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PCB_Analog_Values
Dependencies: mbed LoRaWAN-lib SX1276Lib
app/main.cpp@12:8d057a5bf72e, 2020-01-30 (annotated)
- Committer:
- amirchaudhary
- Date:
- Thu Jan 30 13:51:38 2020 +0000
- Revision:
- 12:8d057a5bf72e
- Parent:
- 11:9e35ddff7ed8
Analog Values Reading (Emerg Lights)
Who changed what in which revision?
User | Revision | Line number | New contents of line |
---|---|---|---|
mluis | 0:92bca02df485 | 1 | #include "mbed.h" |
mluis | 0:92bca02df485 | 2 | #include "board.h" |
mluis | 0:92bca02df485 | 3 | #include "SerialDisplay.h" |
mluis | 0:92bca02df485 | 4 | |
mluis | 1:352f608c3337 | 5 | |
amirchaudhary | 12:8d057a5bf72e | 6 | AnalogIn Vbat(PA_4); |
amirchaudhary | 12:8d057a5bf72e | 7 | AnalogIn Led1(PA_1); |
amirchaudhary | 12:8d057a5bf72e | 8 | AnalogIn Led2(PC_0); |
amirchaudhary | 11:9e35ddff7ed8 | 9 | AnalogIn RM(PC_2); |
amirchaudhary | 11:9e35ddff7ed8 | 10 | AnalogIn Vce(PB_1); |
amirchaudhary | 12:8d057a5bf72e | 11 | DigitalOut Relay(D6); |
amirchaudhary | 12:8d057a5bf72e | 12 | AnalogIn Exit(PC_4); |
amirchaudhary | 12:8d057a5bf72e | 13 | //AnalogIn Exit2(PC_5); |
uss1994 | 10:9a4efdd07a77 | 14 | |
mluis | 0:92bca02df485 | 15 | /** |
mluis | 0:92bca02df485 | 16 | * Main application entry point. |
mluis | 0:92bca02df485 | 17 | */ |
amirchaudhary | 11:9e35ddff7ed8 | 18 | Serial pc(SERIAL_TX, SERIAL_RX,115200); |
amirchaudhary | 11:9e35ddff7ed8 | 19 | int MY_SetSysClock_PLL_HSE(void) |
mluis | 0:92bca02df485 | 20 | { |
amirchaudhary | 11:9e35ddff7ed8 | 21 | RCC_ClkInitTypeDef RCC_ClkInitStruct; |
amirchaudhary | 11:9e35ddff7ed8 | 22 | RCC_OscInitTypeDef RCC_OscInitStruct; |
mluis | 7:3173f0508a98 | 23 | |
amirchaudhary | 11:9e35ddff7ed8 | 24 | /* Enable HSE and activate PLL with HSE as source */ |
amirchaudhary | 11:9e35ddff7ed8 | 25 | RCC_OscInitStruct.OscillatorType = RCC_OSCILLATORTYPE_HSE; |
amirchaudhary | 11:9e35ddff7ed8 | 26 | RCC_OscInitStruct.HSEState = RCC_HSE_ON; /* External 8 MHz xtal on OSC_IN/OSC_OUT */ |
mluis | 7:3173f0508a98 | 27 | |
amirchaudhary | 11:9e35ddff7ed8 | 28 | // PLLCLK = (8 MHz * 8)/2 = 32 MHz |
amirchaudhary | 11:9e35ddff7ed8 | 29 | RCC_OscInitStruct.PLL.PLLState = RCC_PLL_ON; |
amirchaudhary | 11:9e35ddff7ed8 | 30 | RCC_OscInitStruct.PLL.PLLSource = RCC_PLLSOURCE_HSE; |
amirchaudhary | 11:9e35ddff7ed8 | 31 | RCC_OscInitStruct.PLL.PLLMUL = RCC_PLLMUL_8; |
amirchaudhary | 11:9e35ddff7ed8 | 32 | RCC_OscInitStruct.PLL.PLLDIV = RCC_PLLDIV_2; |
amirchaudhary | 11:9e35ddff7ed8 | 33 | if (HAL_RCC_OscConfig(&RCC_OscInitStruct) != HAL_OK) { |
amirchaudhary | 11:9e35ddff7ed8 | 34 | return (-1); // FAIL |
amirchaudhary | 11:9e35ddff7ed8 | 35 | } |
mluis | 0:92bca02df485 | 36 | |
amirchaudhary | 11:9e35ddff7ed8 | 37 | /* Select PLL as system clock source and configure the HCLK, PCLK1 and PCLK2 clocks dividers */ |
amirchaudhary | 11:9e35ddff7ed8 | 38 | RCC_ClkInitStruct.ClockType = (RCC_CLOCKTYPE_SYSCLK | RCC_CLOCKTYPE_HCLK | RCC_CLOCKTYPE_PCLK1 | RCC_CLOCKTYPE_PCLK2); |
amirchaudhary | 11:9e35ddff7ed8 | 39 | RCC_ClkInitStruct.SYSCLKSource = RCC_SYSCLKSOURCE_PLLCLK; // 32 MHz |
amirchaudhary | 11:9e35ddff7ed8 | 40 | RCC_ClkInitStruct.AHBCLKDivider = RCC_SYSCLK_DIV1; // 32 MHz |
amirchaudhary | 11:9e35ddff7ed8 | 41 | RCC_ClkInitStruct.APB1CLKDivider = RCC_HCLK_DIV1; // 32 MHz |
amirchaudhary | 11:9e35ddff7ed8 | 42 | RCC_ClkInitStruct.APB2CLKDivider = RCC_HCLK_DIV1; // 32 MHz |
amirchaudhary | 11:9e35ddff7ed8 | 43 | if (HAL_RCC_ClockConfig(&RCC_ClkInitStruct, FLASH_LATENCY_1) != HAL_OK) { |
amirchaudhary | 11:9e35ddff7ed8 | 44 | return (-2); // FAIL |
amirchaudhary | 11:9e35ddff7ed8 | 45 | } |
mluis | 3:9c6f7f082151 | 46 | |
amirchaudhary | 11:9e35ddff7ed8 | 47 | /* Enable HSE and activate PLL with HSE as source */ |
amirchaudhary | 11:9e35ddff7ed8 | 48 | RCC_OscInitStruct.OscillatorType = RCC_OSCILLATORTYPE_HSI48|RCC_OSCILLATORTYPE_HSI|RCC_OSCILLATORTYPE_MSI; |
amirchaudhary | 11:9e35ddff7ed8 | 49 | RCC_OscInitStruct.HSIState = RCC_HSI_OFF; |
amirchaudhary | 11:9e35ddff7ed8 | 50 | RCC_OscInitStruct.MSIState = RCC_MSI_OFF; |
amirchaudhary | 11:9e35ddff7ed8 | 51 | RCC_OscInitStruct.HSI48State = RCC_HSI48_OFF; |
amirchaudhary | 11:9e35ddff7ed8 | 52 | RCC_OscInitStruct.PLL.PLLState = RCC_PLL_NONE; |
amirchaudhary | 11:9e35ddff7ed8 | 53 | if (HAL_RCC_OscConfig(&RCC_OscInitStruct) != HAL_OK) { |
amirchaudhary | 11:9e35ddff7ed8 | 54 | return (-3); // FAIL |
amirchaudhary | 11:9e35ddff7ed8 | 55 | } |
amirchaudhary | 11:9e35ddff7ed8 | 56 | |
amirchaudhary | 11:9e35ddff7ed8 | 57 | return 0; // OK |
amirchaudhary | 11:9e35ddff7ed8 | 58 | } |
mluis | 3:9c6f7f082151 | 59 | |
amirchaudhary | 11:9e35ddff7ed8 | 60 | void my_patch(void) |
amirchaudhary | 11:9e35ddff7ed8 | 61 | { |
amirchaudhary | 11:9e35ddff7ed8 | 62 | int retVal; |
amirchaudhary | 11:9e35ddff7ed8 | 63 | |
amirchaudhary | 11:9e35ddff7ed8 | 64 | // Put device into default clock, i.e using MSI = 2MHz |
amirchaudhary | 11:9e35ddff7ed8 | 65 | HAL_RCC_DeInit(); |
amirchaudhary | 11:9e35ddff7ed8 | 66 | |
amirchaudhary | 11:9e35ddff7ed8 | 67 | // Enable HSE clock |
amirchaudhary | 11:9e35ddff7ed8 | 68 | retVal = MY_SetSysClock_PLL_HSE(); |
amirchaudhary | 11:9e35ddff7ed8 | 69 | if(retVal< 0) |
amirchaudhary | 11:9e35ddff7ed8 | 70 | { |
amirchaudhary | 11:9e35ddff7ed8 | 71 | // fail |
amirchaudhary | 11:9e35ddff7ed8 | 72 | //pc.printf("Failed to start HSE, ERR= %d\r\n", retVal); |
amirchaudhary | 11:9e35ddff7ed8 | 73 | |
amirchaudhary | 11:9e35ddff7ed8 | 74 | // indicate error |
amirchaudhary | 11:9e35ddff7ed8 | 75 | while(1) |
amirchaudhary | 11:9e35ddff7ed8 | 76 | { |
mluis | 3:9c6f7f082151 | 77 | |
amirchaudhary | 11:9e35ddff7ed8 | 78 | } |
amirchaudhary | 11:9e35ddff7ed8 | 79 | } |
amirchaudhary | 11:9e35ddff7ed8 | 80 | } |
mluis | 5:1e9f6a365854 | 81 | |
amirchaudhary | 11:9e35ddff7ed8 | 82 | int main() |
amirchaudhary | 12:8d057a5bf72e | 83 | { |
amirchaudhary | 11:9e35ddff7ed8 | 84 | |
amirchaudhary | 11:9e35ddff7ed8 | 85 | pc.printf("mbed-os-rev: %d.%d.%d lib-rev: %d\r\n", \ |
amirchaudhary | 11:9e35ddff7ed8 | 86 | MBED_MAJOR_VERSION, MBED_MINOR_VERSION,MBED_PATCH_VERSION,MBED_LIBRARY_VERSION); |
amirchaudhary | 11:9e35ddff7ed8 | 87 | pc.printf("BUILD= %s, SysClock= %d, RCC= %0X\r\n", __TIME__, SystemCoreClock, RCC->CR); |
amirchaudhary | 11:9e35ddff7ed8 | 88 | my_patch(); |
amirchaudhary | 11:9e35ddff7ed8 | 89 | pc.printf("NEW SysClock= %d, NEW RCC= %0X\r\n", SystemCoreClock, RCC->CR); |
amirchaudhary | 12:8d057a5bf72e | 90 | wait(1); |
amirchaudhary | 11:9e35ddff7ed8 | 91 | |
amirchaudhary | 11:9e35ddff7ed8 | 92 | printf("\n"); |
amirchaudhary | 11:9e35ddff7ed8 | 93 | printf("\n"); |
amirchaudhary | 12:8d057a5bf72e | 94 | int min=0,count=0; |
amirchaudhary | 12:8d057a5bf72e | 95 | |
amirchaudhary | 12:8d057a5bf72e | 96 | float meas_Vbat,meas_Led1,meas_Led2,meas_RM,meas_Vce,meas_Exit,meas_Exit2; |
amirchaudhary | 12:8d057a5bf72e | 97 | float v_Vbat,v_Led1,v_Led2,v_RM,v_Vce,v_Exit,v_Exit2; |
amirchaudhary | 11:9e35ddff7ed8 | 98 | // float meas_v; |
amirchaudhary | 12:8d057a5bf72e | 99 | |
amirchaudhary | 12:8d057a5bf72e | 100 | |
amirchaudhary | 12:8d057a5bf72e | 101 | |
amirchaudhary | 12:8d057a5bf72e | 102 | pc.printf("***Charging Mode***\n\n"); |
amirchaudhary | 12:8d057a5bf72e | 103 | Relay= 0; // Start the test Relay =1 |
amirchaudhary | 12:8d057a5bf72e | 104 | |
amirchaudhary | 12:8d057a5bf72e | 105 | // printf("\tAnalogIn example\n"); |
amirchaudhary | 12:8d057a5bf72e | 106 | printf("count"); |
amirchaudhary | 12:8d057a5bf72e | 107 | printf("\tVbat"); |
amirchaudhary | 12:8d057a5bf72e | 108 | printf("\tLED1"); |
amirchaudhary | 12:8d057a5bf72e | 109 | printf("\tLED2"); |
amirchaudhary | 12:8d057a5bf72e | 110 | printf("\tRM"); |
amirchaudhary | 12:8d057a5bf72e | 111 | printf("\tVce"); |
amirchaudhary | 12:8d057a5bf72e | 112 | printf("\tExit"); |
amirchaudhary | 12:8d057a5bf72e | 113 | // printf("\tExit2"); |
amirchaudhary | 12:8d057a5bf72e | 114 | printf("\n"); |
amirchaudhary | 12:8d057a5bf72e | 115 | |
amirchaudhary | 12:8d057a5bf72e | 116 | |
amirchaudhary | 12:8d057a5bf72e | 117 | for(int j=0;j<=300;j++){ |
amirchaudhary | 12:8d057a5bf72e | 118 | meas_Vbat = Vbat.read(); // Read the analog input value (value from 0.0 to 1.0 = full ADC conversion range) |
amirchaudhary | 12:8d057a5bf72e | 119 | meas_Led1 = Led1.read() - Vce.read(); // Read the analog input value (value from 0.0 to 1.0 = full ADC conversion range) |
amirchaudhary | 12:8d057a5bf72e | 120 | meas_Led2 = Led2.read() - Vce.read(); |
amirchaudhary | 12:8d057a5bf72e | 121 | meas_RM = RM.read() - Vce.read(); |
amirchaudhary | 12:8d057a5bf72e | 122 | meas_Vce = Vce.read(); |
amirchaudhary | 12:8d057a5bf72e | 123 | meas_Exit = Exit.read(); |
amirchaudhary | 12:8d057a5bf72e | 124 | // meas_Exit2 = Exit2.read(); |
amirchaudhary | 12:8d057a5bf72e | 125 | |
amirchaudhary | 12:8d057a5bf72e | 126 | |
amirchaudhary | 12:8d057a5bf72e | 127 | |
amirchaudhary | 12:8d057a5bf72e | 128 | // Display readings |
amirchaudhary | 12:8d057a5bf72e | 129 | v_Vbat = meas_Vbat * 3300 *2; |
amirchaudhary | 12:8d057a5bf72e | 130 | v_Led1 = (meas_Led1 * 3.300)/2.2; |
amirchaudhary | 12:8d057a5bf72e | 131 | v_Led2 = (meas_Led2 * 3.300)/2.2; |
amirchaudhary | 12:8d057a5bf72e | 132 | v_RM = (meas_RM * 3.300)/2.2; |
amirchaudhary | 12:8d057a5bf72e | 133 | v_Vce = meas_Vce * 3.300; |
amirchaudhary | 12:8d057a5bf72e | 134 | v_Exit = meas_Exit * 3.300/24; |
amirchaudhary | 12:8d057a5bf72e | 135 | // v_Exit2 = meas_Exit2 * 3.300/2.2; |
amirchaudhary | 12:8d057a5bf72e | 136 | |
amirchaudhary | 12:8d057a5bf72e | 137 | |
amirchaudhary | 12:8d057a5bf72e | 138 | printf("%d\t", count); |
amirchaudhary | 12:8d057a5bf72e | 139 | printf("%.0f\t", v_Vbat); |
amirchaudhary | 12:8d057a5bf72e | 140 | printf("%.03f\t", v_Led1); |
amirchaudhary | 12:8d057a5bf72e | 141 | printf("%.03f\t", v_Led2); |
amirchaudhary | 12:8d057a5bf72e | 142 | printf("%.03f\t", v_RM); |
amirchaudhary | 12:8d057a5bf72e | 143 | printf("%.03f\t", v_Vce); |
amirchaudhary | 12:8d057a5bf72e | 144 | printf("%.03f\t",v_Exit); |
amirchaudhary | 12:8d057a5bf72e | 145 | // printf("%.03f\t",v_Exit2); |
amirchaudhary | 12:8d057a5bf72e | 146 | printf("\n"); |
amirchaudhary | 12:8d057a5bf72e | 147 | |
amirchaudhary | 12:8d057a5bf72e | 148 | count++; |
amirchaudhary | 12:8d057a5bf72e | 149 | wait(0.1); // 10 second |
amirchaudhary | 12:8d057a5bf72e | 150 | |
amirchaudhary | 12:8d057a5bf72e | 151 | } |
amirchaudhary | 12:8d057a5bf72e | 152 | count = 0; |
amirchaudhary | 12:8d057a5bf72e | 153 | |
amirchaudhary | 12:8d057a5bf72e | 154 | |
amirchaudhary | 12:8d057a5bf72e | 155 | pc.printf("***Discharging Mode 1***\n\n"); |
amirchaudhary | 12:8d057a5bf72e | 156 | Relay= 0; // Start the test Relay =1 |
amirchaudhary | 12:8d057a5bf72e | 157 | |
amirchaudhary | 12:8d057a5bf72e | 158 | // printf("\tAnalogIn example\n"); |
amirchaudhary | 12:8d057a5bf72e | 159 | printf("count"); |
amirchaudhary | 12:8d057a5bf72e | 160 | printf("\tVbat"); |
amirchaudhary | 12:8d057a5bf72e | 161 | printf("\tLED1"); |
amirchaudhary | 12:8d057a5bf72e | 162 | printf("\tLED2"); |
amirchaudhary | 12:8d057a5bf72e | 163 | printf("\tRM"); |
amirchaudhary | 12:8d057a5bf72e | 164 | printf("\tVce"); |
amirchaudhary | 12:8d057a5bf72e | 165 | printf("\tExit"); |
amirchaudhary | 12:8d057a5bf72e | 166 | // printf("\tExit2"); |
amirchaudhary | 12:8d057a5bf72e | 167 | printf("\n"); |
amirchaudhary | 12:8d057a5bf72e | 168 | |
amirchaudhary | 12:8d057a5bf72e | 169 | |
amirchaudhary | 12:8d057a5bf72e | 170 | for(int j=0;j<=300;j++){ |
amirchaudhary | 12:8d057a5bf72e | 171 | meas_Vbat = Vbat.read(); // Read the analog input value (value from 0.0 to 1.0 = full ADC conversion range) |
amirchaudhary | 12:8d057a5bf72e | 172 | meas_Led1 = Led1.read() - Vce.read(); // Read the analog input value (value from 0.0 to 1.0 = full ADC conversion range) |
amirchaudhary | 12:8d057a5bf72e | 173 | meas_Led2 = Led2.read() - Vce.read(); |
amirchaudhary | 12:8d057a5bf72e | 174 | meas_RM = RM.read() - Vce.read(); |
amirchaudhary | 12:8d057a5bf72e | 175 | meas_Vce = Vce.read(); |
amirchaudhary | 12:8d057a5bf72e | 176 | meas_Exit = Exit.read(); |
amirchaudhary | 12:8d057a5bf72e | 177 | // meas_Exit2 = Exit2.read(); |
amirchaudhary | 12:8d057a5bf72e | 178 | |
amirchaudhary | 12:8d057a5bf72e | 179 | |
amirchaudhary | 12:8d057a5bf72e | 180 | |
amirchaudhary | 12:8d057a5bf72e | 181 | // Display readings |
amirchaudhary | 12:8d057a5bf72e | 182 | v_Vbat = meas_Vbat * 3300 *2; |
amirchaudhary | 12:8d057a5bf72e | 183 | v_Led1 = (meas_Led1 * 3.300)/2.2; |
amirchaudhary | 12:8d057a5bf72e | 184 | v_Led2 = (meas_Led2 * 3.300)/2.2; |
amirchaudhary | 12:8d057a5bf72e | 185 | v_RM = (meas_RM * 3.300)/2.2; |
amirchaudhary | 12:8d057a5bf72e | 186 | v_Vce = meas_Vce * 3.300; |
amirchaudhary | 12:8d057a5bf72e | 187 | v_Exit = meas_Exit * 3.300/24; |
amirchaudhary | 12:8d057a5bf72e | 188 | // v_Exit2 = meas_Exit2 * 3.300/2.2; |
amirchaudhary | 12:8d057a5bf72e | 189 | |
amirchaudhary | 12:8d057a5bf72e | 190 | |
amirchaudhary | 12:8d057a5bf72e | 191 | printf("%d\t", count); |
amirchaudhary | 12:8d057a5bf72e | 192 | printf("%.0f\t", v_Vbat); |
amirchaudhary | 12:8d057a5bf72e | 193 | printf("%.03f\t", v_Led1); |
amirchaudhary | 12:8d057a5bf72e | 194 | printf("%.03f\t", v_Led2); |
amirchaudhary | 12:8d057a5bf72e | 195 | printf("%.03f\t", v_RM); |
amirchaudhary | 12:8d057a5bf72e | 196 | printf("%.03f\t", v_Vce); |
amirchaudhary | 12:8d057a5bf72e | 197 | printf("%.03f\t",v_Exit); |
amirchaudhary | 12:8d057a5bf72e | 198 | // printf("%.03f\t",v_Exit2); |
amirchaudhary | 12:8d057a5bf72e | 199 | printf("\n"); |
amirchaudhary | 12:8d057a5bf72e | 200 | |
amirchaudhary | 12:8d057a5bf72e | 201 | count++; |
amirchaudhary | 12:8d057a5bf72e | 202 | wait(0.1); // 10 second |
amirchaudhary | 12:8d057a5bf72e | 203 | } |
amirchaudhary | 12:8d057a5bf72e | 204 | |
amirchaudhary | 12:8d057a5bf72e | 205 | |
amirchaudhary | 12:8d057a5bf72e | 206 | |
amirchaudhary | 12:8d057a5bf72e | 207 | |
amirchaudhary | 12:8d057a5bf72e | 208 | printf("\n"); |
amirchaudhary | 12:8d057a5bf72e | 209 | printf("\n"); |
amirchaudhary | 12:8d057a5bf72e | 210 | pc.printf("***Discharging Mode 2***\n\n"); |
amirchaudhary | 11:9e35ddff7ed8 | 211 | // printf("\tAnalogIn example\n"); |
amirchaudhary | 11:9e35ddff7ed8 | 212 | printf("min"); |
amirchaudhary | 11:9e35ddff7ed8 | 213 | printf("\tVbat"); |
amirchaudhary | 11:9e35ddff7ed8 | 214 | printf("\tLED1"); |
amirchaudhary | 11:9e35ddff7ed8 | 215 | printf("\tLED2"); |
amirchaudhary | 11:9e35ddff7ed8 | 216 | printf("\tRM"); |
amirchaudhary | 11:9e35ddff7ed8 | 217 | printf("\tVce"); |
amirchaudhary | 12:8d057a5bf72e | 218 | printf("\tExit"); |
amirchaudhary | 12:8d057a5bf72e | 219 | // printf("\tExit2"); |
amirchaudhary | 11:9e35ddff7ed8 | 220 | printf("\n"); |
amirchaudhary | 11:9e35ddff7ed8 | 221 | |
amirchaudhary | 11:9e35ddff7ed8 | 222 | while(1) { |
amirchaudhary | 12:8d057a5bf72e | 223 | Relay= 0; // Start the test Relay =1 |
amirchaudhary | 12:8d057a5bf72e | 224 | |
amirchaudhary | 11:9e35ddff7ed8 | 225 | meas_Vbat = Vbat.read(); // Read the analog input value (value from 0.0 to 1.0 = full ADC conversion range) |
amirchaudhary | 12:8d057a5bf72e | 226 | meas_Led1 = Led1.read() - Vce.read(); // Read the analog input value (value from 0.0 to 1.0 = full ADC conversion range) |
amirchaudhary | 12:8d057a5bf72e | 227 | meas_Led2 = Led2.read() - Vce.read(); |
amirchaudhary | 12:8d057a5bf72e | 228 | meas_RM = RM.read() - Vce.read(); |
amirchaudhary | 11:9e35ddff7ed8 | 229 | meas_Vce = Vce.read(); |
amirchaudhary | 12:8d057a5bf72e | 230 | meas_Exit = Exit.read(); |
amirchaudhary | 12:8d057a5bf72e | 231 | // meas_Exit2 = Exit2.read(); |
amirchaudhary | 12:8d057a5bf72e | 232 | |
amirchaudhary | 12:8d057a5bf72e | 233 | |
amirchaudhary | 12:8d057a5bf72e | 234 | // Display readings |
amirchaudhary | 12:8d057a5bf72e | 235 | v_Vbat = meas_Vbat * 3300 *2; |
amirchaudhary | 12:8d057a5bf72e | 236 | v_Led1 = (meas_Led1 * 3.300)/2.2; |
amirchaudhary | 12:8d057a5bf72e | 237 | v_Led2 = (meas_Led2 * 3.300)/2.2; |
amirchaudhary | 12:8d057a5bf72e | 238 | v_RM = (meas_RM * 3.300)/2.2; |
amirchaudhary | 12:8d057a5bf72e | 239 | v_Vce = meas_Vce * 3.300; |
amirchaudhary | 12:8d057a5bf72e | 240 | v_Exit = meas_Exit * 3.300/24; |
amirchaudhary | 12:8d057a5bf72e | 241 | // v_Exit2 = meas_Exit2 * 3.300/2.2; |
amirchaudhary | 11:9e35ddff7ed8 | 242 | |
amirchaudhary | 11:9e35ddff7ed8 | 243 | |
amirchaudhary | 11:9e35ddff7ed8 | 244 | printf("%d\t", min); |
amirchaudhary | 11:9e35ddff7ed8 | 245 | printf("%.0f\t", v_Vbat); |
amirchaudhary | 12:8d057a5bf72e | 246 | printf("%.03f\t", v_Led1); |
amirchaudhary | 12:8d057a5bf72e | 247 | printf("%.03f\t", v_Led2); |
amirchaudhary | 12:8d057a5bf72e | 248 | printf("%.03f\t", v_RM); |
amirchaudhary | 12:8d057a5bf72e | 249 | printf("%.03f\t", v_Vce); |
amirchaudhary | 12:8d057a5bf72e | 250 | printf("%.03f\t",v_Exit); |
amirchaudhary | 12:8d057a5bf72e | 251 | // printf("%.03f\t",v_Exit2); |
amirchaudhary | 12:8d057a5bf72e | 252 | printf("\n"); |
amirchaudhary | 11:9e35ddff7ed8 | 253 | |
amirchaudhary | 12:8d057a5bf72e | 254 | |
amirchaudhary | 12:8d057a5bf72e | 255 | wait(5.0); // 10 second |
amirchaudhary | 11:9e35ddff7ed8 | 256 | min++; |
mluis | 0:92bca02df485 | 257 | } |
amirchaudhary | 12:8d057a5bf72e | 258 | |
mluis | 0:92bca02df485 | 259 | } |