandwidth: true
* external sampling trigger: false
* output data rate: 25 Hz
*/
cmd[0] = ADXL362_CMD_WRITE_REG;
cmd[1] = ADXL362_REG_FILTER_CTL;
cmd[2] = ADXL362_FILTER_CTL_CODE;
ad_spi_write(dev, cmd, sizeof(cmd));
/*
* configure power control register
* external clock: false
* low noise: ultralow noise mode
* wake-up mode: false
* autosleep: false
* measure mode: measure
*/
cmd[0] = ADXL362_CMD_WRITE_REG;
cmd[1] = ADXL362_REG_POWER_CTL;
cmd[2] = ADXL362_POWER_CTL_CODE;
ad_spi_write(dev, cmd, sizeof(cmd));
/* wait for first measurement's value */
OS_DELAY_MS(1000 / 25 + 1);
}
void ICACHE_FLASH_ATTR user_init(void){
DBG("user_init() started\n");
//
//prepare test vars and buffers
wlcd_text_draw_settings_struct S;
//
char* Str = os_malloc(256);
uint8_t* ImgData = os_malloc(11000); //arrays allocated by os_malloc() are also always 4-bytes aligned (at least on ESP8266 SDK). Make sure that the buffer is big enough
if((Str==NULL)||(ImgData==NULL)) return; //os_malloc() failed => abort
uint16_t W, H;
uint32_t t, t2;
uint16_t i;
uint16_t DoneXOffs;
uint16_t DoneYOffs;
//
//init display
wlcd_init();
//
#if(WLCD_BPP==WLCD_16BPP)
wfof_get_file_data_fast(WFOF_IDX_WLCD_DEMO_16BPP, (uint32_t*)ImgData, 0, WFOF_SIZE_WLCD_DEMO_16BPP);
#else
wfof_get_file_data_fast(WFOF_IDX_WLCD_DEMO_24BPP, (uint32_t*)ImgData, 0, WFOF_SIZE_WLCD_DEMO_24BPP);
#endif
//
while(1){
//
//---- WLCD test / demo intro (countdown)
//
//clear whole display (black)
wlcd_rect_fill(0,0, WLCD_WIDTH, WLCD_HEIGHT, 0);
//
//demo image
wlcd_img_draw(ImgData, (WLCD_WIDTH-wlcd_img_get_width(ImgData))/2, ((WLCD_HEIGHT-wlcd_img_get_height(ImgData))/2)-10);
//
//test countdown
S.X = 10;
S.Y = 10;
S.Color.u32t = WLCD_RGB_TO_COLOR(0xFF, 0x5C, 0x20);
S.FontIdx = 2;
S.FontZoomAdd = 0;
S.BoldAdd = 0;
S.HSpc = 0;
S.VSpc = 0;
S.MaxW = WLCD_WIDTH-20;
S.MaxH = 40;
S.WrapStyle = WLCD_WRAP_NONE;
//
wlcd_text_measure("DONE", &S, &W, &H);
DoneXOffs = (WLCD_WIDTH-W)/2;
DoneYOffs = (WLCD_HEIGHT-H)/2;
//
#if(WLCD_DISPLAY==WLCD_ILI9341)
ets_sprintf(Str, "WLCD %s, ILI9341, %d bpp", wlcd_get_version(), WLCD_BPP);
#elif(WLCD_DISPLAY==WLCD_ILI9488_KDv4_HACK)
ets_sprintf(Str, "WLCD %s, ILI9488_KDv4_HACK, %d bpp", wlcd_get_version(), WLCD_BPP);
#elif(WLCD_DISPLAY==WLCD_ILI9488)
ets_sprintf(Str, "WLCD %s, ILI9488, %d bpp", wlcd_get_version(), WLCD_BPP);
#endif
wlcd_text_draw(Str, &S);
//
S.X = 10;
S.Y = 25;
#ifdef WLCD_USE_HSPI
ets_sprintf(Str, "HW mode, HSPI CLK = %d kHz", ((uint32_t)system_get_cpu_freq()*1000) / WLCD_SPI_CLK_PREDIV / WLCD_SPI_CLK_CNTDIV);
#else
ets_sprintf(Str, "SW mode");
#endif
wlcd_text_draw(Str, &S);
//
S.X = 10;
S.Y = WLCD_HEIGHT - 10 - wlcd_text_nrows_height(1, &S) - 3;
ets_sprintf(Str, "Test starts in ");
wlcd_text_measure(Str, &S, &W, &H);
wlcd_text_draw(Str, &S);
//wlcd_text_draw_or_measure(Str, &S, 0, &W, &H); //this is also possible instead of two lines above
//
S.FontZoomAdd = 1;
S.X = 10 + W;
S.Y = WLCD_HEIGHT - 10 - wlcd_text_nrows_height(1, &S);
S.MaxW = WLCD_WIDTH - 10 - S.X;
S.Color.u32t = WLCD_RGB_TO_COLOR(0xFF, 0xFF, 0xFF);
for(i=50;i>0;i--){
wlcd_rect_fill(S.X, S.Y, wlcd_text_nchars_width(5, &S), wlcd_text_nrows_height(1, &S), 0);
//
ets_sprintf(Str, "%d.%d s", i/10, i%10);
wlcd_text_draw(Str, &S);
//
OS_DELAY_MS(100);
}
S.FontZoomAdd = 0;
//
//---- random lines / line speed test
//
//clear whole display (black)
wlcd_rect_fill(0,0, WLCD_WIDTH, WLCD_HEIGHT, 0);
//
//draw 1000 random lines
t = system_get_time();
for(i=0;i<1000;i++){
wlcd_line_draw(
RAND_0_TO_X(WLCD_WIDTH-1), RAND_0_TO_X(WLCD_HEIGHT-1),
RAND_0_TO_X(WLCD_WIDTH-1), RAND_0_TO_X(WLCD_HEIGHT-1),
WLCD_RGB_TO_COLOR(0b00111000, 0b00111100, 0b01111000));
//
if(i%50==0) system_soft_wdt_feed(); //prevent rebooting if this loop takes too long
}
t = system_get_time() - t;
//
//compensate for "rand()" calculation
t2 = system_get_time();
volatile uint16_t Tmp;
for(i=0;i<1000;i++){
Tmp = RAND_0_TO_X(WLCD_WIDTH-1);
Tmp = RAND_0_TO_X(WLCD_HEIGHT-1);
Tmp = RAND_0_TO_X(WLCD_WIDTH-1);
Tmp = RAND_0_TO_X(WLCD_HEIGHT-1);
}
t2 = system_get_time() - t2;
//
S.Color.u32t = WLCD_RGB_TO_COLOR(0xFF, 0xFF, 0xFF);
S.X = DoneXOffs;
S.Y = DoneYOffs;
wlcd_text_draw("DONE", &S);
//
OS_DELAY_MS(1000);
//
//clear whole display (black) and show stats
wlcd_rect_fill(0,0, WLCD_WIDTH, WLCD_HEIGHT, 0);
//
S.Color.u32t = WLCD_RGB_TO_COLOR(0b01111000, 0b01111100, 0b11111000);
S.X = 10;
S.Y = 10;
S.MaxW = WLCD_WIDTH-20;
S.MaxH = WLCD_HEIGHT-20;
S.WrapStyle = WLCD_WRAP_WORDS;
ets_sprintf(Str, "1000 random lines on display %dx%d took %d ms (compensated for \"rand()\" calculation)", WLCD_WIDTH, WLCD_HEIGHT, (t-t2)/1000);
wlcd_text_draw(Str, &S);
OS_DELAY_MS(5000);
//
//---- image draw / image speed test
//
#if(WLCD_BPP==WLCD_16BPP)
wfof_get_file_data_fast(WFOF_IDX_SMILEY_50X50_U16BPP, (uint32_t*)ImgData, 0, WFOF_SIZE_SMILEY_50X50_U16BPP);
#else
wfof_get_file_data_fast(WFOF_IDX_SMILEY_50X50_U24BPP, (uint32_t*)ImgData, 0, WFOF_SIZE_SMILEY_50X50_U24BPP);
#endif
//
//clear whole display (black)
wlcd_rect_fill(0,0, WLCD_WIDTH, WLCD_HEIGHT, 0);
//
t = system_get_time();
for(i=0;i<1000;i++){
wlcd_img_draw(ImgData, RAND_0_TO_X(WLCD_WIDTH-1-50), RAND_0_TO_X(WLCD_HEIGHT-1-50));
//
if(i%50==0) system_soft_wdt_feed(); //prevent rebooting if this loop takes too long
}
t = system_get_time() - t;
//
S.Color.u32t = 0;
S.X = DoneXOffs;
S.Y = DoneYOffs;
wlcd_text_draw("DONE", &S);
//
OS_DELAY_MS(1000);
//
//clear whole display (black) and show stats
wlcd_rect_fill(0,0, WLCD_WIDTH, WLCD_HEIGHT, 0);
//
S.Color.u32t = WLCD_RGB_TO_COLOR(0b11111000, 0b01111100, 0b01111000);
S.X = 10;
S.Y = 10;
S.MaxW = WLCD_WIDTH-20;
S.MaxH = WLCD_HEIGHT-20;
S.WrapStyle = WLCD_WRAP_WORDS;
ets_sprintf(Str, "1000 images (50x50 pixels, uncompressed image) took %d ms", t/1000);
wlcd_text_draw(Str, &S);
OS_DELAY_MS(5000);
//
//---- text draw / text speed test
//
//clear whole display (black)
wlcd_rect_fill(0,0, WLCD_WIDTH, WLCD_HEIGHT, 0);
//
ets_sprintf(Str, "This is a test of text drawing of 60 chars and with wrapping");
t = system_get_time();
for(i=0;i<100;i++){
S.X = 10 + RAND_0_TO_X(10);
S.Y = 10 + RAND_0_TO_X(100);
S.MaxW = WLCD_WIDTH - 10 - S.X;
S.MaxH = WLCD_HEIGHT - 10 - S.Y;
S.Color.u32t = RAND_0_TO_X(0xFFFFFF);
wlcd_text_draw(Str, &S);
//
if(i%50==0) system_soft_wdt_feed(); //prevent rebooting if this loop takes too long
}
t = system_get_time() - t;
//
S.Color.u32t = 0;
S.X = DoneXOffs;
S.Y = DoneYOffs;
wlcd_text_draw("DONE", &S);
//
OS_DELAY_MS(1000);
//
//clear whole display (black) and show stats
wlcd_rect_fill(0,0, WLCD_WIDTH, WLCD_HEIGHT, 0);
//
S.Color.u32t = WLCD_RGB_TO_COLOR(0b11111000, 0b01111100, 0b11111000);
S.X = 10;
S.Y = 10;
S.MaxW = WLCD_WIDTH-20;
S.MaxH = WLCD_HEIGHT-20;
S.WrapStyle = WLCD_WRAP_WORDS;
ets_sprintf(Str, "100 text sentences of 60 letters with word wrapping took %d ms", t/1000);
wlcd_text_draw(Str, &S);
OS_DELAY_MS(5000);
//
//---- text / font test - code page 1250 test
//
//clear whole display (black)
wlcd_rect_fill(0,0, WLCD_WIDTH, WLCD_HEIGHT, 0);
//
S.Color.u32t = WLCD_RGB_TO_COLOR(0xFF, 0x5C, 0x20);
S.X = 10;
S.Y = 10;
S.MaxW = WLCD_WIDTH-20;
S.MaxH = WLCD_HEIGHT-20;
S.WrapStyle = WLCD_WRAP_WORDS;
wlcd_text_draw("This is a test of code page 1250 font text output:\n\nP°эЪernь ЮluЭouшk¤ k∙Є ·pьl ясbelskщ єdy.", &S);
//
OS_DELAY_MS(4000);
//
//clear whole display (black)
wlcd_rect_fill(0,0, WLCD_WIDTH, WLCD_HEIGHT, 0);
//
S.Color.u32t = WLCD_RGB_TO_COLOR(0xFF, 0xFF, 0x00);
S.FontZoomAdd = 1;
wlcd_text_draw("P°эЪernь ЮluЭouшk¤ k∙Є ·pьl ясbelskщ єdy.", &S);
//
OS_DELAY_MS(3000);
//
//clear whole display (black)
wlcd_rect_fill(0,0, WLCD_WIDTH, WLCD_HEIGHT, 0);
//
S.Y = 10;
S.Color.u32t = WLCD_RGB_TO_COLOR(0x00, 0xFF, 0);
S.FontZoomAdd = 0;
S.FontIdx = 0;
wlcd_text_draw("This is some text.", &S);
//
S.Y = 30;
S.Color.u32t = WLCD_RGB_TO_COLOR(0x00, 0xFF, 0xFF);
S.BoldAdd = 1;
wlcd_text_draw("And this is the same font bolder.", &S);
//
S.Y = 50;
S.Color.u32t = WLCD_RGB_TO_COLOR(0b11000000, 0b00111100, 0b11111000);
S.HSpc = 5;
wlcd_text_draw("We can also add horiz./vert. spacing.", &S);
//
S.Y = 75;
S.Color.u32t = WLCD_RGB_TO_COLOR(0b11111000, 0b00111100, 0b01111000);
S.FontZoomAdd = 1;
S.BoldAdd = 0;
S.HSpc = 0;
wlcd_text_draw("Or zoom ...", &S);
//
S.Y = 105;
S.Color.u32t = WLCD_RGB_TO_COLOR(0b10010000, 0b11111100, 0b01111000);
S.FontZoomAdd = 2;
S.HSpc = 0;
wlcd_text_draw("ZOOM", &S);
//
S.Y = 140;
S.Color.u32t = WLCD_RGB_TO_COLOR(0b01000000, 0b10000000, 0b11111000);
S.FontZoomAdd = 0;
S.FontIdx = 3;
wlcd_text_draw("Different font\n0123456789", &S);
//
S.Y = 180;
S.Color.u32t = WLCD_RGB_TO_COLOR(0xFF, 0xFF, 0x00);
S.FontIdx = 2;
wlcd_text_draw("And another different font (you can generate your own fonts)", &S);
//
OS_DELAY_MS(6000);
//
//---- read display data RAM back into buffer as WLCD image and use it to draw many copies of that image
//
#ifndef WLCD_NO_READ
//clear whole display (black)
wlcd_rect_fill(0,0, WLCD_WIDTH, WLCD_HEIGHT, 0);
//
for(i=0;i<50;i++){
wlcd_line_draw(
RAND_0_TO_X(WLCD_WIDTH-1), RAND_0_TO_X(WLCD_HEIGHT-1),
RAND_0_TO_X(WLCD_WIDTH-1), RAND_0_TO_X(WLCD_HEIGHT-1),
WLCD_RGB_TO_COLOR(0b01111000, 0b01111100, 0b01111000));
}
//
S.Color.u32t = WLCD_RGB_TO_COLOR(0b00001000, 0b11110100, 0b01111000);
S.X = 10;
S.Y = 10;
S.MaxW = WLCD_WIDTH-20;
S.MaxH = WLCD_HEIGHT-20;
S.WrapStyle = WLCD_WRAP_WORDS;
wlcd_text_draw("It's also possible to read LCD memory into buffer - creating a WLCD image (uncompressed stream of pixels) and re-use this image", &S);
//
wlcd_line_draw(10 , 10 , 10+29, 10 , 0xFFFFFF);
wlcd_line_draw(10+29, 10 , 10+29, 10+29, 0xFFFFFF);
wlcd_line_draw(10+29, 10+29, 10 , 10+29, 0xFFFFFF);
wlcd_line_draw(10 , 10+29, 10 , 10 , 0xFFFFFF);
//
uint32_t Ret = wlcd_img_get((uint32_t*)ImgData, 10, 10, 30, 30);
for(i=0;i<WLCD_WIDTH-30;i+=35){
wlcd_img_draw(ImgData, i, 100);
}
//
OS_DELAY_MS(8000);
#endif
//
//---- logo, github address
//
//clear whole display (black)
wlcd_rect_fill(0,0, WLCD_WIDTH, WLCD_HEIGHT, 0);
//
//demo image
#if(WLCD_BPP==WLCD_16BPP)
wfof_get_file_data_fast(WFOF_IDX_WLCD_DEMO_16BPP, (uint32_t*)ImgData, 0, WFOF_SIZE_WLCD_DEMO_16BPP);
#else
wfof_get_file_data_fast(WFOF_IDX_WLCD_DEMO_24BPP, (uint32_t*)ImgData, 0, WFOF_SIZE_WLCD_DEMO_24BPP);
#endif
wlcd_img_draw(ImgData, (WLCD_WIDTH-wlcd_img_get_width(ImgData))/2, ((WLCD_HEIGHT-wlcd_img_get_height(ImgData))/2)-20);
//
S.Color.u32t = WLCD_RGB_TO_COLOR(0xFF, 0x5C, 0x58);
S.FontIdx = 1;
S.X = 10;
S.Y = WLCD_HEIGHT-40;
S.MaxW = WLCD_WIDTH-20;
S.MaxH = 40;
S.VSpc = 4;
S.WrapStyle = WLCD_WRAP_WORDS;
wlcd_text_draw("https://github.com/wdim0/esp8266_fast_lcd_driver_hspi", &S);
//
OS_DELAY_MS(6000);
//
//----
//
}
//
//clean-up (yes, we never get here .. but it's always good to keep things structured)
os_free(Str);
os_free(ImgData);
}
/*
* Function needed by Bosch Sensortec driver
*/
static void bme280_wrap_delay(BME280_MDELAY_DATA_TYPE time)
{
OS_DELAY_MS(time);
}
static int sensor_board_bmg160_read(i2c_device dev)
{
/* variable used for read the sensor data*/
s16 v_gyro_datax_s16, v_gyro_datay_s16, v_gyro_dataz_s16 = BMG160_INIT_VALUE;
/* result of communication results*/
s32 com_rslt = ERROR;
bool sign;
uint32_t conv_val;
bmg160_dev = dev;
/*
* Initialize driver data, feed Bosch driver with functions needed to access I2C bus.
*/
com_rslt = bmg160_init(&bmg160);
/* Wait for data ready */
OS_DELAY_MS(9);
/*
* For initialization it is required to set the mode of
* the sensor as "NORMAL"
* data acquisition/read/write is possible in this mode
* by using the below API able to set the power mode as NORMAL
*/
com_rslt += bmg160_set_power_mode(BMG160_MODE_NORMAL);
/* Wait for data ready */
OS_DELAY_MS(9);
/* Set range */
com_rslt += bmg160_set_range_reg(BMG160_RANGE_500);
/*
* Set bandwidth of 230Hz
*/
com_rslt += bmg160_set_bw(C_BMG160_BW_230HZ_U8X);
/* Wait for data ready */
OS_DELAY_MS(9);
/* Read Gyro data xyz */
com_rslt += bmg160_get_data_X(&v_gyro_datax_s16);
com_rslt += bmg160_get_data_Y(&v_gyro_datay_s16);
com_rslt += bmg160_get_data_Z(&v_gyro_dataz_s16);
/* print raw values */
printf(NEWLINE "Gyroscope data (raw 16 bit) - x: %04X, y: %04X, z: %04X",
(uint16_t) v_gyro_datax_s16, (uint16_t) v_gyro_datay_s16,
(uint16_t) v_gyro_dataz_s16);
/* convert and print values in deg/s (degree per second)*/
printf(NEWLINE "Gyroscope data - ");
convert_gyro_value(v_gyro_datax_s16, &sign, &conv_val);
printf("x: %s%lu.%02lu deg/s, ", (sign ? "-" : ""), conv_val / 100, conv_val % 100);
convert_gyro_value(v_gyro_datay_s16, &sign, &conv_val);
printf("y: %s%lu.%02lu deg/s, ", (sign ? "-" : ""), conv_val / 100, conv_val % 100);
convert_gyro_value(v_gyro_dataz_s16, &sign, &conv_val);
printf("z: %s%lu.%02lu deg/s", (sign ? "-" : ""), conv_val / 100, conv_val % 100);
/*
* For de-initialization it is required to set the mode of
* the sensor as "DEEPSUSPEND"
* the device reaches the lowest power consumption only
* interface selection is kept alive
* No data acquisition is performed
* The DEEPSUSPEND mode set from the register 0x11 bit 5
* by using the below API able to set the power mode as DEEPSUSPEND
* For the read/ write operation it is required to provide least 450us
* micro second delay
*/
com_rslt += bmg160_set_power_mode(BMG160_MODE_DEEPSUSPEND);
return com_rslt;
}
/*
* Function needed by Bosch Sensortec driver
*/
static void bmg160_wrap_delay(BMG160_MDELAY_DATA_TYPE time)
{
OS_DELAY_MS(time + 3);
}
/*
* Function needed by Bosch Sensortec driver
*/
static void bmm150_wrap_delay(BMM050_MDELAY_DATA_TYPE time)
{
OS_DELAY_MS(time);
}
static int sensor_board_bme280_read(i2c_device dev)
{
/* The variable used to read uncompensated temperature */
s32 v_data_uncomp_tem_s32 = BME280_INIT_VALUE;
/* The variable used to read uncompensated pressure */
s32 v_data_uncomp_pres_s32 = BME280_INIT_VALUE;
/* The variable used to read uncompensated pressure */
s32 v_data_uncomp_hum_s32 = BME280_INIT_VALUE;
/* The variable used to read real temperature */
s32 v_actual_temp_s32 = BME280_INIT_VALUE;
/* The variable used to read real pressure */
u32 v_actual_press_u32 = BME280_INIT_VALUE;
/* The variable used to read real humidity */
u32 v_actual_humity_u32 = BME280_INIT_VALUE;
/* result of communication results */
s32 com_rslt = 0;
bme280_dev = dev;
u8 delay;
/*
* Initialize driver data, feed Bosch driver with functions needed to access I2C bus.
*/
com_rslt = bme280_init(&bme280);
/*
* For initialization it is required to set the mode of
* the sensor as "NORMAL"
* data acquisition/read/write is possible in this mode
* by using the below API able to set the power mode as NORMAL
*/
com_rslt += bme280_set_power_mode(BME280_NORMAL_MODE);
/*
* For reading the pressure, humidity and temperature data it is required to
* set the OSS setting of humidity, pressure and temperature
* The "BME280_CTRLHUM_REG_OSRSH" register sets the humidity
* data acquisition options of the device.
* changes to this registers only become effective after a write operation to
* "BME280_CTRLMEAS_REG" register.
* In the code automated reading and writing of "BME280_CTRLHUM_REG_OSRSH"
* register first set the "BME280_CTRLHUM_REG_OSRSH" and then read and write
* the "BME280_CTRLMEAS_REG" register in the function
*/
com_rslt += bme280_set_oversamp_humidity(BME280_OVERSAMP_1X);
/* set the pressure oversampling */
com_rslt += bme280_set_oversamp_pressure(BME280_OVERSAMP_2X);
/* set the temperature oversampling */
com_rslt += bme280_set_oversamp_temperature(BME280_OVERSAMP_4X);
/*
* Normal mode comprises an automated perpetual cycling between an (active)
* Measurement period and an (inactive) standby period.
* The standby time is determined by the contents of the register t_sb.
* Standby time can be set using BME280_STANDBYTIME_125_MS.
* Usage Hint : bme280_set_standbydur(BME280_STANDBYTIME_125_MS)
*/
com_rslt += bme280_set_standby_durn(BME280_STANDBY_TIME_1_MS);
/*
* Computation time depends on what measurements are selected and which oversampling is
* used. This helper function will calculate time to wait before data can be read.
*/
bme280_compute_wait_time(&delay);
/*
* Wait for calculated time.
*/
OS_DELAY_MS(delay);
/*
* Read raw ADC value from sensor
*/
com_rslt += bme280_read_uncomp_pressure_temperature_humidity(&v_data_uncomp_tem_s32,
&v_data_uncomp_pres_s32, &v_data_uncomp_hum_s32);
printf(NEWLINE "Uncompensated temp=%d, pres=%d, hum=%u", v_data_uncomp_tem_s32,
v_data_uncomp_pres_s32, v_data_uncomp_hum_s32);
/*
* Read the true temperature, humidity and pressure.
* This function will convert ADC value to true values according to calibration data.
* Pressure humidity and temperature are fixed point values.
* Temperature in 0.01C, pressure in Pa, humidity in 0.001%.
*/
com_rslt += bme280_read_pressure_temperature_humidity(&v_actual_press_u32,
&v_actual_temp_s32, &v_actual_humity_u32);
printf(NEWLINE "Compensated pressure=%d.%02d hPa, temp=%d.%02d C, hum=%u.%03d %%",
v_actual_press_u32 / 100, v_actual_press_u32 % 100,
v_actual_temp_s32 / 100, v_actual_temp_s32 % 100,
v_actual_humity_u32 / 1000, v_actual_humity_u32 % 1000);
/*
* For de-initialization it is required to set the mode of
* the sensor as "SLEEP"
* the device reaches the lowest power consumption only
* In SLEEP mode no measurements are performed
* All registers are accessible
* by using the below API able to set the power mode as SLEEP
*/
com_rslt += bme280_set_power_mode(BME280_SLEEP_MODE);
return com_rslt;
}
