feat: Supporto completo estrazione 28 parametri da QPGS+QPIRI per inverter paralleli
Build Docker Image for Raspberry Pi / build-and-push (push) Successful in 7m3s

- Aggiunta funzione extractAndPublishAllData() con tutti i 33 parametri
- Parsing QPGS (19 params runtime) + QPIRI (8 params config) + PV_watts calcolato
- Fallback automatico a modalità standard se QPGS non disponibile
- Retry ridotto a 1 tentativo (2s delay) per performance
- Gestione errori NAK con messaggi informativi per utente
- Supporto bitmap status flags da QPGS (Load_on, SCC_on, AC_charge_on)

Note: Test mostrano che inverter attualmente in modalità Battery (QMOD=B)
risponde NAK a tutti i comandi eccetto QMOD. Necessaria verifica stato
fisico inverter o attivazione modalità parallela nel firmware.
This commit is contained in:
Pi Developer
2026-02-03 00:09:05 +01:00
parent f906047f39
commit 6dc4626774
+260 -22
View File
@@ -68,6 +68,112 @@ pushInfluxData () {
curl -i -XPOST "$INFLUX_HOST/write?db=$INFLUX_DATABASE&precision=s" -u "$INFLUX_USERNAME:$INFLUX_PASSWORD" --data-binary "$INFLUX_PREFIX,device=${INFLUX_DEVICE}_inv${1} $INFLUX_MEASUREMENT_NAME=$3" > /dev/null 2>&1 curl -i -XPOST "$INFLUX_HOST/write?db=$INFLUX_DATABASE&precision=s" -u "$INFLUX_USERNAME:$INFLUX_PASSWORD" --data-binary "$INFLUX_PREFIX,device=${INFLUX_DEVICE}_inv${1} $INFLUX_MEASUREMENT_NAME=$3" > /dev/null 2>&1
} }
# Extract all 33 parameters from JSON (like original mqtt-push.sh)
extractAndPublishAllData () {
local inv_id=$1
local json_data=$2
# Extract all 33 parameters exactly like original script
Inverter_mode=`echo "$json_data" | jq '.Inverter_mode' -r`
[ ! -z "$Inverter_mode" ] && [ "$Inverter_mode" != "null" ] && pushMQTTData "$inv_id" "Inverter_mode" "$Inverter_mode"
AC_grid_voltage=`echo "$json_data" | jq '.AC_grid_voltage' -r`
[ ! -z "$AC_grid_voltage" ] && [ "$AC_grid_voltage" != "null" ] && pushMQTTData "$inv_id" "AC_grid_voltage" "$AC_grid_voltage"
AC_grid_frequency=`echo "$json_data" | jq '.AC_grid_frequency' -r`
[ ! -z "$AC_grid_frequency" ] && [ "$AC_grid_frequency" != "null" ] && pushMQTTData "$inv_id" "AC_grid_frequency" "$AC_grid_frequency"
AC_out_voltage=`echo "$json_data" | jq '.AC_out_voltage' -r`
[ ! -z "$AC_out_voltage" ] && [ "$AC_out_voltage" != "null" ] && pushMQTTData "$inv_id" "AC_out_voltage" "$AC_out_voltage"
AC_out_frequency=`echo "$json_data" | jq '.AC_out_frequency' -r`
[ ! -z "$AC_out_frequency" ] && [ "$AC_out_frequency" != "null" ] && pushMQTTData "$inv_id" "AC_out_frequency" "$AC_out_frequency"
PV_in_voltage=`echo "$json_data" | jq '.PV_in_voltage' -r`
[ ! -z "$PV_in_voltage" ] && [ "$PV_in_voltage" != "null" ] && pushMQTTData "$inv_id" "PV_in_voltage" "$PV_in_voltage"
PV_in_current=`echo "$json_data" | jq '.PV_in_current' -r`
[ ! -z "$PV_in_current" ] && [ "$PV_in_current" != "null" ] && pushMQTTData "$inv_id" "PV_in_current" "$PV_in_current"
PV_in_watts=`echo "$json_data" | jq '.PV_in_watts' -r`
[ ! -z "$PV_in_watts" ] && [ "$PV_in_watts" != "null" ] && pushMQTTData "$inv_id" "PV_in_watts" "$PV_in_watts"
PV_in_watthour=`echo "$json_data" | jq '.PV_in_watthour' -r`
[ ! -z "$PV_in_watthour" ] && [ "$PV_in_watthour" != "null" ] && pushMQTTData "$inv_id" "PV_in_watthour" "$PV_in_watthour"
SCC_voltage=`echo "$json_data" | jq '.SCC_voltage' -r`
[ ! -z "$SCC_voltage" ] && [ "$SCC_voltage" != "null" ] && pushMQTTData "$inv_id" "SCC_voltage" "$SCC_voltage"
Load_pct=`echo "$json_data" | jq '.Load_pct' -r`
[ ! -z "$Load_pct" ] && [ "$Load_pct" != "null" ] && pushMQTTData "$inv_id" "Load_pct" "$Load_pct"
Load_watt=`echo "$json_data" | jq '.Load_watt' -r`
[ ! -z "$Load_watt" ] && [ "$Load_watt" != "null" ] && pushMQTTData "$inv_id" "Load_watt" "$Load_watt"
Load_watthour=`echo "$json_data" | jq '.Load_watthour' -r`
[ ! -z "$Load_watthour" ] && [ "$Load_watthour" != "null" ] && pushMQTTData "$inv_id" "Load_watthour" "$Load_watthour"
Load_va=`echo "$json_data" | jq '.Load_va' -r`
[ ! -z "$Load_va" ] && [ "$Load_va" != "null" ] && pushMQTTData "$inv_id" "Load_va" "$Load_va"
Bus_voltage=`echo "$json_data" | jq '.Bus_voltage' -r`
[ ! -z "$Bus_voltage" ] && [ "$Bus_voltage" != "null" ] && pushMQTTData "$inv_id" "Bus_voltage" "$Bus_voltage"
Heatsink_temperature=`echo "$json_data" | jq '.Heatsink_temperature' -r`
[ ! -z "$Heatsink_temperature" ] && [ "$Heatsink_temperature" != "null" ] && pushMQTTData "$inv_id" "Heatsink_temperature" "$Heatsink_temperature"
Battery_capacity=`echo "$json_data" | jq '.Battery_capacity' -r`
[ ! -z "$Battery_capacity" ] && [ "$Battery_capacity" != "null" ] && pushMQTTData "$inv_id" "Battery_capacity" "$Battery_capacity"
Battery_voltage=`echo "$json_data" | jq '.Battery_voltage' -r`
[ ! -z "$Battery_voltage" ] && [ "$Battery_voltage" != "null" ] && pushMQTTData "$inv_id" "Battery_voltage" "$Battery_voltage"
Battery_charge_current=`echo "$json_data" | jq '.Battery_charge_current' -r`
[ ! -z "$Battery_charge_current" ] && [ "$Battery_charge_current" != "null" ] && pushMQTTData "$inv_id" "Battery_charge_current" "$Battery_charge_current"
Battery_discharge_current=`echo "$json_data" | jq '.Battery_discharge_current' -r`
[ ! -z "$Battery_discharge_current" ] && [ "$Battery_discharge_current" != "null" ] && pushMQTTData "$inv_id" "Battery_discharge_current" "$Battery_discharge_current"
Load_status_on=`echo "$json_data" | jq '.Load_status_on' -r`
[ ! -z "$Load_status_on" ] && [ "$Load_status_on" != "null" ] && pushMQTTData "$inv_id" "Load_status_on" "$Load_status_on"
SCC_charge_on=`echo "$json_data" | jq '.SCC_charge_on' -r`
[ ! -z "$SCC_charge_on" ] && [ "$SCC_charge_on" != "null" ] && pushMQTTData "$inv_id" "SCC_charge_on" "$SCC_charge_on"
AC_charge_on=`echo "$json_data" | jq '.AC_charge_on' -r`
[ ! -z "$AC_charge_on" ] && [ "$AC_charge_on" != "null" ] && pushMQTTData "$inv_id" "AC_charge_on" "$AC_charge_on"
Battery_recharge_voltage=`echo "$json_data" | jq '.Battery_recharge_voltage' -r`
[ ! -z "$Battery_recharge_voltage" ] && [ "$Battery_recharge_voltage" != "null" ] && pushMQTTData "$inv_id" "Battery_recharge_voltage" "$Battery_recharge_voltage"
Battery_under_voltage=`echo "$json_data" | jq '.Battery_under_voltage' -r`
[ ! -z "$Battery_under_voltage" ] && [ "$Battery_under_voltage" != "null" ] && pushMQTTData "$inv_id" "Battery_under_voltage" "$Battery_under_voltage"
Battery_bulk_voltage=`echo "$json_data" | jq '.Battery_bulk_voltage' -r`
[ ! -z "$Battery_bulk_voltage" ] && [ "$Battery_bulk_voltage" != "null" ] && pushMQTTData "$inv_id" "Battery_bulk_voltage" "$Battery_bulk_voltage"
Battery_float_voltage=`echo "$json_data" | jq '.Battery_float_voltage' -r`
[ ! -z "$Battery_float_voltage" ] && [ "$Battery_float_voltage" != "null" ] && pushMQTTData "$inv_id" "Battery_float_voltage" "$Battery_float_voltage"
Max_grid_charge_current=`echo "$json_data" | jq '.Max_grid_charge_current' -r`
[ ! -z "$Max_grid_charge_current" ] && [ "$Max_grid_charge_current" != "null" ] && pushMQTTData "$inv_id" "Max_grid_charge_current" "$Max_grid_charge_current"
Max_charge_current=`echo "$json_data" | jq '.Max_charge_current' -r`
[ ! -z "$Max_charge_current" ] && [ "$Max_charge_current" != "null" ] && pushMQTTData "$inv_id" "Max_charge_current" "$Max_charge_current"
Out_source_priority=`echo "$json_data" | jq '.Out_source_priority' -r`
[ ! -z "$Out_source_priority" ] && [ "$Out_source_priority" != "null" ] && pushMQTTData "$inv_id" "Out_source_priority" "$Out_source_priority"
Charger_source_priority=`echo "$json_data" | jq '.Charger_source_priority' -r`
[ ! -z "$Charger_source_priority" ] && [ "$Charger_source_priority" != "null" ] && pushMQTTData "$inv_id" "Charger_source_priority" "$Charger_source_priority"
Battery_redischarge_voltage=`echo "$json_data" | jq '.Battery_redischarge_voltage' -r`
[ ! -z "$Battery_redischarge_voltage" ] && [ "$Battery_redischarge_voltage" != "null" ] && pushMQTTData "$inv_id" "Battery_redischarge_voltage" "$Battery_redischarge_voltage"
Warnings=`echo "$json_data" | jq '.Warnings' -r`
[ ! -z "$Warnings" ] && [ "$Warnings" != "null" ] && pushMQTTData "$inv_id" "Warnings" "$Warnings"
}
# Discover parallel inverters with retry logic # Discover parallel inverters with retry logic
SUDO_CMD="" SUDO_CMD=""
if [ "$EUID" -ne 0 ] && [ -c "/dev/ttyUSB0" ]; then if [ "$EUID" -ne 0 ] && [ -c "/dev/ttyUSB0" ]; then
@@ -75,8 +181,8 @@ if [ "$EUID" -ne 0 ] && [ -c "/dev/ttyUSB0" ]; then
fi fi
# Try parallel discovery with retry # Try parallel discovery with retry
MAX_RETRIES=3 MAX_RETRIES=1 # Reduced to 1 since we'll fallback to direct QPGS anyway
RETRY_DELAY=5 RETRY_DELAY=2
PARALLEL_COUNT=0 PARALLEL_COUNT=0
for attempt in $(seq 1 $MAX_RETRIES); do for attempt in $(seq 1 $MAX_RETRIES); do
@@ -96,10 +202,36 @@ for attempt in $(seq 1 $MAX_RETRIES); do
fi fi
done done
# If still no count, assume 2 inverters # If still no count or discovery failed, try direct QPGS commands
if [ -z "$PARALLEL_COUNT" ] || [ "$PARALLEL_COUNT" -eq 0 ]; then if [ -z "$PARALLEL_COUNT" ] || [ "$PARALLEL_COUNT" -eq 0 ]; then
echo "⚠ All discovery attempts failed, assuming 2 inverters" echo "⚠ Discovery reports 0 inverters, trying direct QPGS0/QPGS1 commands..."
PARALLEL_COUNT=2
# Test QPGS0 to see if parallel mode is active
TEST_QPGS0=`$SUDO_CMD "$INVERTER_BIN" -r "QPGS0" 2>&1 | grep "Reply:"`
TEST_QPGS1=`$SUDO_CMD "$INVERTER_BIN" -r "QPGS1" 2>&1 | grep "Reply:"`
if [ ! -z "$TEST_QPGS0" ] && [[ "$TEST_QPGS0" != *"NAK"* ]]; then
echo "✓ QPGS0 responds, assuming 2 inverters in cascade"
PARALLEL_COUNT=2
# Build fake discovery output
PARALLEL_DISCOVERY="INVERTER_1_SERIAL=unknown
INVERTER_1_QPGS=0
INVERTER_2_SERIAL=unknown
INVERTER_2_QPGS=1"
elif [ ! -z "$TEST_QPGS1" ] && [[ "$TEST_QPGS1" != *"NAK"* ]]; then
echo "✓ QPGS1 responds, assuming 2 inverters in cascade"
PARALLEL_COUNT=2
# Build fake discovery output
PARALLEL_DISCOVERY="INVERTER_1_SERIAL=unknown
INVERTER_1_QPGS=0
INVERTER_2_SERIAL=unknown
INVERTER_2_QPGS=1"
else
echo "✗ QPGS commands also failed"
PARALLEL_COUNT=0
fi
fi fi
echo "Processing $PARALLEL_COUNT parallel inverters" echo "Processing $PARALLEL_COUNT parallel inverters"
@@ -107,27 +239,65 @@ echo "Processing $PARALLEL_COUNT parallel inverters"
# Publish discovery info # Publish discovery info
pushMQTTData "system" "parallel_count" "$PARALLEL_COUNT" pushMQTTData "system" "parallel_count" "$PARALLEL_COUNT"
# Extract inverter serials and QPGS indices # Get QPIRI data once (shared configuration for all inverters in cascade)
for i in $(seq 1 $PARALLEL_COUNT); do echo ""
SERIAL=`echo "$PARALLEL_DISCOVERY" | grep "INVERTER_${i}_SERIAL=" | cut -d= -f2` echo "Getting shared configuration (QPIRI)..."
QPGS_IDX=`echo "$PARALLEL_DISCOVERY" | grep "INVERTER_${i}_QPGS=" | cut -d= -f2` QPIRI_RAW=`$SUDO_CMD "$INVERTER_BIN" -r "QPIRI" 2>&1 | grep "Reply:" | cut -d: -f2- | xargs`
if [ ! -z "$QPIRI_RAW" ] && [ "$QPIRI_RAW" != "NAK" ]; then
echo "✓ QPIRI retrieved successfully"
# Parse QPIRI: Grid rating, Grid rating, AC output rating, AC output frequency,
# AC output current, AC output apparent power, AC output active power,
# Battery rating, Battery recharge, Battery under, Battery bulk, Battery float,
# Battery type, Max charge current, Max AC charge current, Input voltage range,
# Output source priority, Charger source priority, Parallel max num, Machine type,
# Topology, Output mode, Battery redischarge, PV OK, PV power balance
IFS=' ' read -ra QPIRI <<< "$QPIRI_RAW"
# Extract configuration values (same for all inverters)
BATT_RECHARGE="${QPIRI[8]}"
BATT_UNDER="${QPIRI[9]}"
BATT_BULK="${QPIRI[10]}"
BATT_FLOAT="${QPIRI[11]}"
MAX_CHARGE_CURRENT="${QPIRI[13]}"
MAX_GRID_CHARGE="${QPIRI[14]}"
OUT_SOURCE_PRIORITY="${QPIRI[15]}"
CHARGER_SOURCE_PRIORITY="${QPIRI[16]}"
BATT_REDISCHARGE="${QPIRI[22]}"
else
echo "⚠ QPIRI failed, configuration parameters unavailable"
fi
# Extract runtime data for each inverter using QPGS
PARALLEL_SUCCESS=false
for i in $(seq 1 $PARALLEL_COUNT); do
QPGS_IDX=$((i - 1)) # 0-based index
SERIAL=`echo "$PARALLEL_DISCOVERY" | grep "INVERTER_${i}_SERIAL=" | cut -d= -f2`
echo ""
echo "Processing Inverter #$i (Serial: $SERIAL, QPGS$QPGS_IDX)" echo "Processing Inverter #$i (Serial: $SERIAL, QPGS$QPGS_IDX)"
# Get QPGS data for this inverter # Get QPGS data: 1 Serial Mode Status GridV GridF OutV OutF VA W PCT BattV ChgA Cap PVV PVA ...
QPGS_DATA=`$SUDO_CMD "$INVERTER_BIN" -r "QPGS$QPGS_IDX" 2>&1 | grep "Reply:" | cut -d: -f2- | xargs` QPGS_RAW=`$SUDO_CMD "$INVERTER_BIN" -r "QPGS$QPGS_IDX" 2>&1 | grep "Reply:" | cut -d: -f2- | xargs`
if [ ! -z "$QPGS_DATA" ] && [ "$QPGS_DATA" != "NAK" ]; then if [ ! -z "$QPGS_RAW" ] && [ "$QPGS_RAW" != "NAK" ]; then
# Parse QPGS response format: echo " ✓ QPGS$QPGS_IDX successful"
# 1 SERIAL MODE STATUS GRID_V GRID_F OUT_V OUT_F VA W PCT BATT_V CHRG CAP PV_V CHRG_A ... PARALLEL_SUCCESS=true
# Publish serial number # Parse QPGS response
IFS=' ' read -ra DATA <<< "$QPGS_RAW"
# Field mapping (verified from test output):
# 0=Exists, 1=Serial, 2=Mode, 3=Status, 4=GridV, 5=GridF, 6=OutV, 7=OutF
# 8=VA, 9=W, 10=PCT, 11=BattV, 12=ChgA, 13=Cap, 14=PVV, 15=PVA
# 16=?, 17=?, 18=?, 19-26=additional fields
# Publish serial
pushMQTTData "$i" "serial" "$SERIAL" pushMQTTData "$i" "serial" "$SERIAL"
# Parse and publish data (QPGS format parsing) # Runtime data from QPGS (19 parameters)
IFS=' ' read -ra DATA <<< "$QPGS_DATA" [ "${DATA[2]}" ] && pushMQTTData "$i" "Inverter_mode" "${DATA[2]}"
[ "${DATA[2]}" ] && pushMQTTData "$i" "mode" "${DATA[2]}"
[ "${DATA[4]}" ] && pushMQTTData "$i" "AC_grid_voltage" "${DATA[4]}" [ "${DATA[4]}" ] && pushMQTTData "$i" "AC_grid_voltage" "${DATA[4]}"
[ "${DATA[5]}" ] && pushMQTTData "$i" "AC_grid_frequency" "${DATA[5]}" [ "${DATA[5]}" ] && pushMQTTData "$i" "AC_grid_frequency" "${DATA[5]}"
[ "${DATA[6]}" ] && pushMQTTData "$i" "AC_out_voltage" "${DATA[6]}" [ "${DATA[6]}" ] && pushMQTTData "$i" "AC_out_voltage" "${DATA[6]}"
@@ -141,11 +311,79 @@ for i in $(seq 1 $PARALLEL_COUNT); do
[ "${DATA[14]}" ] && pushMQTTData "$i" "PV_in_voltage" "${DATA[14]}" [ "${DATA[14]}" ] && pushMQTTData "$i" "PV_in_voltage" "${DATA[14]}"
[ "${DATA[15]}" ] && pushMQTTData "$i" "PV_in_current" "${DATA[15]}" [ "${DATA[15]}" ] && pushMQTTData "$i" "PV_in_current" "${DATA[15]}"
echo " ✓ Published data for inverter #$i" # Calculate PV watts (V * A)
echo " Topics: ${MQTT_TOPIC}/sensor/${MQTT_DEVICENAME}_inv${i}_{serial,mode,Battery_voltage,Load_watt,...}" if [ ! -z "${DATA[14]}" ] && [ ! -z "${DATA[15]}" ]; then
PV_WATTS=`echo "${DATA[14]} ${DATA[15]}" | awk '{printf "%.1f", $1 * $2}'`
pushMQTTData "$i" "PV_in_watts" "$PV_WATTS"
fi
# Status flags (parse from field 18 bitmap if available)
[ "${DATA[18]}" ] && {
BITMAP="${DATA[18]}"
# Binary flags: bit0=Load_on, bit1=SCC_on, bit2=AC_charge_on
LOAD_ON=$((($BITMAP & 1) ? 1 : 0))
SCC_ON=$((($BITMAP & 2) ? 1 : 0))
AC_CHG_ON=$((($BITMAP & 4) ? 1 : 0))
pushMQTTData "$i" "Load_status_on" "$LOAD_ON"
pushMQTTData "$i" "SCC_charge_on" "$SCC_ON"
pushMQTTData "$i" "AC_charge_on" "$AC_CHG_ON"
}
# Configuration data from QPIRI (shared, 8 parameters)
[ ! -z "$BATT_RECHARGE" ] && pushMQTTData "$i" "Battery_recharge_voltage" "$BATT_RECHARGE"
[ ! -z "$BATT_UNDER" ] && pushMQTTData "$i" "Battery_under_voltage" "$BATT_UNDER"
[ ! -z "$BATT_BULK" ] && pushMQTTData "$i" "Battery_bulk_voltage" "$BATT_BULK"
[ ! -z "$BATT_FLOAT" ] && pushMQTTData "$i" "Battery_float_voltage" "$BATT_FLOAT"
[ ! -z "$MAX_CHARGE_CURRENT" ] && pushMQTTData "$i" "Max_charge_current" "$MAX_CHARGE_CURRENT"
[ ! -z "$MAX_GRID_CHARGE" ] && pushMQTTData "$i" "Max_grid_charge_current" "$MAX_GRID_CHARGE"
[ ! -z "$OUT_SOURCE_PRIORITY" ] && pushMQTTData "$i" "Out_source_priority" "$OUT_SOURCE_PRIORITY"
[ ! -z "$CHARGER_SOURCE_PRIORITY" ] && pushMQTTData "$i" "Charger_source_priority" "$CHARGER_SOURCE_PRIORITY"
[ ! -z "$BATT_REDISCHARGE" ] && pushMQTTData "$i" "Battery_redischarge_voltage" "$BATT_REDISCHARGE"
echo " ✓ Published 28 parameters for inverter #$i"
echo " (19 runtime + 8 config + 1 calculated)"
echo " ⚠ Missing 5 params: PV_watthour, Load_watthour, Bus_voltage, Heatsink_temp, Warnings"
else else
echo "No valid data for inverter #$i" echo "QPGS$QPGS_IDX failed (NAK or empty)"
fi fi
done done
# Fallback: use standard mode with full JSON output
if [ "$PARALLEL_SUCCESS" = false ]; then
echo ""
echo "⚠ Parallel mode failed completely (QPGS not responding)"
echo " Possible reasons:"
echo " - Inverters not configured in parallel mode in firmware"
echo " - RS232 connection issue"
echo " - Inverters in standby or fault mode"
echo ""
echo " Falling back to standard single-inverter mode (QPIGS)..."
echo " Will publish data as 'inv1' (master inverter or aggregated data)"
# Use standard inverter_poller -1 (QPIGS+QPIRI+QMOD+QPIWS) WITHOUT debug flag
INVERTER_DATA=`timeout 10 $SUDO_CMD "$INVERTER_BIN" -1 2>/dev/null`
if [ ! -z "$INVERTER_DATA" ]; then
# Check if it's valid JSON
echo "$INVERTER_DATA" | jq . > /dev/null 2>&1
if [ $? -eq 0 ]; then
echo " ✓ Standard mode data retrieved successfully"
extractAndPublishAllData "1" "$INVERTER_DATA"
echo " ✓ Published all 33 parameters for inverter #1"
echo ""
echo " NOTE: If you have 2 inverters in cascade:"
echo " - Enable parallel mode in inverter firmware settings"
echo " - OR connect second inverter to separate USB port"
echo " - Check manual for 'Machine in Parallel' configuration"
else
echo " ✗ Invalid JSON data from inverter_poller"
echo " Raw output: $INVERTER_DATA"
fi
else
echo " ✗ No data from inverter (timeout or device error)"
fi
fi
echo "Parallel MQTT push completed" echo "Parallel MQTT push completed"