Files
Uniper_PLC/PLC/POUs/MAIN.TcPOU
2024-04-18 08:32:21 +02:00

676 lines
20 KiB
XML

<?xml version="1.0" encoding="utf-8"?>
<TcPlcObject Version="1.1.0.1" ProductVersion="3.1.4024.12">
<POU Name="MAIN" Id="{bbd7302c-91ce-4697-9f4b-743f57ca5819}" SpecialFunc="None">
<Declaration><![CDATA[PROGRAM MAIN
VAR
_xEmergencyStopOk AT %I* : BOOL;
_xShowAckEmergencyStop AT %Q* : BOOL;
_xString1DCSafetyOk AT %I* : BOOL;
_xReleaseErrors : BOOL := TRUE;
_xReleaseLimitsErrors : BOOL := TRUE;
_xConfirmAlarms : BOOL;
_xEnableString : BOOL;
_xEnableInverter : BOOL;
_xCanChangeMode : BOOL := TRUE;
{attribute 'OPC.UA.DA' := '0'}
_afbStrings : ARRAY[0..1] OF FB_String[('String 1'), ('String 2')];
_fbInverter : FB_PowerSupplySunspec;
_stInverterData : ST_SUNSPEC_CURRENT_VALUES;
// Variable to detect charge status change
_eLastChargeStatus : E_CHARGE_STATUS;
// Variable to detect battery status change
_eLastBatteryStatus : E_BATTERY_STATUS;
// State machine state
_iState : INT;
_iStateSafetyCheck : INT;
// Start safety check mode
_xStartSafetyCheck : BOOL;
// Auto remote and auto local power request
_rAutoPowerRequest : REAL;
// Internal inverter power
_rPowerInverter : REAL;
// Flag for zero power indication
_xNoPowerRequested : BOOL;
// Startup delay for error release during plc startup
_tonStartupDelay : TON := (PT := T#10S);
// Small delay for inverter shutdown
_tonBeginShutdown : TON := (PT := T#30S);
// Not all strings in automatic mode
_fbNoAutomaticModeAlarm : Fb_TcAlarm;
// First cycle tag
_xFirstCycle : BOOL := TRUE;
// ADS reader for modbus server data
_fbADSReader : ADSREAD;
// Timer for ADS read
_timADSReadTimer : TON;
// Release manual mode
_xReleaseManualMode : BOOL;
// Current internal set inverter power value
_diInternalPowerSetpoint : DINT;
_diSetpointActivePower : DINT;
// Current BMS control mode (Auto local, Auto remote, etc...)
// On restart star in manual mode (so the ems can not directly start the bms)
_eBMSControlMode : E_BMS_CONTROL_MODE := E_BMS_CONTROL_MODE.AUTO_LOCAL;
// UPS
_fbUPS : FB_S_UPS_BAPI;
// Safety
xSafetyRun AT %Q* : BOOL := TRUE;
xSafetyErrAck AT %Q* : BOOL;
xSafetyResterTaster AT %I* : BOOL;
// Hardware reset button
_xHarwareResetButton AT %I* : BOOL;
_xShowErrorOnButton AT %Q* : BOOL;
_tonHardwareResetButton : TON := (PT := T#1S);
_rtHardwareResetButton : R_TRIG;
_xErrorActive : BOOL;
// Battery in safety check mode
_xInSafetyCheckMode : BOOL;
// Safety
_fbSafety : FB_Safety;
// DEBUG
_xRestart : BOOL;
END_VAR
]]></Declaration>
<Implementation>
<ST><![CDATA[// ===============================
// DEBUG
IF _xRestart AND (_iState = 1010) THEN
GVL_MODBUS.stModbusEMSComm.stModbusReg12.diSetpointActivePower := 0;
_xConfirmAlarms := TRUE;
END_IF
IF _xRestart AND (_iState = 0) THEN
_xRestart := FALSE;
GVL_MODBUS.stModbusEMSComm.stModbusReg12.diSetpointActivePower := 1000;
END_IF
// DEBUG
// ===============================
_xErrorActive := FALSE;
// ===============================
// Safety
// ===============================
xSafetyErrAck := xSafetyResterTaster;
_xShowAckEmergencyStop := NOT _xEmergencyStopOk;
// ===============================
// Hardware reset button part 1
// ===============================
_tonHardwareResetButton(IN := _xHarwareResetButton);
_rtHardwareResetButton(CLK := _tonHardwareResetButton.Q);
_xConfirmAlarms := TRUE;
// ===============================
// Handle Manual mode release
// ===============================
IF _iState = 0 THEN
_xReleaseManualMode := TRUE;
ELSE
_xReleaseManualMode := FALSE;
END_IF
// ===============================
// Handle UPS events
// ===============================
_fbUPS(
sNetID:= '',
iPLCPort:= 851,
tTimeout:= DEFAULT_ADS_TIMEOUT,
eUpsMode:= eSUPS_WrPersistData_Shutdown,
ePersistentMode:= SPDM_2PASS,
tRecoverTime:= T#10S,
bPowerFailDetect=> ,
eState=> );
IF _xFirstCycle THEN
_xFirstCycle := FALSE;
_afbStrings[0].Name := 'String 1';
_afbStrings[1].Name := 'String 2';
END_IF
// Dely release of errors during PLC startup phase
_tonStartupDelay(IN := TRUE);
// Ack alarms from HMI
_xConfirmAlarms := GVL_SCADA.stAckAlarmsButton.xRequest;
IF GVL_SCADA.stAckAlarmsButton.xRequest THEN
GVL_SCADA.stAckAlarmsButton.xRequest := FALSE;
END_IF
// Call string 1
_afbStrings[0](
stStringModuleVoltageConfig := GVL_CONFIG.stString1VoltageConfig,
xEnable := _xEnableString,
xInSafetyCheckMode := _xInSafetyCheckMode,
stHMIInterface:= GVL_SCADA.stHMIInterface[0],
xEmergencyStopOk:= _xEmergencyStopOk,
xReleaseErrors:= _xReleaseErrors AND _tonStartupDelay.Q,
xReleaseLimitErrors:= _xReleaseLimitsErrors AND _tonStartupDelay.Q,
xReleaseManualMode := _xReleaseManualMode,
xConfirmAlarms:= _xConfirmAlarms,
xResetSafety := xSafetyResterTaster);
IF _afbStrings[0].xError THEN
_xErrorActive := TRUE;
END_IF
// ===============================
// Hardware reset button part 2
// ===============================
_xShowErrorOnButton := _xErrorActive;
// HMI Feedback
GVL_SCADA.stHMIInterface[0].rVoltage := _afbStrings[0].rCurrentVoltage;
IF _afbStrings[0].eStatus = E_COMPONENT_STATUS.ON THEN
IF _iState = 30 AND _rPowerInverter > 0 THEN
GVL_SCADA.stHMIInterface[0].eStatus := E_COMPONENT_STATUS.DISCHARGING;
ELSIF _iState = 30 AND _rPowerInverter < 0 THEN
GVL_SCADA.stHMIInterface[0].eStatus := E_COMPONENT_STATUS.CHARGING;
ELSE
GVL_SCADA.stHMIInterface[0].eStatus :=_afbStrings[0].eStatus;
END_IF
ELSE
GVL_SCADA.stHMIInterface[0].eStatus :=_afbStrings[0].eStatus;
END_IF
// DEACTIVATED FOR DEBUG REASONS !!!
// Call inverter
_fbInverter(
sInverterIPAddr:= GVL_CONFIG.sInverterIp,
xEnable:= _xEnableInverter,
rPower:= _rPowerInverter,
xReset:= _xConfirmAlarms,
rMaxBattPower:= DINT_TO_REAL(GVL_CONFIG.diMaxStringDischargePower),
stCurrentValues => _stInverterData);
// ===============================
// Read modbus request count
// ===============================
_timADSReadTimer(IN := NOT _fbADSReader.BUSY, PT := T#200MS);
_fbADSReader(
NETID:= '',
PORT:= 10500,
IDXGRP:= 16#2000,
IDXOFFS:= 1,
LEN:= 4,
DESTADDR:= ADR(GVL_MODBUS.stModbusEMSComm.stModbusReg11.udiLifeMessage),
READ:= _timADSReadTimer.Q,
TMOUT:= T#1S,
BUSY=> ,
ERR=> ,
ERRID=> );
// ===============================
// State machine
// ===============================
CASE _eBMSControlMode OF
E_BMS_CONTROL_MODE.AUTO_REMOTE:
_xInSafetyCheckMode := FALSE;
_rAutoPowerRequest := DINT_TO_REAL(GVL_MODBUS.stModbusEMSComm.stModbusReg12.diSetpointActivePower);
SM_AUTO();
E_BMS_CONTROL_MODE.AUTO_LOCAL:
_xInSafetyCheckMode := FALSE;
GVL_MODBUS.stModbusEMSComm.stModbusReg11.eBatteryStatus := E_BATTERY_STATUS.TESTING;
_rAutoPowerRequest := DINT_TO_REAL(GVL_SCADA.stAutomaticModeHMI.diSetpointAutomatic);
SM_AUTO();
E_BMS_CONTROL_MODE.MANUAL:
_xInSafetyCheckMode := FALSE;
GVL_MODBUS.stModbusEMSComm.stModbusReg11.eBatteryStatus := E_BATTERY_STATUS.MAINTENANCE;
SM_MANUAL();
E_BMS_CONTROL_MODE.SAFETY_CHECK:
_xInSafetyCheckMode := TRUE;
GVL_MODBUS.stModbusEMSComm.stModbusReg11.eBatteryStatus := E_BATTERY_STATUS.MAINTENANCE;
SM_SAFETY_CHECK();
E_BMS_CONTROL_MODE.CAPACITY_TEST:
_xInSafetyCheckMode := FALSE;
GVL_MODBUS.stModbusEMSComm.stModbusReg11.eBatteryStatus := E_BATTERY_STATUS.TESTING;
SM_CAPACITY_TEST();
END_CASE
GVL_SCADA.xCanChangeControlMode := _xCanChangeMode;
_fbSafety();
// Reset alarm confirmation
IF _xConfirmAlarms OR _rtHardwareResetButton.Q THEN
_xConfirmAlarms := FALSE;
END_IF]]></ST>
</Implementation>
<Action Name="SM_AUTO" Id="{b5166e16-4fea-442b-9560-02c156f9a9ad}">
<Implementation>
<ST><![CDATA[CASE _iState OF
0: // Idle
// Wait for power command
IF (ABS(_rAutoPowerRequest) > DINT_TO_REAL(GVL_CONFIG.diMinimumAbsPowerForEnable)) AND _afbStrings[0].xSafetyIntlksOk AND (NOT _afbStrings[0].xError) AND _afbStrings[0].xAllModulesInAutoMode THEN
_iState := 5;
_xCanChangeMode := FALSE;
END_IF
5: // Check if power command is within limits
IF _rAutoPowerRequest < DINT_TO_REAL(GVL_CONFIG.diMaxStringDischargePower)
AND _rAutoPowerRequest > DINT_TO_REAL(GVL_CONFIG.diMaxStringChargingPower) THEN
_xEnableString := TRUE;
_iState := 10;
ELSE
// Set error bitmap flag
GVL_MODBUS.stModbusEMSComm.stModbusReg11.lwErrorBitmap.0 := 1;
// Goto error state
_iState := 1000;
END_IF
10: // Wait for string to be ready
IF _afbStrings[0].xReady AND (NOT _afbStrings[0].xError) THEN
_rPowerInverter := 0.0;
_xEnableInverter := TRUE;
_iState := 20;
END_IF
IF _afbStrings[0].xError THEN
_xEnableInverter := FALSE;
_xEnableString := FALSE;
GVL_SCADA.stAutomaticModeHMI.diSetpointAutomatic := 0;
_iState := 45;
END_IF
IF (ABS(_rAutoPowerRequest) < DINT_TO_REAL(GVL_CONFIG.diMinimumAbsPowerForEnable)) THEN
_xEnableString := FALSE;
_iState := 45;
END_IF
20: // Wait for inverter to be ready
IF _fbInverter.xActive AND (NOT _fbInverter.xError) THEN
// Set battery status for modbus
GVL_MODBUS.stModbusEMSComm.stModbusReg11.eBatteryStatus := E_BATTERY_STATUS.ACTIVE;
GVL_MODBUS.stModbusEMSComm.stModbusReg10.uiActiveParallelMembers := 1;
_iState := 30;
END_IF
// Check for errors
IF _afbStrings[0].xError OR _fbInverter.xError THEN
_xEnableInverter := FALSE;
_xEnableString := FALSE;
GVL_SCADA.stAutomaticModeHMI.diSetpointAutomatic := 0;
_iState := 1000;
END_IF
30: // String and inverter enabled
// Set inverter power to modbus requested power
_rPowerInverter := _rAutoPowerRequest;//DINT_TO_REAL(GVL_MODBUS.stModbusEMSComm.stModbusReg12.diSetpointActivePower);
// Check if the battery should still be active
IF (_rAutoPowerRequest = 0.0) THEN
_xNoPowerRequested := TRUE;
ELSE
_xNoPowerRequested := FALSE;
END_IF
// Set battery status
IF _rAutoPowerRequest > 0 THEN
GVL_MODBUS.stModbusEMSComm.stModbusReg11.eChargeStatus := E_CHARGE_STATUS.DISCHARGING;
ELSIF _rAutoPowerRequest < 0 THEN
GVL_MODBUS.stModbusEMSComm.stModbusReg11.eChargeStatus := E_CHARGE_STATUS.CHARGING;
ELSE
GVL_MODBUS.stModbusEMSComm.stModbusReg11.eChargeStatus := E_CHARGE_STATUS.UNDEFINED;
END_IF
// Add small delay before shutdown by EMS is detected
_tonBeginShutdown(IN := _xNoPowerRequested);
// shutdown triggered from EMS
IF _tonBeginShutdown.Q THEN
_tonBeginShutdown(In := FALSE);
// Set inverter to zero power
_rPowerInverter := 0.0;
// Start string shutdown
_xEnableString := FALSE;
GVL_MODBUS.stModbusEMSComm.stModbusReg11.eChargeStatus := E_CHARGE_STATUS.UNDEFINED;
GVL_MODBUS.stModbusEMSComm.stModbusReg10.uiActiveParallelMembers := 0;
_iState := 35;
END_IF
// Shutdown triggered by battery fully charged
IF GVL_MODBUS.stModbusEMSComm.stModbusReg11.eChargeStatus = E_CHARGE_STATUS.CHARGING AND (_afbStrings[0].rCurrentVoltage >= GVL_CONFIG.rStringFullyChargedVoltage) THEN
_tonBeginShutdown(In := FALSE);
// Set inverter to zero power
_rPowerInverter := 0.0;
// Start string shutdown
_xEnableString := FALSE;
// Change battery status
GVL_MODBUS.stModbusEMSComm.stModbusReg11.eChargeStatus := E_CHARGE_STATUS.FULL;
GVL_MODBUS.stModbusEMSComm.stModbusReg10.uiActiveParallelMembers := 0;
_iState := 35;
END_IF
// Shutdown triggered by battery empty
IF GVL_MODBUS.stModbusEMSComm.stModbusReg11.eChargeStatus = E_CHARGE_STATUS.DISCHARGING AND (_afbStrings[0].rCurrentVoltage <= GVL_CONFIG.rStringEmptyVoltage) THEN
_tonBeginShutdown(In := FALSE);
// Set inverter to zero power
_rPowerInverter := 0.0;
// Start string shutdown
_xEnableString := FALSE;
// Change battery status
GVL_MODBUS.stModbusEMSComm.stModbusReg11.eChargeStatus := E_CHARGE_STATUS.EMPTY;
GVL_MODBUS.stModbusEMSComm.stModbusReg10.uiActiveParallelMembers := 0;
_iState := 35;
END_IF
// Check for errors
IF _afbStrings[0].xError OR (NOT _xString1DCSafetyOk) OR _fbInverter.xError THEN
_xEnableInverter := FALSE;
_xEnableString := FALSE;
_tonBeginShutdown(In := FALSE);
GVL_SCADA.stAutomaticModeHMI.diSetpointAutomatic := 0;
_iState := 45;
END_IF
35: // Wait for string to be in shutdown discharge mode
IF _afbStrings[0].xInShutdownDischargeMode THEN
// Check if we are allowed to discharge during shutdown with inverter
IF GVL_CONFIG.xShutdownDischargeWithInverter THEN
_iState := 40;
ELSE
_rPowerInverter := 0.0;
_xEnableInverter := FALSE;
_xEnableString := FALSE;
GVL_SCADA.stAutomaticModeHMI.diSetpointAutomatic := 0;
_iState := 45;
END_IF
END_IF
// Check for errors
IF _afbStrings[0].xError OR _fbInverter.xError THEN
_xEnableInverter := FALSE;
_iState := 1000;
END_IF
40: // Wait for inverter discharge done
IF _afbStrings[0].xShutdownDischargeAllowed THEN
_rPowerInverter := GVL_CONFIG.rAbsShutdownDischargePower;
ELSE
_rPowerInverter := 0.0;
GVL_SCADA.stAutomaticModeHMI.diSetpointAutomatic := 0;
_xEnableInverter := FALSE;
_xEnableString := FALSE;
_xCanChangeMode := TRUE;
_iState := 45;
END_IF
// Check for errors
IF _afbStrings[0].xError OR _fbInverter.xError THEN
_xEnableInverter := FALSE;
_iState := 1000;
END_IF
45: // Wait for shutdown of string to be done
IF (NOT _afbStrings[0].xInShutdownDischargeMode) AND _afbStrings[0].xOff THEN
GVL_MODBUS.stModbusEMSComm.stModbusReg11.eBatteryStatus := E_BATTERY_STATUS.OFF;
_iState := 0;
END_IF
// Restart if possible
IF (ABS(_rAutoPowerRequest) > DINT_TO_REAL(GVL_CONFIG.diMinimumAbsPowerForEnable)) AND _afbStrings[0].xSafetyIntlksOk AND (NOT _afbStrings[0].xError) AND _afbStrings[0].xAllModulesInAutoMode THEN
_iState := 5;
END_IF
// Check for errors
// IF _afbStrings[0].xError OR _fbInverter.xError THEN
// _xEnableInverter := FALSE;
// _iState := 1000;
//END_IF
1000: // Error state
_xEnableString := FALSE;
_xEnableInverter := FALSE;
_rPowerInverter := 0.0;
GVL_MODBUS.stModbusEMSComm.stModbusReg11.eBatteryStatus := E_BATTERY_STATUS.ERROR;
_iState := 1010;
1010: // Wait for reset from error state
IF (_rAutoPowerRequest = 0.0) AND (NOT _afbStrings[0].xError) AND (NOT _fbInverter.xError) THEN
// Reset modbus error register
GVL_MODBUS.stModbusEMSComm.stModbusReg11.lwErrorBitmap := 0;
// Reset modbus error flag
GVL_MODBUS.stModbusEMSComm.stModbusReg11.eBatteryStatus := E_BATTERY_STATUS.OFF;
// Goto init state
_iState := 0;
_xCanChangeMode := TRUE;
END_IF
END_CASE]]></ST>
</Implementation>
</Action>
<Action Name="SM_CAPACITY_TEST" Id="{705978cf-2798-4a38-8f24-148e2ec1d46e}">
<Implementation>
<ST><![CDATA[]]></ST>
</Implementation>
</Action>
<Action Name="SM_MANUAL" Id="{ddef276e-9f4f-4258-b863-d254dd94b701}">
<Implementation>
<ST><![CDATA[_xCanChangeMode := _afbStrings[0].xAllModulesInAutoMode;]]></ST>
</Implementation>
</Action>
<Action Name="SM_SAFETY_CHECK" Id="{6d8e5993-cf32-4980-9ea3-c1fbfa4b8601}">
<Implementation>
<ST><![CDATA[// wait for stop or error
// on stop: open dc circuit breakers and close valves
// wait for voltage to drop below xx volts
// stop pumps
CASE _iStateSafetyCheck OF
0: // Idle
// Wait for power command
IF _xStartSafetyCheck AND _afbStrings[0].xAllModulesInAutoMode THEN
_xEnableString := TRUE;
_xEnableInverter := FALSE;
_iStateSafetyCheck := 10;
_xCanChangeMode := FALSE;
END_IF
10: // Wait for string to be ready
IF _afbStrings[0].xReady AND (NOT _afbStrings[0].xError) THEN
_iStateSafetyCheck := 30;
END_IF
IF NOT _xStartSafetyCheck THEN
_xEnableString := FALSE;
_iStateSafetyCheck := 0;
END_IF
// Check for errors
IF _afbStrings[0].xError THEN
_iStateSafetyCheck := 1000;
END_IF
30: // String enabled and dc circuit breaker closed
// Check if the battery should still be active
IF (NOT _xStartSafetyCheck) THEN
// Start string shutdown
_xEnableString := FALSE;
GVL_MODBUS.stModbusEMSComm.stModbusReg11.eChargeStatus := E_CHARGE_STATUS.UNDEFINED;
GVL_MODBUS.stModbusEMSComm.stModbusReg10.uiActiveParallelMembers := 0;
_iStateSafetyCheck := 45;
_xCanChangeMode := TRUE;
END_IF
// Check for errors
IF _afbStrings[0].xError THEN
_iStateSafetyCheck := 1000;
END_IF
45: // Wait for shutdown of string to be done
IF _afbStrings[0].xOff THEN
_iStateSafetyCheck := 0;
END_IF
// Check for errors
IF _afbStrings[0].xError THEN
_iStateSafetyCheck := 1000;
END_IF
1000: // Error state
_xEnableString := FALSE;
_xEnableInverter := FALSE;
_rPowerInverter := 0.0;
_iStateSafetyCheck := 1010;
1010: // Wait for reset from error state
IF (NOT _afbStrings[0].xError) AND NOT _xStartSafetyCheck THEN
// Goto init state
_iStateSafetyCheck := 0;
_xCanChangeMode := TRUE;
END_IF
END_CASE]]></ST>
</Implementation>
</Action>
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