sakthi priya amirtharaj
/
BAE_vr2_1_3
i2c working with old hk
Fork of BAE_vr2_1_1 by
HK.cpp@13:1b37d98840d3, 2014-12-17 (annotated)
- Committer:
- greenroshks
- Date:
- Wed Dec 17 05:25:04 2014 +0000
- Revision:
- 13:1b37d98840d3
- Parent:
- 0:8b0d43fe6c05
- Child:
- 14:ef6be8ac6569
The one with the new HK
Who changed what in which revision?
User | Revision | Line number | New contents of line |
---|---|---|---|
greenroshks | 0:8b0d43fe6c05 | 1 | #include "HK.h" |
greenroshks | 0:8b0d43fe6c05 | 2 | |
greenroshks | 13:1b37d98840d3 | 3 | MAX17048 master(A4,A5,100000);//object for battery gauge class--CHECK SDA,SCL LINES,FREQUENCY |
greenroshks | 13:1b37d98840d3 | 4 | void FUNC_BATTERYGAUGE_INIT(); |
greenroshks | 0:8b0d43fe6c05 | 5 | |
greenroshks | 13:1b37d98840d3 | 6 | //GPIO pins used=> D2-D12, A0-A1 |
greenroshks | 13:1b37d98840d3 | 7 | |
greenroshks | 13:1b37d98840d3 | 8 | DigitalOut SelectLinesA[]={D2,D3,D4,D5};//to mux1=>voltage mux |
greenroshks | 13:1b37d98840d3 | 9 | DigitalOut SelectLinesB[]={PTB18,D7,PTB19};//to mux2=>current mux(differential mux) Is this 3 or 4? |
greenroshks | 13:1b37d98840d3 | 10 | DigitalOut SelectLinesC[]={PTC0,PTC4,PTC6,PTC7};//to mux3=>temp mux |
greenroshks | 13:1b37d98840d3 | 11 | |
greenroshks | 13:1b37d98840d3 | 12 | //--------------------------------------------MSB is SelectLines[0],LSB is SelectLines[3]-------------------------------- |
greenroshks | 0:8b0d43fe6c05 | 13 | |
greenroshks | 13:1b37d98840d3 | 14 | AnalogIn CurrentInput(A0); // Input from Current Mux |
greenroshks | 13:1b37d98840d3 | 15 | AnalogIn VoltageInput(A1); // Input from Voltage Multiplexer |
greenroshks | 13:1b37d98840d3 | 16 | AnalogIn TemperatureInput(A2); /*Input from Temperature Multiplexer,thermistor Multiplexer- same multiplexer for both(lines 1-4 for thermistor,line 0 for temperature sensor)*/ |
greenroshks | 13:1b37d98840d3 | 17 | |
greenroshks | 13:1b37d98840d3 | 18 | |
greenroshks | 13:1b37d98840d3 | 19 | |
greenroshks | 13:1b37d98840d3 | 20 | |
greenroshks | 13:1b37d98840d3 | 21 | int quantiz(float start,float step,float x) // accepts min and measured values and step->quantises on a scale 0-15..(4 bit quantisation) |
greenroshks | 0:8b0d43fe6c05 | 22 | { |
greenroshks | 0:8b0d43fe6c05 | 23 | int y=(x-start)/step; |
greenroshks | 0:8b0d43fe6c05 | 24 | if(y<=0)y=0; |
greenroshks | 0:8b0d43fe6c05 | 25 | if(y>=15)y=15; |
greenroshks | 0:8b0d43fe6c05 | 26 | return y; |
greenroshks | 0:8b0d43fe6c05 | 27 | } |
greenroshks | 0:8b0d43fe6c05 | 28 | |
greenroshks | 13:1b37d98840d3 | 29 | void init_beacon(ShortBeacy* x,SensorDataQuantised y) |
greenroshks | 0:8b0d43fe6c05 | 30 | { |
greenroshks | 13:1b37d98840d3 | 31 | (*x).Voltage[0]=y.Vcell_soc>>4;//quantised value |
greenroshks | 13:1b37d98840d3 | 32 | (*x).Temp[0]=y.PanelTemperature[0];//quantised value |
greenroshks | 13:1b37d98840d3 | 33 | (*x).Temp[1]=y.PanelTemperature[1];//quantised value |
greenroshks | 13:1b37d98840d3 | 34 | (*x).AngularSpeed[0]=y.AngularSpeed[0]; |
greenroshks | 13:1b37d98840d3 | 35 | (*x).AngularSpeed[1]=y.AngularSpeed[1]; |
greenroshks | 0:8b0d43fe6c05 | 36 | |
greenroshks | 13:1b37d98840d3 | 37 | (*x).SubsystemStatus[0]=145;//dummy values----------to be changed------------------- |
greenroshks | 13:1b37d98840d3 | 38 | (*x).ErrorFlag[0]=3;//dummy values----------to be changed------------------- |
greenroshks | 13:1b37d98840d3 | 39 | } |
greenroshks | 13:1b37d98840d3 | 40 | SensorData SensorUQ; |
greenroshks | 13:1b37d98840d3 | 41 | SensorDataQuantised SensorQuantised; |
greenroshks | 13:1b37d98840d3 | 42 | ShortBeacy Shortbeacon; |
greenroshks | 13:1b37d98840d3 | 43 | |
greenroshks | 13:1b37d98840d3 | 44 | void FUNC_HK_MAIN() |
greenroshks | 13:1b37d98840d3 | 45 | { |
greenroshks | 13:1b37d98840d3 | 46 | //define structure variables |
greenroshks | 13:1b37d98840d3 | 47 | |
greenroshks | 13:1b37d98840d3 | 48 | |
greenroshks | 13:1b37d98840d3 | 49 | |
greenroshks | 13:1b37d98840d3 | 50 | |
greenroshks | 13:1b37d98840d3 | 51 | //initialise all selectlines to zeroes->1st line of muxes selected |
greenroshks | 13:1b37d98840d3 | 52 | SelectLinesA[0]=SelectLinesA[1]=SelectLinesA[2]=SelectLinesA[3]=0; |
greenroshks | 13:1b37d98840d3 | 53 | SelectLinesB[0]=SelectLinesB[1]=SelectLinesB[2]=0; |
greenroshks | 13:1b37d98840d3 | 54 | SelectLinesC[0]=SelectLinesC[1]=SelectLinesC[2]=SelectLinesC[3]=0; |
greenroshks | 0:8b0d43fe6c05 | 55 | |
greenroshks | 0:8b0d43fe6c05 | 56 | int LoopIterator; |
greenroshks | 13:1b37d98840d3 | 57 | int SelectLineIterator; |
greenroshks | 13:1b37d98840d3 | 58 | |
greenroshks | 13:1b37d98840d3 | 59 | float resistance_thermistor,voltage_thermistor;//for thermistor |
greenroshks | 0:8b0d43fe6c05 | 60 | |
greenroshks | 13:1b37d98840d3 | 61 | //measurement from voltage sensor=> 16 sensors in place |
greenroshks | 13:1b37d98840d3 | 62 | for(LoopIterator=0; LoopIterator<16; LoopIterator++) |
greenroshks | 13:1b37d98840d3 | 63 | { |
greenroshks | 13:1b37d98840d3 | 64 | //following lines read the sensor values and stores them in 'SensorData' structure's variable 'Sensor' |
greenroshks | 13:1b37d98840d3 | 65 | SensorUQ.Voltage[LoopIterator]=(VoltageInput.read()*3.3*5.545454);//resistors in voltage divider=>15Mohm,3.3Mohm |
greenroshks | 13:1b37d98840d3 | 66 | |
greenroshks | 13:1b37d98840d3 | 67 | if(LoopIterator%2==0) |
greenroshks | 13:1b37d98840d3 | 68 | SensorQuantised.Voltage[LoopIterator/2]=quantiz(vstart,vstep,SensorUQ.Voltage[LoopIterator]); |
greenroshks | 13:1b37d98840d3 | 69 | |
greenroshks | 13:1b37d98840d3 | 70 | else |
greenroshks | 13:1b37d98840d3 | 71 | SensorQuantised.Voltage[(LoopIterator)/2]=SensorQuantised.Voltage[(LoopIterator)/2]<<4+quantiz(vstart,vstep,SensorUQ.Voltage[LoopIterator]); |
greenroshks | 13:1b37d98840d3 | 72 | |
greenroshks | 13:1b37d98840d3 | 73 | |
greenroshks | 13:1b37d98840d3 | 74 | |
greenroshks | 13:1b37d98840d3 | 75 | // The following lines are used to iterate the select lines from 0 to 15 |
greenroshks | 13:1b37d98840d3 | 76 | //following is an algorithm similar to counting binary numbers of 4 bit |
greenroshks | 13:1b37d98840d3 | 77 | for(SelectLineIterator=3;SelectLineIterator>=0;SelectLineIterator--) |
greenroshks | 13:1b37d98840d3 | 78 | { |
greenroshks | 13:1b37d98840d3 | 79 | if(SelectLinesA[SelectLineIterator]==0) |
greenroshks | 13:1b37d98840d3 | 80 | { |
greenroshks | 13:1b37d98840d3 | 81 | SelectLinesA[SelectLineIterator]=1; |
greenroshks | 13:1b37d98840d3 | 82 | break; |
greenroshks | 13:1b37d98840d3 | 83 | } |
greenroshks | 13:1b37d98840d3 | 84 | else SelectLinesA[SelectLineIterator]=0; |
greenroshks | 13:1b37d98840d3 | 85 | |
greenroshks | 13:1b37d98840d3 | 86 | } |
greenroshks | 13:1b37d98840d3 | 87 | |
greenroshks | 13:1b37d98840d3 | 88 | |
greenroshks | 13:1b37d98840d3 | 89 | wait_us(10.0); // A delay of 10 microseconds between each sensor output. Can be changed. |
greenroshks | 0:8b0d43fe6c05 | 90 | |
greenroshks | 13:1b37d98840d3 | 91 | } |
greenroshks | 13:1b37d98840d3 | 92 | |
greenroshks | 13:1b37d98840d3 | 93 | |
greenroshks | 13:1b37d98840d3 | 94 | |
greenroshks | 13:1b37d98840d3 | 95 | |
greenroshks | 13:1b37d98840d3 | 96 | |
greenroshks | 13:1b37d98840d3 | 97 | //measurement from current sensor=> 8 sensors in place |
greenroshks | 13:1b37d98840d3 | 98 | |
greenroshks | 13:1b37d98840d3 | 99 | for(LoopIterator=0; LoopIterator<8; LoopIterator++) |
greenroshks | 13:1b37d98840d3 | 100 | { |
greenroshks | 13:1b37d98840d3 | 101 | //following lines read the sensor values and stores them in 'SensorData' structure variable 'Sensor' |
greenroshks | 13:1b37d98840d3 | 102 | SensorUQ.Current[LoopIterator]=(CurrentInput.read()*3.3/(50*rsens)); |
greenroshks | 13:1b37d98840d3 | 103 | if(LoopIterator%2==0) |
greenroshks | 13:1b37d98840d3 | 104 | SensorQuantised.Current[LoopIterator/2]=quantiz(cstart,cstep,SensorUQ.Current[LoopIterator]); |
greenroshks | 13:1b37d98840d3 | 105 | else |
greenroshks | 13:1b37d98840d3 | 106 | SensorQuantised.Current[(LoopIterator)/2]=SensorQuantised.Current[(LoopIterator)/2]<<4+quantiz(cstart,cstep,SensorUQ.Current[LoopIterator]); |
greenroshks | 13:1b37d98840d3 | 107 | |
greenroshks | 0:8b0d43fe6c05 | 108 | |
greenroshks | 13:1b37d98840d3 | 109 | // The following lines are used to iterate the select lines from 0 to 7 |
greenroshks | 13:1b37d98840d3 | 110 | //following is an algorithm similar to counting binary numbers of 3 bits |
greenroshks | 13:1b37d98840d3 | 111 | for(SelectLineIterator=2;SelectLineIterator>=0;SelectLineIterator--) |
greenroshks | 13:1b37d98840d3 | 112 | { |
greenroshks | 13:1b37d98840d3 | 113 | if(SelectLinesB[SelectLineIterator]==0) |
greenroshks | 13:1b37d98840d3 | 114 | { |
greenroshks | 13:1b37d98840d3 | 115 | SelectLinesB[SelectLineIterator]=1; |
greenroshks | 13:1b37d98840d3 | 116 | break; |
greenroshks | 13:1b37d98840d3 | 117 | } |
greenroshks | 13:1b37d98840d3 | 118 | else SelectLinesB[SelectLineIterator]=0; |
greenroshks | 13:1b37d98840d3 | 119 | |
greenroshks | 0:8b0d43fe6c05 | 120 | } |
greenroshks | 13:1b37d98840d3 | 121 | |
greenroshks | 13:1b37d98840d3 | 122 | |
greenroshks | 0:8b0d43fe6c05 | 123 | wait_us(10.0); // A delay of 10 microseconds between each sensor output. Can be changed. |
greenroshks | 0:8b0d43fe6c05 | 124 | |
greenroshks | 13:1b37d98840d3 | 125 | } |
greenroshks | 13:1b37d98840d3 | 126 | |
greenroshks | 13:1b37d98840d3 | 127 | |
greenroshks | 13:1b37d98840d3 | 128 | //measurement of temperature |
greenroshks | 13:1b37d98840d3 | 129 | //temperature measurement=> 4 thermistors, 1 temperature sensor |
greenroshks | 13:1b37d98840d3 | 130 | //mux line 1=>temp sensor, mux lines 2 to 5 =>thermistors |
greenroshks | 13:1b37d98840d3 | 131 | |
greenroshks | 13:1b37d98840d3 | 132 | for(LoopIterator=0; LoopIterator<5; LoopIterator++) |
greenroshks | 13:1b37d98840d3 | 133 | { |
greenroshks | 13:1b37d98840d3 | 134 | //following lines read the sensor values and stores them in 'SensorData' structure variable 'Sensor' |
greenroshks | 13:1b37d98840d3 | 135 | SensorUQ.Temperature[LoopIterator]=(-90.7*3.3*TemperatureInput.read()+190.1543); |
greenroshks | 13:1b37d98840d3 | 136 | voltage_thermistor=TemperatureInput.read()*3.3;//voltage across thermistor |
greenroshks | 13:1b37d98840d3 | 137 | resistance_thermistor=24000*voltage_thermistor/(3.3-voltage_thermistor);//resistance of thermistor |
greenroshks | 13:1b37d98840d3 | 138 | //PanelTemperature will be updated depending on voltage_thermistor value later in the lines to follow |
greenroshks | 13:1b37d98840d3 | 139 | |
greenroshks | 13:1b37d98840d3 | 140 | if(LoopIterator%2==0) |
greenroshks | 13:1b37d98840d3 | 141 | { |
greenroshks | 13:1b37d98840d3 | 142 | if(LoopIterator<1) //->corresponding to temperature sensor |
greenroshks | 13:1b37d98840d3 | 143 | SensorQuantised.Temperature[(LoopIterator)/2]=quantiz(tstart,tstep,SensorUQ.Temperature[LoopIterator]); |
greenroshks | 13:1b37d98840d3 | 144 | |
greenroshks | 13:1b37d98840d3 | 145 | else //->corresponding to thermistor |
greenroshks | 13:1b37d98840d3 | 146 | { |
greenroshks | 13:1b37d98840d3 | 147 | if(voltage_thermistor<1.378) //Temperature>12 degC |
greenroshks | 13:1b37d98840d3 | 148 | SensorUQ.PanelTemperature[(LoopIterator-1)]=(3694/log(24.032242*resistance_thermistor)); |
greenroshks | 13:1b37d98840d3 | 149 | |
greenroshks | 13:1b37d98840d3 | 150 | else |
greenroshks | 13:1b37d98840d3 | 151 | SensorUQ.PanelTemperature[(LoopIterator-1)]=(3365.4792/log(7.60404*resistance_thermistor)); |
greenroshks | 13:1b37d98840d3 | 152 | |
greenroshks | 13:1b37d98840d3 | 153 | |
greenroshks | 13:1b37d98840d3 | 154 | SensorQuantised.PanelTemperature[(LoopIterator-1)/2]=quantiz(tstart_thermistor,tstep_thermistor,SensorUQ.PanelTemperature[(LoopIterator-1)]); |
greenroshks | 13:1b37d98840d3 | 155 | |
greenroshks | 13:1b37d98840d3 | 156 | } |
greenroshks | 13:1b37d98840d3 | 157 | |
greenroshks | 13:1b37d98840d3 | 158 | } |
greenroshks | 13:1b37d98840d3 | 159 | |
greenroshks | 13:1b37d98840d3 | 160 | else |
greenroshks | 13:1b37d98840d3 | 161 | { |
greenroshks | 13:1b37d98840d3 | 162 | if(LoopIterator<1) |
greenroshks | 13:1b37d98840d3 | 163 | SensorQuantised.Temperature[(LoopIterator)/2]=SensorQuantised.Temperature[(LoopIterator)/2]<<4+quantiz(tstart,tstep,SensorUQ.Temperature[LoopIterator]); |
greenroshks | 13:1b37d98840d3 | 164 | |
greenroshks | 13:1b37d98840d3 | 165 | else |
greenroshks | 13:1b37d98840d3 | 166 | { |
greenroshks | 13:1b37d98840d3 | 167 | if(voltage_thermistor<1.378) //Temperature>12 degC |
greenroshks | 13:1b37d98840d3 | 168 | SensorUQ.PanelTemperature[LoopIterator-1]=(3694/log(24.032242*resistance_thermistor)); |
greenroshks | 13:1b37d98840d3 | 169 | |
greenroshks | 13:1b37d98840d3 | 170 | |
greenroshks | 13:1b37d98840d3 | 171 | else |
greenroshks | 13:1b37d98840d3 | 172 | SensorUQ.PanelTemperature[LoopIterator-1]=(3365.4792/log(7.60404*resistance_thermistor)); |
greenroshks | 13:1b37d98840d3 | 173 | |
greenroshks | 13:1b37d98840d3 | 174 | SensorQuantised.PanelTemperature[(LoopIterator-1)/2]=SensorQuantised.PanelTemperature[(LoopIterator-1)/2]<<4+quantiz(tstart_thermistor,tstep_thermistor,SensorUQ.PanelTemperature[LoopIterator-1]); |
greenroshks | 13:1b37d98840d3 | 175 | |
greenroshks | 13:1b37d98840d3 | 176 | } |
greenroshks | 13:1b37d98840d3 | 177 | |
greenroshks | 13:1b37d98840d3 | 178 | } |
greenroshks | 13:1b37d98840d3 | 179 | |
greenroshks | 13:1b37d98840d3 | 180 | |
greenroshks | 13:1b37d98840d3 | 181 | |
greenroshks | 13:1b37d98840d3 | 182 | |
greenroshks | 13:1b37d98840d3 | 183 | // The following lines are used to iterate the select lines from 0 to 4 |
greenroshks | 13:1b37d98840d3 | 184 | |
greenroshks | 13:1b37d98840d3 | 185 | //following is an algorithm similar to counting binary numbers of 4 bit |
greenroshks | 13:1b37d98840d3 | 186 | for(SelectLineIterator=3;SelectLineIterator>=0;SelectLineIterator--) |
greenroshks | 13:1b37d98840d3 | 187 | { |
greenroshks | 13:1b37d98840d3 | 188 | if(SelectLinesC[SelectLineIterator]==0) |
greenroshks | 13:1b37d98840d3 | 189 | { |
greenroshks | 13:1b37d98840d3 | 190 | SelectLinesC[SelectLineIterator]=1; |
greenroshks | 13:1b37d98840d3 | 191 | break; |
greenroshks | 13:1b37d98840d3 | 192 | } |
greenroshks | 13:1b37d98840d3 | 193 | else SelectLinesC[SelectLineIterator]=0; |
greenroshks | 13:1b37d98840d3 | 194 | |
greenroshks | 13:1b37d98840d3 | 195 | } |
greenroshks | 13:1b37d98840d3 | 196 | |
greenroshks | 13:1b37d98840d3 | 197 | |
greenroshks | 13:1b37d98840d3 | 198 | wait_us(10.0); // A delay of 10 microseconds between each sensor output. Can be changed. |
greenroshks | 13:1b37d98840d3 | 199 | |
greenroshks | 13:1b37d98840d3 | 200 | } |
greenroshks | 13:1b37d98840d3 | 201 | |
greenroshks | 13:1b37d98840d3 | 202 | |
greenroshks | 13:1b37d98840d3 | 203 | |
greenroshks | 13:1b37d98840d3 | 204 | //update battery gauge parameters-> |
greenroshks | 13:1b37d98840d3 | 205 | float batteryparameters[4];//to populate battery parameters of struct variable Sensor |
greenroshks | 13:1b37d98840d3 | 206 | FUNC_BATTERYGAUGE_MAIN(batteryparameters);//passing array to function |
greenroshks | 13:1b37d98840d3 | 207 | |
greenroshks | 13:1b37d98840d3 | 208 | SensorUQ.Vcell=batteryparameters[0]; |
greenroshks | 13:1b37d98840d3 | 209 | SensorUQ.soc=batteryparameters[1]; |
greenroshks | 13:1b37d98840d3 | 210 | SensorUQ.crate=batteryparameters[2]; |
greenroshks | 13:1b37d98840d3 | 211 | SensorUQ.alerts=batteryparameters[3]; |
greenroshks | 13:1b37d98840d3 | 212 | |
greenroshks | 13:1b37d98840d3 | 213 | SensorQuantised.Vcell_soc=quantiz(Vcell_start,Vcell_step,SensorUQ.Vcell); |
greenroshks | 13:1b37d98840d3 | 214 | SensorQuantised.Vcell_soc=SensorQuantised.Vcell_soc<<4+quantiz(soc_start,soc_step,SensorUQ.soc); |
greenroshks | 13:1b37d98840d3 | 215 | SensorQuantised.alerts=SensorUQ.alerts; |
greenroshks | 13:1b37d98840d3 | 216 | SensorQuantised.crate=quantiz(crate_start,crate_step,SensorUQ.crate); |
greenroshks | 13:1b37d98840d3 | 217 | |
greenroshks | 13:1b37d98840d3 | 218 | |
greenroshks | 13:1b37d98840d3 | 219 | //update magnetometer data-> |
greenroshks | 13:1b37d98840d3 | 220 | //populate values in structure variable 'Sensor' from data to be given by Green |
greenroshks | 13:1b37d98840d3 | 221 | SensorQuantised.AngularSpeed[0]=quantiz(AngularSpeed_start,AngularSpeed_step,SensorUQ.AngularSpeed[1]); |
greenroshks | 13:1b37d98840d3 | 222 | SensorQuantised.AngularSpeed[0]=SensorQuantised.AngularSpeed[0]<<4+quantiz(AngularSpeed_start,AngularSpeed_step,SensorUQ.AngularSpeed[0]); |
greenroshks | 13:1b37d98840d3 | 223 | SensorQuantised.AngularSpeed[1]=quantiz(AngularSpeed_start,AngularSpeed_step,SensorUQ.AngularSpeed[2]); |
greenroshks | 13:1b37d98840d3 | 224 | |
greenroshks | 13:1b37d98840d3 | 225 | //update gyro data-> |
greenroshks | 13:1b37d98840d3 | 226 | //populate values in structure variable 'Sensor' from data to be given by Green |
greenroshks | 13:1b37d98840d3 | 227 | SensorQuantised.Bnewvalue[0]=quantiz(Bnewvalue_start,Bnewvalue_step,SensorUQ.Bnewvalue[1]); |
greenroshks | 13:1b37d98840d3 | 228 | SensorQuantised.Bnewvalue[0]=SensorQuantised.Bnewvalue[0]<<4+quantiz(Bnewvalue_start,Bnewvalue_step,SensorUQ.Bnewvalue[0]); |
greenroshks | 13:1b37d98840d3 | 229 | SensorQuantised.Bnewvalue[1]=quantiz(Bnewvalue_start,Bnewvalue_step,SensorUQ.Bnewvalue[2]); |
greenroshks | 13:1b37d98840d3 | 230 | |
greenroshks | 13:1b37d98840d3 | 231 | |
greenroshks | 13:1b37d98840d3 | 232 | |
greenroshks | 13:1b37d98840d3 | 233 | |
greenroshks | 13:1b37d98840d3 | 234 | //update beacon structure |
greenroshks | 13:1b37d98840d3 | 235 | init_beacon(&Shortbeacon,SensorQuantised);//Shortbeacon is passed |
greenroshks | 13:1b37d98840d3 | 236 | |
greenroshks | 13:1b37d98840d3 | 237 | |
greenroshks | 13:1b37d98840d3 | 238 | } |
greenroshks | 13:1b37d98840d3 | 239 | |
greenroshks | 13:1b37d98840d3 | 240 | |
greenroshks | 13:1b37d98840d3 | 241 | void FUNC_BATTERYGAUGE_MAIN(float array[]) |
greenroshks | 13:1b37d98840d3 | 242 | { |
greenroshks | 13:1b37d98840d3 | 243 | float vcell=master.vcell(); |
greenroshks | 13:1b37d98840d3 | 244 | float soc=master.soc(); |
greenroshks | 13:1b37d98840d3 | 245 | float crate=master.crate(); |
greenroshks | 13:1b37d98840d3 | 246 | |
greenroshks | 13:1b37d98840d3 | 247 | printf("\nVcell=%f",vcell); |
greenroshks | 13:1b37d98840d3 | 248 | printf("\nSOC=%f",soc); |
greenroshks | 13:1b37d98840d3 | 249 | printf("\nC_rate=%f",crate); |
greenroshks | 13:1b37d98840d3 | 250 | |
greenroshks | 13:1b37d98840d3 | 251 | array[0]=vcell; |
greenroshks | 13:1b37d98840d3 | 252 | array[1]=soc; |
greenroshks | 13:1b37d98840d3 | 253 | array[2]=crate; |
greenroshks | 13:1b37d98840d3 | 254 | if (master.alerting()== true) //alert is on |
greenroshks | 13:1b37d98840d3 | 255 | { |
greenroshks | 13:1b37d98840d3 | 256 | array[3]=master.alertFlags(); |
greenroshks | 13:1b37d98840d3 | 257 | master.clearAlert();//clear alert |
greenroshks | 13:1b37d98840d3 | 258 | master.clearAlertFlags();//clear all alert flags |
greenroshks | 0:8b0d43fe6c05 | 259 | } |
greenroshks | 13:1b37d98840d3 | 260 | |
greenroshks | 0:8b0d43fe6c05 | 261 | |
greenroshks | 0:8b0d43fe6c05 | 262 | } |
greenroshks | 13:1b37d98840d3 | 263 | |
greenroshks | 13:1b37d98840d3 | 264 | void FUNC_BATTERYGAUGE_INIT() |
greenroshks | 13:1b37d98840d3 | 265 | { |
greenroshks | 13:1b37d98840d3 | 266 | master.disable_sleep(); |
greenroshks | 13:1b37d98840d3 | 267 | master.disable_hibernate(); |
greenroshks | 13:1b37d98840d3 | 268 | master.socChangeAlertEnabled(true);//enabling alert on soc changing by 1% |
greenroshks | 13:1b37d98840d3 | 269 | master.emptyAlertThreshold(1);//giving minimum value to disable it to disabling it---------------------- |
greenroshks | 13:1b37d98840d3 | 270 | master.vAlertMinMaxThreshold();//set min, max value of Valrt register |
greenroshks | 13:1b37d98840d3 | 271 | master.vResetThresholdSet();//set threshold voltage for reset |
greenroshks | 13:1b37d98840d3 | 272 | master.vResetAlertEnabled(true);//enable alert on reset for V < Vreset |
greenroshks | 13:1b37d98840d3 | 273 | } |