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PM8000 Goal achieved in a memory constraint way

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This commit is contained in:
Warky 2024-09-23 21:29:02 +02:00
parent 42554a57da
commit 03e46e0582
6 changed files with 1110 additions and 75 deletions
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BIN
docs/Arduino/memories-of-an-arduino.pdf Normal file
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976
docs/PowerLogic-PM8000/genreg/PM8000_Modbus_Map_ad.h
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File diff suppressed because it is too large Load Diff

6
docs/PowerLogic-PM8000/genreg/buildregmap2.py
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@ -29,9 +29,9 @@ for d in range(1, len(data)):
continue continue
# if data[d][9] == "NONE": # if data[d][9] == "NONE":
# continue # continue
if data[d][4] == "---" or data[d][4] == "seconds" or data[d][4] == "degrees": if data[d][4] == "seconds" or data[d][4] == "degrees":
continue continue
if data[d][3] == "UTF8" or data[d][3] == "DATETIME" or data[d][3] == "BITMAP" or data[d][3] == "N/A": if data[d][3] == "DATETIME" or data[d][3] == "BITMAP" or data[d][3] == "N/A":
continue continue
if data[d][0].find("Magnitude") >= 0: if data[d][0].find("Magnitude") >= 0:
continue continue
@ -44,6 +44,8 @@ for d in range(1, len(data)):
typeint = 3 typeint = 3
elif data[d][3] == "INT32U": elif data[d][3] == "INT32U":
typeint = 4 typeint = 4
elif data[d][3] == "UTF8":
typeint = 5
#print("{} @ {}:{} ({}) Tag: {}".format(data[d][0], data[d][1] ,data[d][2] ,data[d][3],data[d][7])) #print("{} @ {}:{} ({}) Tag: {}".format(data[d][0], data[d][1] ,data[d][2] ,data[d][3],data[d][7]))

22
docs/formulas.md Normal file
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@ -0,0 +1,22 @@
# Calculations
## LED Formula
### LED Spec:
2.8v (forward voltage)
20ma (current)
Vsupply = 5v (Pi Power)
Vf = 2.8v (Led Volts)
R = resistor value
If = desired current
Vr = Vsupply - Vf
R = Vr / If
Vr = 5V - 2.8V = 2.2V
R = 2.2V / 20mA = 110 ohms
Make sure to add some play room, we use a 120 omhs resistor

61
firmware/modbus-sd/modbus-sd-pm8000/modbus-sd-pm8000.ino
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@ -39,18 +39,22 @@ ModbusMaster node;
unsigned long lastRefreshTime = 0; unsigned long lastRefreshTime = 0;
bool headerWritten = false; bool headerWritten = false;
bool booted = false;
void flicker(uint8_t pin ,uint8_t times , uint16_t speed ) { void flicker(uint8_t pin, uint8_t times, uint16_t speed)
for (int i = 0; i < times; i++) { {
for (int i = 0; i < times; i++)
{
delay(speed);
digitalWrite(pin, HIGH); digitalWrite(pin, HIGH);
delay(speed); delay(speed);
digitalWrite(pin, LOW); digitalWrite(pin, LOW);
delay(speed);
} }
} }
void setup() void setup()
{ {
booted = false;
pinMode(LED_A_PID, OUTPUT); pinMode(LED_A_PID, OUTPUT);
pinMode(LED_B_PID, OUTPUT); pinMode(LED_B_PID, OUTPUT);
digitalWrite(LED_A_PID, LOW); digitalWrite(LED_A_PID, LOW);
@ -63,7 +67,10 @@ void setup()
if (!rtc.begin()) if (!rtc.begin())
{ {
Serial.println(F("Couldn't find RTC\n")); Serial.println(F("Couldn't find RTC\n"));
flicker(LED_B_PID,4,500); //4 times on LED b is RTC Error flicker(LED_B_PID, 4, 1000); // 4 times on LED b is RTC Error
digitalWrite(LED_B_PID, HIGH);
digitalWrite(LED_A_PID, HIGH);
return;
} }
if (rtc.lostPower()) if (rtc.lostPower())
@ -71,7 +78,7 @@ void setup()
Serial.println(F("RTC lost power, let's set the time!\n")); Serial.println(F("RTC lost power, let's set the time!\n"));
// Comment out the following line once the time is set to avoid resetting on every start // Comment out the following line once the time is set to avoid resetting on every start
rtc.adjust(DateTime(F(__DATE__), F(__TIME__))); rtc.adjust(DateTime(F(__DATE__), F(__TIME__)));
flicker(LED_B_PID,4,100); //4 times fast on LED b is RTC reset flicker(LED_B_PID, 4, 500); // 6 times fast on LED b is RTC reset
} }
Serial.print(F("Time: ")); Serial.print(F("Time: "));
@ -90,8 +97,11 @@ void setup()
// Initialize the SD. // Initialize the SD.
if (!sd.begin(SD_CONFIG)) if (!sd.begin(SD_CONFIG))
{ {
flicker(LED_B_PID, 2, 1000);
digitalWrite(LED_B_PID, HIGH);
sd.initErrorHalt(&Serial); sd.initErrorHalt(&Serial);
flicker(LED_B_PID,2,500); //2 Times slow, SD Card initilize error
// 2 Times slow and stay on, SD Card initilize error
return; return;
} }
Serial.println(F("SD card initialized.\n")); Serial.println(F("SD card initialized.\n"));
@ -105,7 +115,9 @@ void setup()
node.begin(SLAVE_ID, modbusSerial); node.begin(SLAVE_ID, modbusSerial);
node.preTransmission(preTransmission); node.preTransmission(preTransmission);
node.postTransmission(postTransmission); node.postTransmission(postTransmission);
flicker(LED_A_PID,2,100); flicker(LED_B_PID, 10, 100);
digitalWrite(LED_B_PID, LOW);
booted = true;
} }
void preTransmission() void preTransmission()
@ -150,7 +162,7 @@ void primeFileDate()
String getFilename() String getFilename()
{ {
DateTime now = rtc.now(); DateTime now = rtc.now();
String mb = F(""); String mb = F("pm8k_");
mb += now.year(); mb += now.year();
mb += now.month(); mb += now.month();
mb += now.day(); mb += now.day();
@ -163,6 +175,14 @@ String getFilename()
void loop() void loop()
{ {
if (!booted)
{
Serial.print(F("\nBoot failed, cycle "));
delay(10000);
digitalWrite(LED_A_PID, LOW);
return;
}
delay(100); delay(100);
String writebuffer; String writebuffer;
@ -182,7 +202,7 @@ void loop()
Serial.print("\n"); Serial.print("\n");
if (!dataFile.open(filename.c_str(), FILE_WRITE)) if (!dataFile.open(filename.c_str(), FILE_WRITE))
{ {
flicker(LED_B_PID,6,100); //Six quick flickers. SD Card error flicker(LED_B_PID, 6, 500); // Six quick flickers. SD Card error
Serial.println(F("Failed to Open Card ")); Serial.println(F("Failed to Open Card "));
} }
if (!headerWritten) if (!headerWritten)
@ -191,12 +211,12 @@ void loop()
for (int i = 0; i < totalReg; i++) for (int i = 0; i < totalReg; i++)
{ {
const uint16_t regaddr = pgm_read_word(&registers[i].regaddr); const uint16_t regaddr = pgm_read_word(&registers[i].regaddr);
dataFile.print("Addr @ "); dataFile.print("@");
dataFile.print(regaddr); dataFile.print(regaddr);
dataFile.print(","); dataFile.print(",");
} }
headerWritten = true; headerWritten = true;
flicker(LED_A_PID,50,10); //10 flickers, written header flicker(LED_A_PID, 50, 10); // 10 flickers, written header
} }
primeFileDate(); primeFileDate();
Serial.print("\n"); Serial.print("\n");
@ -214,9 +234,9 @@ void loop()
if (regaddr > 0) if (regaddr > 0)
{ {
delay(50); //Gives the pending communication a little delay delay(25); // Gives the pending communication a little delay
uint8_t result = node.readHoldingRegisters(regaddr - 1, 2); uint8_t result = node.readHoldingRegisters(regaddr - 1, 2);
delay(50); //Delay the read for a little bit so that the buffer can be read delay(25); // Delay the read for a little bit so that the buffer can be read
if (result == node.ku8MBSuccess) if (result == node.ku8MBSuccess)
{ {
@ -236,6 +256,18 @@ void loop()
{ {
dataFile.print(getRegisterInt32(node.getResponseBuffer(0), node.getResponseBuffer(1))); dataFile.print(getRegisterInt32(node.getResponseBuffer(0), node.getResponseBuffer(1)));
} }
else if (regtype == 5)
{
for (uint8_t j = 0; j < 20; j++)
{
uint8_t v = node.getResponseBuffer(j);
char a = v;
if (v == 0) {
break;
}
dataFile.print(a);
}
}
else else
{ {
dataFile.print(F("null")); dataFile.print(F("null"));
@ -248,6 +280,7 @@ void loop()
Serial.print("\n"); Serial.print("\n");
dataFile.print(F("E")); dataFile.print(F("E"));
dataFile.print(result, HEX); dataFile.print(result, HEX);
flicker(LED_B_PID, 2, 250);
} }
dataFile.print(","); dataFile.print(",");
} }
@ -266,7 +299,7 @@ void loop()
Serial.print(F("\n\n")); Serial.print(F("\n\n"));
flicker(LED_A_PID,4,10); //Cycle written 4 quick flickers flicker(LED_A_PID, 4, 100); // Cycle written 4 quick flickers
} }
// // Check if the read was successful // // Check if the read was successful

116
firmware/modbus-sd/modbus-sd-pm8000/register_map_pm8000.h
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@ -8,6 +8,8 @@ struct RegisterMap
}; };
const PROGMEM RegisterMap registers[] = { const PROGMEM RegisterMap registers[] = {
//{ 30, 5} , // Name: Meter Name (DeviceName) - [30,20] as UTF8
//{ 50, 5} , // Name: Meter Model (DeviceType) - [50,20] as UTF8
{ 1837, 1} , // Name: Year (Year) - [1837,1] as INT16U { 1837, 1} , // Name: Year (Year) - [1837,1] as INT16U
{ 1838, 1} , // Name: Month (Month) - [1838,1] as INT16U { 1838, 1} , // Name: Month (Month) - [1838,1] as INT16U
{ 1839, 1} , // Name: Day (Day) - [1839,1] as INT16U { 1839, 1} , // Name: Day (Day) - [1839,1] as INT16U
@ -17,53 +19,53 @@ const PROGMEM RegisterMap registers[] = {
{ 2702, 2} , // Name: Active Energy Received (Out of Load) (kWh rec) - [2702,2] as FLOAT32 { 2702, 2} , // Name: Active Energy Received (Out of Load) (kWh rec) - [2702,2] as FLOAT32
{ 2704, 2} , // Name: Active Energy Delivered + Received (kWh del+rec) - [2704,2] as FLOAT32 { 2704, 2} , // Name: Active Energy Delivered + Received (kWh del+rec) - [2704,2] as FLOAT32
{ 2706, 2} , // Name: Active Energy Delivered- Received (kWh del-rec) - [2706,2] as FLOAT32 { 2706, 2} , // Name: Active Energy Delivered- Received (kWh del-rec) - [2706,2] as FLOAT32
// { 2708, 2} , // Name: Reactive Energy Delivered (kVARh del) - [2708,2] as FLOAT32 { 2708, 2} , // Name: Reactive Energy Delivered (kVARh del) - [2708,2] as FLOAT32
// { 2710, 2} , // Name: Reactive Energy Received (kVARh rec) - [2710,2] as FLOAT32 { 2710, 2} , // Name: Reactive Energy Received (kVARh rec) - [2710,2] as FLOAT32
// { 2712, 2} , // Name: Reactive Energy Delivered + Received (kVARh del+rec) - [2712,2] as FLOAT32 { 2712, 2} , // Name: Reactive Energy Delivered + Received (kVARh del+rec) - [2712,2] as FLOAT32
// { 2714, 2} , // Name: Reactive Energy Delivered - Received (kVARh del-rec) - [2714,2] as FLOAT32 { 2714, 2} , // Name: Reactive Energy Delivered - Received (kVARh del-rec) - [2714,2] as FLOAT32
// { 2716, 2} , // Name: Apparent Energy Delivered (kVAh del) - [2716,2] as FLOAT32 { 2716, 2} , // Name: Apparent Energy Delivered (kVAh del) - [2716,2] as FLOAT32
// { 2718, 2} , // Name: Apparent Energy Received (kVAh rec) - [2718,2] as FLOAT32 { 2718, 2} , // Name: Apparent Energy Received (kVAh rec) - [2718,2] as FLOAT32
// { 2720, 2} , // Name: Apparent Energy Delivered + Received (kVAh del+rec) - [2720,2] as FLOAT32 { 2720, 2} , // Name: Apparent Energy Delivered + Received (kVAh del+rec) - [2720,2] as FLOAT32
// { 2722, 2} , // Name: Apparent Energy Delivered - Received (kVAh del-rec) - [2722,2] as FLOAT32 { 2722, 2} , // Name: Apparent Energy Delivered - Received (kVAh del-rec) - [2722,2] as FLOAT32
// { 2724, 2} , // Name: Active Energy in Quadrant I (kWh Q1) - [2724,2] as FLOAT32 { 2724, 2} , // Name: Active Energy in Quadrant I (kWh Q1) - [2724,2] as FLOAT32
// { 2726, 2} , // Name: Active Energy in Quadrant II (kWh Q2) - [2726,2] as FLOAT32 { 2726, 2} , // Name: Active Energy in Quadrant II (kWh Q2) - [2726,2] as FLOAT32
// { 2728, 2} , // Name: Active Energy in Quadrant III (kWh Q3) - [2728,2] as FLOAT32 { 2728, 2} , // Name: Active Energy in Quadrant III (kWh Q3) - [2728,2] as FLOAT32
// { 2730, 2} , // Name: Active Energy in Quadrant IV (kWh Q4) - [2730,2] as FLOAT32 { 2730, 2} , // Name: Active Energy in Quadrant IV (kWh Q4) - [2730,2] as FLOAT32
// { 2732, 2} , // Name: Reactive Energy in Quadrant I (kVARh Q1) - [2732,2] as FLOAT32 { 2732, 2} , // Name: Reactive Energy in Quadrant I (kVARh Q1) - [2732,2] as FLOAT32
// { 2734, 2} , // Name: Reactive Energy in Quadrant II (kVARh Q2) - [2734,2] as FLOAT32 { 2734, 2} , // Name: Reactive Energy in Quadrant II (kVARh Q2) - [2734,2] as FLOAT32
// { 2736, 2} , // Name: Reactive Energy in Quadrant III (kVARh Q3) - [2736,2] as FLOAT32 { 2736, 2} , // Name: Reactive Energy in Quadrant III (kVARh Q3) - [2736,2] as FLOAT32
// { 2738, 2} , // Name: Reactive Energy in Quadrant IV (kVARh Q4) - [2738,2] as FLOAT32 { 2738, 2} , // Name: Reactive Energy in Quadrant IV (kVARh Q4) - [2738,2] as FLOAT32
// { 2740, 2} , // Name: Apparent Energy in Quadrant I (kVAh Q1) - [2740,2] as FLOAT32 { 2740, 2} , // Name: Apparent Energy in Quadrant I (kVAh Q1) - [2740,2] as FLOAT32
// { 2742, 2} , // Name: Apparent Energy in Quadrant II (kVAh Q2) - [2742,2] as FLOAT32 { 2742, 2} , // Name: Apparent Energy in Quadrant II (kVAh Q2) - [2742,2] as FLOAT32
// { 2744, 2} , // Name: Apparent Energy in Quadrant III (kVAh Q3) - [2744,2] as FLOAT32 { 2744, 2} , // Name: Apparent Energy in Quadrant III (kVAh Q3) - [2744,2] as FLOAT32
// { 2746, 2} , // Name: Apparent Energy in Quadrant IV (kVAh Q4) - [2746,2] as FLOAT32 { 2746, 2} , // Name: Apparent Energy in Quadrant IV (kVAh Q4) - [2746,2] as FLOAT32
// { 2748, 2} , // Name: Conditional Active Energy Delivered (Into Load) (Cnd kWh del) - [2748,2] as FLOAT32 { 2748, 2} , // Name: Conditional Active Energy Delivered (Into Load) (Cnd kWh del) - [2748,2] as FLOAT32
// { 2750, 2} , // Name: Conditional Active Energy Received (Out of Load) (Cnd kWh rec) - [2750,2] as FLOAT32 { 2750, 2} , // Name: Conditional Active Energy Received (Out of Load) (Cnd kWh rec) - [2750,2] as FLOAT32
// { 2754, 2} , // Name: Active Energy Delivered - Received, Conditional (Cnd kWh d-r) - [2754,2] as FLOAT32 { 2754, 2} , // Name: Active Energy Delivered - Received, Conditional (Cnd kWh d-r) - [2754,2] as FLOAT32
// { 2756, 2} , // Name: Conditional Reactive Energy In (Delivered) (Cnd kVARh del) - [2756,2] as FLOAT32 { 2756, 2} , // Name: Conditional Reactive Energy In (Delivered) (Cnd kVARh del) - [2756,2] as FLOAT32
// { 2758, 2} , // Name: Conditional Reactive Energy Out (Received) (Cnd kVARh rec) - [2758,2] as FLOAT32 { 2758, 2} , // Name: Conditional Reactive Energy Out (Received) (Cnd kVARh rec) - [2758,2] as FLOAT32
// { 2762, 2} , // Name: Reactive Energy Delivered - Received, Conditional (Cnd kVARh d-r) - [2762,2] as FLOAT32 { 2762, 2} , // Name: Reactive Energy Delivered - Received, Conditional (Cnd kVARh d-r) - [2762,2] as FLOAT32
// { 2768, 2} , // Name: Apparent Energy Delivered + Received, Conditional (Cnd kVAh d+r) - [2768,2] as FLOAT32 { 2768, 2} , // Name: Apparent Energy Delivered + Received, Conditional (Cnd kVAh d+r) - [2768,2] as FLOAT32
// { 2772, 2} , // Name: Active Energy Delivered , Last Complete Interval (Inc kWh del C) - [2772,2] as FLOAT32 { 2772, 2} , // Name: Active Energy Delivered , Last Complete Interval (Inc kWh del C) - [2772,2] as FLOAT32
// { 2774, 2} , // Name: Active Energy Received , Last Complete Interval (Inc kWh rec C) - [2774,2] as FLOAT32 { 2774, 2} , // Name: Active Energy Received , Last Complete Interval (Inc kWh rec C) - [2774,2] as FLOAT32
// { 2776, 2} , // Name: Active Energy Delivered - Received , Last Complete Interval (Inc kWh d-r C) - [2776,2] as FLOAT32 { 2776, 2} , // Name: Active Energy Delivered - Received , Last Complete Interval (Inc kWh d-r C) - [2776,2] as FLOAT32
// { 2778, 2} , // Name: Reactive Energy Delivered , Last Complete Interval (Inc kVARh del C) - [2778,2] as FLOAT32 { 2778, 2} , // Name: Reactive Energy Delivered , Last Complete Interval (Inc kVARh del C) - [2778,2] as FLOAT32
// { 2780, 2} , // Name: Reactive Energy Received , Last Complete Interval (Inc kVARh rec C) - [2780,2] as FLOAT32 { 2780, 2} , // Name: Reactive Energy Received , Last Complete Interval (Inc kVARh rec C) - [2780,2] as FLOAT32
// { 2782, 2} , // Name: Reactive Energy Delivered - Received , Last Complete Interval (Inc kVARh d-r C) - [2782,2] as FLOAT32 { 2782, 2} , // Name: Reactive Energy Delivered - Received , Last Complete Interval (Inc kVARh d-r C) - [2782,2] as FLOAT32
// { 2784, 2} , // Name: Apparent Energy Delivered + Received , Last Complete Interval (Inc kVAh d+r C) - [2784,2] as FLOAT32 { 2784, 2} , // Name: Apparent Energy Delivered + Received , Last Complete Interval (Inc kVAh d+r C) - [2784,2] as FLOAT32
// { 2786, 2} , // Name: Active Energy Delivered , Present Interval (Inc kWh del) - [2786,2] as FLOAT32 { 2786, 2} , // Name: Active Energy Delivered , Present Interval (Inc kWh del) - [2786,2] as FLOAT32
// { 2788, 2} , // Name: Active Energy Received , Present Interval (Inc kWh rec) - [2788,2] as FLOAT32 { 2788, 2} , // Name: Active Energy Received , Present Interval (Inc kWh rec) - [2788,2] as FLOAT32
// { 2790, 2} , // Name: Active Energy Delivered - Received , Present Interval (Inc kWh d-r) - [2790,2] as FLOAT32 { 2790, 2} , // Name: Active Energy Delivered - Received , Present Interval (Inc kWh d-r) - [2790,2] as FLOAT32
// { 2792, 2} , // Name: Reactive Energy Delivered , Present Interval (Inc kVARh del) - [2792,2] as FLOAT32 { 2792, 2} , // Name: Reactive Energy Delivered , Present Interval (Inc kVARh del) - [2792,2] as FLOAT32
// { 2794, 2} , // Name: Reactive Energy Received , Present Interval (Inc kVARh rec) - [2794,2] as FLOAT32 { 2794, 2} , // Name: Reactive Energy Received , Present Interval (Inc kVARh rec) - [2794,2] as FLOAT32
// { 2796, 2} , // Name: Reactive Energy Delivered - Received , Present Interval (Inc kVARh d-r) - [2796,2] as FLOAT32 { 2796, 2} , // Name: Reactive Energy Delivered - Received , Present Interval (Inc kVARh d-r) - [2796,2] as FLOAT32
// { 2798, 2} , // Name: Apparent Energy Delivered + Received , Present Interval (Inc kVAh d+r) - [2798,2] as FLOAT32 { 2798, 2} , // Name: Apparent Energy Delivered + Received , Present Interval (Inc kVAh d+r) - [2798,2] as FLOAT32
// { 2800, 2} , // Name: Active Energy Delivered Interval (kWh del int) - [2800,2] as FLOAT32 { 2800, 2} , // Name: Active Energy Delivered Interval (kWh del int) - [2800,2] as FLOAT32
// { 2802, 2} , // Name: Active Energy Received Interval (kWh rec int) - [2802,2] as FLOAT32 { 2802, 2} , // Name: Active Energy Received Interval (kWh rec int) - [2802,2] as FLOAT32
// { 2804, 2} , // Name: Reactive Energy Delivered Interval (kVARh del int) - [2804,2] as FLOAT32 { 2804, 2} , // Name: Reactive Energy Delivered Interval (kVARh del int) - [2804,2] as FLOAT32
// { 2806, 2} , // Name: Reactive Energy Received Interval (kVARh rec int) - [2806,2] as FLOAT32 { 2806, 2} , // Name: Reactive Energy Received Interval (kVARh rec int) - [2806,2] as FLOAT32
// { 2808, 2} , // Name: Apparent Energy Delivered Interval (kVAh del int) - [2808,2] as FLOAT32 { 2808, 2} , // Name: Apparent Energy Delivered Interval (kVAh del int) - [2808,2] as FLOAT32
// { 2810, 2} , // Name: Apparent Energy Received Interval (kVAh rec int) - [2810,2] as FLOAT32 { 2810, 2} , // Name: Apparent Energy Received Interval (kVAh rec int) - [2810,2] as FLOAT32
{ 3000, 2} , // Name: Current A (I a) - [3000,2] as FLOAT32 { 3000, 2} , // Name: Current A (I a) - [3000,2] as FLOAT32
{ 3002, 2} , // Name: Current B (I b) - [3002,2] as FLOAT32 { 3002, 2} , // Name: Current B (I b) - [3002,2] as FLOAT32
{ 3004, 2} , // Name: Current C (I c) - [3004,2] as FLOAT32 { 3004, 2} , // Name: Current C (I c) - [3004,2] as FLOAT32
@ -81,16 +83,16 @@ const PROGMEM RegisterMap registers[] = {
{ 3054, 2} , // Name: Active Power A (kW a) - [3054,2] as FLOAT32 { 3054, 2} , // Name: Active Power A (kW a) - [3054,2] as FLOAT32
{ 3056, 2} , // Name: Active Power B (kW b) - [3056,2] as FLOAT32 { 3056, 2} , // Name: Active Power B (kW b) - [3056,2] as FLOAT32
{ 3058, 2} , // Name: Active Power C (kW c) - [3058,2] as FLOAT32 { 3058, 2} , // Name: Active Power C (kW c) - [3058,2] as FLOAT32
// { 3060, 2} , // Name: Active Power Total (kW tot) - [3060,2] as FLOAT32 { 3060, 2} , // Name: Active Power Total (kW tot) - [3060,2] as FLOAT32
// { 3062, 2} , // Name: Reactive Power A (kVAR a) - [3062,2] as FLOAT32 { 3062, 2} , // Name: Reactive Power A (kVAR a) - [3062,2] as FLOAT32
// { 3064, 2} , // Name: Reactive Power B (kVAR b) - [3064,2] as FLOAT32 { 3064, 2} , // Name: Reactive Power B (kVAR b) - [3064,2] as FLOAT32
// { 3066, 2} , // Name: Reactive Power C (kVAR c) - [3066,2] as FLOAT32 { 3066, 2} , // Name: Reactive Power C (kVAR c) - [3066,2] as FLOAT32
// { 3068, 2} , // Name: Reactive Power Total (kVAR tot) - [3068,2] as FLOAT32 { 3068, 2} , // Name: Reactive Power Total (kVAR tot) - [3068,2] as FLOAT32
// { 3070, 2} , // Name: Apparent Power A (kVA a) - [3070,2] as FLOAT32 { 3070, 2} , // Name: Apparent Power A (kVA a) - [3070,2] as FLOAT32
// { 3072, 2} , // Name: Apparent Power B (kVA b) - [3072,2] as FLOAT32 { 3072, 2} , // Name: Apparent Power B (kVA b) - [3072,2] as FLOAT32
// { 3074, 2} , // Name: Apparent Power C (kVA c) - [3074,2] as FLOAT32 { 3074, 2} , // Name: Apparent Power C (kVA c) - [3074,2] as FLOAT32
// { 3076, 2} , // Name: Apparent Power Total (kVA tot) - [3076,2] as FLOAT32 { 3076, 2} , // Name: Apparent Power Total (kVA tot) - [3076,2] as FLOAT32
// { 3110, 2} , // Name: Frequency (Freq) - [3110,2] as FLOAT32 { 3110, 2} , // Name: Frequency (Freq) - [3110,2] as FLOAT32
// { 3204, 3} , // Name: Active Energy Delivered (Into Load) (kWh del) - [3204,4] as INT64 // { 3204, 3} , // Name: Active Energy Delivered (Into Load) (kWh del) - [3204,4] as INT64
// { 3208, 3} , // Name: Active Energy Received (Out of Load) (kWh rec) - [3208,4] as INT64 // { 3208, 3} , // Name: Active Energy Received (Out of Load) (kWh rec) - [3208,4] as INT64
// { 3212, 3} , // Name: Active Energy Delivered + Received (kWh del+rec) - [3212,4] as INT64 // { 3212, 3} , // Name: Active Energy Delivered + Received (kWh del+rec) - [3212,4] as INT64