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76_SMAInverter.pm:hide unavailable data

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git-svn-id: https://svn.fhem.de/fhem/trunk@24672 2b470e98-0d58-463d-a4d8-8e2adae1ed80
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MadMax 2021-06-23 14:21:26 +00:00
parent 314e600324
commit bfa5222813
1 changed files with 219 additions and 160 deletions
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379
fhem/FHEM/76_SMAInverter.pm
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@ -32,7 +32,10 @@ eval "use FHEM::Meta;1" or my $modMetaAbsent = 1;
# Versions History by DS_Starter
our %SMAInverter_vNotesIntern = (
"2.15.0" => "14.06.2021 MadMax: SBS5.0-10, SBS6.0-10 read battery data included ",
"2.16.1" => "21.06.2021 MadMax: hide unavailable data",
"2.16.0" => "21.06.2021 MadMax: AC Voltage and AC Curren read fixed, read CosPhi included ",
"2.15.1" => "18.06.2021 MadMax: SBS1.5, SBS2.0, SBS2.5 read battery data included ",
"2.15.0" => "14.06.2021 MadMax: SBS5.0-10, SBS6.0-10, SBS3.7-10 read battery data included ",
"2.14.2" => "02.06.2021 new inverter type 9359=SBS6.0-10 ",
"2.14.1" => "27.02.2021 change save .etotal_yesterday, Forum: https://forum.fhem.de/index.php/topic,56080.msg1134664.html#msg1134664 ",
"2.14.0" => "08.10.2019 readings bat_loadtotal (BAT_LOADTOTAL), bat_loadtoday (BAT_LOADTODAY) included by 300P, Forum: #topic,56080.msg986302.html#msg986302",
@ -109,6 +112,9 @@ our %SMAInverter_vNotesIntern = (
# $inv_SPOT_UAC1 # Grid voltage phase L1
# $inv_SPOT_UAC2 # Grid voltage phase L2
# $inv_SPOT_UAC3 # Grid voltage phase L3
# $inv_SPOT_UAC1_2 # Grid voltage phase L1 - L2
# $inv_SPOT_UAC2_3 # Grid voltage phase L2 - L3
# $inv_SPOT_UAC3_1 # Grid voltage phase L3 - L1
# $inv_SPOT_IAC1 # Grid current phase L1
# $inv_SPOT_IAC2 # Grid current phase L2
# $inv_SPOT_IAC3 # Grid current phase L3
@ -531,6 +537,7 @@ sub SMAInverter_getstatusDoParse($) {
$sup_ChargeStatus,
$sup_SpotDCVoltage,
$sup_SpotACVoltage,
$sup_SpotACCurrent,
$sup_BatteryInfo,
$sup_BatteryInfo_2, #SBS(1.5|2.0|2.5)
$sup_BatteryInfo_TEMP,
@ -556,7 +563,9 @@ sub SMAInverter_getstatusDoParse($) {
$inv_SPOT_UDC1, $inv_SPOT_UDC2,
$inv_SPOT_IDC1, $inv_SPOT_IDC2,
$inv_SPOT_UAC1, $inv_SPOT_UAC2, $inv_SPOT_UAC3,
$inv_SPOT_UAC1_2, $inv_SPOT_UAC2_3, $inv_SPOT_UAC3_1,
$inv_SPOT_IAC1, $inv_SPOT_IAC2, $inv_SPOT_IAC3,
$inv_SPOT_CosPhi,
$inv_BAT_UDC, $inv_BAT_UDC_A, $inv_BAT_UDC_B, $inv_BAT_UDC_C,
$inv_BAT_IDC, $inv_BAT_IDC_A, $inv_BAT_IDC_B, $inv_BAT_IDC_C,
$inv_BAT_CYCLES, $inv_BAT_CYCLES_A, $inv_BAT_CYCLES_B, $inv_BAT_CYCLES_C,
@ -631,6 +640,7 @@ sub SMAInverter_getstatusDoParse($) {
# Detail Level 1 or 2 >> get voltage and current levels
push(@commands, "sup_SpotDCVoltage"); # Check SpotDCVoltage
push(@commands, "sup_SpotACVoltage"); # Check SpotACVoltage
push(@commands, "sup_SpotACCurrent"); # Check SpotACCurrent
if (ReadingsVal($name,"INV_TYPE","") =~ /SBS(6\.0|5\.0|3\.7)/xs || ReadingsVal($name,"device_type","") =~ /SBS(6\.0|5\.0|3\.7)/xs)
{
@ -694,7 +704,11 @@ sub SMAInverter_getstatusDoParse($) {
($sup_SpotDCVoltage,$inv_SPOT_UDC1,$inv_SPOT_UDC2,$inv_SPOT_IDC1,$inv_SPOT_IDC2,$inv_susyid,$inv_serial) = SMAInverter_SMAcommand($hash, $hash->{HOST}, 0x53800200, 0x00451F00, 0x004521FF);
}
elsif ($i eq "sup_SpotACVoltage") {
($sup_SpotACVoltage,$inv_SPOT_UAC1,$inv_SPOT_UAC2,$inv_SPOT_UAC3,$inv_SPOT_IAC1,$inv_SPOT_IAC2,$inv_SPOT_IAC3,$inv_susyid,$inv_serial) = SMAInverter_SMAcommand($hash, $hash->{HOST}, 0x51000200, 0x00464800, 0x004655FF);
($sup_SpotACVoltage,$inv_SPOT_UAC1,$inv_SPOT_UAC2,$inv_SPOT_UAC3,$inv_SPOT_UAC1_2,$inv_SPOT_UAC2_3,$inv_SPOT_UAC3_1,$inv_SPOT_CosPhi,$inv_susyid,$inv_serial) = SMAInverter_SMAcommand($hash, $hash->{HOST}, 0x51000200, 0x00464800, 0x004656FF);
}
elsif ($i eq "sup_SpotACCurrent") {
Log3 $name, 5, "$name -> sup_SpotACCurrent";
($sup_SpotACCurrent,$inv_SPOT_IAC1,$inv_SPOT_IAC2,$inv_SPOT_IAC3,$inv_susyid,$inv_serial) = SMAInverter_SMAcommand($hash, $hash->{HOST}, 0x51000200, 0x00465300, 0x004655FF);
}
elsif ($i eq "sup_BatteryInfo_TEMP") {
Log3 $name, 5, "$name -> sup_BatteryInfo_TEMP";
@ -826,9 +840,9 @@ sub SMAInverter_getstatusDoParse($) {
push(@row_array, "string_2_pdc ".sprintf("%.3f",$inv_SPOT_PDC2/1000)."\n");
}
if($sup_SpotACPower) {
push(@row_array, "phase_1_pac ".sprintf("%.3f",$inv_SPOT_PAC1/1000)."\n");
push(@row_array, "phase_2_pac ".sprintf("%.3f",$inv_SPOT_PAC2/1000)."\n");
push(@row_array, "phase_3_pac ".sprintf("%.3f",$inv_SPOT_PAC3/1000)."\n");
push(@row_array, "phase_1_pac ".sprintf("%.3f",$inv_SPOT_PAC1/1000)."\n") if ($inv_SPOT_PAC1 ne "-");
push(@row_array, "phase_2_pac ".sprintf("%.3f",$inv_SPOT_PAC2/1000)."\n") if ($inv_SPOT_PAC2 ne "-");
push(@row_array, "phase_3_pac ".sprintf("%.3f",$inv_SPOT_PAC3/1000)."\n") if ($inv_SPOT_PAC3 ne "-");
}
if($sup_SpotACTotalPower) {
push(@row_array, "total_pac ".sprintf("%.3f",$inv_SPOT_PACTOT/1000)."\n");
@ -858,12 +872,18 @@ sub SMAInverter_getstatusDoParse($) {
push(@row_array, "string_2_idc ".sprintf("%.3f",$inv_SPOT_IDC2)."\n");
}
if($sup_SpotACVoltage) {
push(@row_array, "phase_1_uac ".sprintf("%.2f",$inv_SPOT_UAC1)."\n");
push(@row_array, "phase_2_uac ".sprintf("%.2f",$inv_SPOT_UAC2)."\n");
push(@row_array, "phase_3_uac ".sprintf("%.2f",$inv_SPOT_UAC3)."\n");
push(@row_array, "phase_1_iac ".sprintf("%.3f",$inv_SPOT_IAC1)."\n");
push(@row_array, "phase_2_iac ".sprintf("%.3f",$inv_SPOT_IAC2)."\n");
push(@row_array, "phase_3_iac ".sprintf("%.3f",$inv_SPOT_IAC3)."\n");
push(@row_array, "phase_1_uac ".sprintf("%.2f",$inv_SPOT_UAC1)."\n") if ($inv_SPOT_UAC1 ne "-");
push(@row_array, "phase_2_uac ".sprintf("%.2f",$inv_SPOT_UAC2)."\n") if ($inv_SPOT_UAC2 ne "-");
push(@row_array, "phase_3_uac ".sprintf("%.2f",$inv_SPOT_UAC3)."\n") if ($inv_SPOT_UAC3 ne "-");
push(@row_array, "phase_1_2_uac ".sprintf("%.3f",$inv_SPOT_UAC1_2)."\n") if ($inv_SPOT_UAC1_2 ne "-");
push(@row_array, "phase_2_3_uac ".sprintf("%.3f",$inv_SPOT_UAC2_3)."\n") if ($inv_SPOT_UAC2_3 ne "-");
push(@row_array, "phase_3_1_uac ".sprintf("%.3f",$inv_SPOT_UAC3_1)."\n") if ($inv_SPOT_UAC3_1 ne "-");
push(@row_array, "cosphi ".sprintf("%.3f",$inv_SPOT_CosPhi)."\n") if ($inv_SPOT_CosPhi ne "-");
}
if($sup_SpotACCurrent) {
push(@row_array, "phase_1_iac ".sprintf("%.2f",$inv_SPOT_IAC1)."\n") if ($inv_SPOT_IAC1 ne "-");
push(@row_array, "phase_2_iac ".sprintf("%.2f",$inv_SPOT_IAC2)."\n") if ($inv_SPOT_IAC2 ne "-");
push(@row_array, "phase_3_iac ".sprintf("%.2f",$inv_SPOT_IAC3)."\n") if ($inv_SPOT_IAC3 ne "-");
}
if($sup_BatteryInfo || $sup_BatteryInfo_2) {
push(@row_array, "bat_udc ".$inv_BAT_UDC."\n");
@ -871,15 +891,15 @@ sub SMAInverter_getstatusDoParse($) {
}
if($sup_BatteryInfo_UDC) {
push(@row_array, "bat_udc ".$inv_BAT_UDC."\n");
push(@row_array, "bat_udc_a ".$inv_BAT_UDC_A."\n");
push(@row_array, "bat_udc_b ".$inv_BAT_UDC_B."\n");
push(@row_array, "bat_udc_c ".$inv_BAT_UDC_C."\n");
push(@row_array, "bat_udc_a ".$inv_BAT_UDC_A."\n") if ($inv_BAT_UDC_A ne "-");
push(@row_array, "bat_udc_b ".$inv_BAT_UDC_B."\n") if ($inv_BAT_UDC_B ne "-");
push(@row_array, "bat_udc_c ".$inv_BAT_UDC_C."\n") if ($inv_BAT_UDC_C ne "-");
}
if($sup_BatteryInfo_IDC) {
push(@row_array, "bat_udc ".$inv_BAT_UDC."\n");
push(@row_array, "bat_idc_a ".$inv_BAT_IDC_A."\n");
push(@row_array, "bat_idc_b ".$inv_BAT_IDC_B."\n");
push(@row_array, "bat_idc_c ".$inv_BAT_IDC_C."\n");
push(@row_array, "bat_idc_a ".$inv_BAT_IDC_A."\n") if ($inv_BAT_IDC_A ne "-");
push(@row_array, "bat_idc_b ".$inv_BAT_IDC_B."\n") if ($inv_BAT_IDC_B ne "-");
push(@row_array, "bat_idc_c ".$inv_BAT_IDC_C."\n") if ($inv_BAT_IDC_C ne "-");
}
if($sup_SpotBatteryLoad) {
push(@row_array, "bat_loadtotal ".($inv_BAT_LOADTOTAL/1000)."\n");
@ -897,9 +917,9 @@ sub SMAInverter_getstatusDoParse($) {
}
if($sup_BatteryInfo_TEMP) {
push(@row_array, "bat_temp ".$inv_BAT_TEMP."\n");
push(@row_array, "bat_temp_a ".$inv_BAT_TEMP_A."\n");
push(@row_array, "bat_temp_b ".$inv_BAT_TEMP_B."\n");
push(@row_array, "bat_temp_c ".$inv_BAT_TEMP_C."\n");
push(@row_array, "bat_temp_a ".$inv_BAT_TEMP_A."\n") if ($inv_BAT_TEMP_A ne "-");
push(@row_array, "bat_temp_b ".$inv_BAT_TEMP_B."\n") if ($inv_BAT_TEMP_B ne "-");
push(@row_array, "bat_temp_c ".$inv_BAT_TEMP_C."\n") if ($inv_BAT_TEMP_C ne "-");
}
if($sup_SpotGridFrequency) {
push(@row_array, "grid_freq ".sprintf("%.2f",$inv_SPOT_FREQ)."\n");
@ -945,9 +965,9 @@ sub SMAInverter_getstatusDoParse($) {
push(@row_array, "SPOT_PDC2 ".$inv_SPOT_PDC2."\n");
}
if($sup_SpotACPower) {
push(@row_array, "SPOT_PAC1 ".$inv_SPOT_PAC1."\n");
push(@row_array, "SPOT_PAC2 ".$inv_SPOT_PAC2."\n");
push(@row_array, "SPOT_PAC3 ".$inv_SPOT_PAC3."\n");
push(@row_array, "SPOT_PAC1 ".$inv_SPOT_PAC1."\n") if ($inv_SPOT_PAC1 ne "-");
push(@row_array, "SPOT_PAC2 ".$inv_SPOT_PAC2."\n") if ($inv_SPOT_PAC2 ne "-");
push(@row_array, "SPOT_PAC3 ".$inv_SPOT_PAC3."\n") if ($inv_SPOT_PAC3 ne "-");
}
if($sup_SpotACTotalPower) {
push(@row_array, "SPOT_PACTOT ".$inv_SPOT_PACTOT."\n");
@ -975,12 +995,18 @@ sub SMAInverter_getstatusDoParse($) {
push(@row_array, "SPOT_IDC2 ".$inv_SPOT_IDC2."\n");
}
if($sup_SpotACVoltage) {
push(@row_array, "SPOT_UAC1 ".$inv_SPOT_UAC1."\n");
push(@row_array, "SPOT_UAC2 ".$inv_SPOT_UAC2."\n");
push(@row_array, "SPOT_UAC3 ".$inv_SPOT_UAC3."\n");
push(@row_array, "SPOT_IAC1 ".$inv_SPOT_IAC1."\n");
push(@row_array, "SPOT_IAC2 ".$inv_SPOT_IAC2."\n");
push(@row_array, "SPOT_IAC3 ".$inv_SPOT_IAC3."\n");
push(@row_array, "SPOT_UAC1 ".$inv_SPOT_UAC1."\n") if ($inv_SPOT_UAC1 ne "-");
push(@row_array, "SPOT_UAC2 ".$inv_SPOT_UAC2."\n") if ($inv_SPOT_UAC2 ne "-");
push(@row_array, "SPOT_UAC3 ".$inv_SPOT_UAC3."\n") if ($inv_SPOT_UAC3 ne "-");
push(@row_array, "SPOT_UAC1_2 ".sprintf("%.3f",$inv_SPOT_UAC1_2)."\n") if ($inv_SPOT_UAC1_2 ne "-");
push(@row_array, "SPOT_UAC2_3 ".sprintf("%.3f",$inv_SPOT_UAC2_3)."\n") if ($inv_SPOT_UAC2_3 ne "-");
push(@row_array, "SPOT_UAC3_1 ".sprintf("%.3f",$inv_SPOT_UAC3_1)."\n") if ($inv_SPOT_UAC3_1 ne "-");
push(@row_array, "SPOT_CosPhi ".sprintf("%.3f",$inv_SPOT_CosPhi)."\n") if ($inv_SPOT_CosPhi ne "-");
}
if($sup_SpotACCurrent) {
push(@row_array, "SPOT_IAC1 ".sprintf("%.2f",$inv_SPOT_IAC1)."\n") if ($inv_SPOT_IAC1 ne "-");
push(@row_array, "SPOT_IAC2 ".sprintf("%.2f",$inv_SPOT_IAC2)."\n") if ($inv_SPOT_IAC2 ne "-");
push(@row_array, "SPOT_IAC3 ".sprintf("%.2f",$inv_SPOT_IAC3)."\n") if ($inv_SPOT_IAC3 ne "-");
}
if($sup_BatteryInfo || $sup_BatteryInfo_2) {
push(@row_array, "BAT_UDC ". $inv_BAT_UDC."\n");
@ -988,15 +1014,15 @@ sub SMAInverter_getstatusDoParse($) {
}
if($sup_BatteryInfo_UDC) {
push(@row_array, "BAT_UDC ". $inv_BAT_UDC."\n");
push(@row_array, "BAT_UDC_A ".$inv_BAT_UDC_A."\n");
push(@row_array, "BAT_UDC_B ".$inv_BAT_UDC_B."\n");
push(@row_array, "BAT_UDC_C ".$inv_BAT_UDC_C."\n");
push(@row_array, "BAT_UDC_A ".$inv_BAT_UDC_A."\n") if ($inv_BAT_UDC_A ne "-");
push(@row_array, "BAT_UDC_B ".$inv_BAT_UDC_B."\n") if ($inv_BAT_UDC_B ne "-");
push(@row_array, "BAT_UDC_C ".$inv_BAT_UDC_C."\n") if ($inv_BAT_UDC_C ne "-");
}
if($sup_BatteryInfo_IDC) {
push(@row_array, "BAT_IDC ". $inv_BAT_IDC."\n");
push(@row_array, "BAT_IDC_A ".$inv_BAT_IDC_A."\n");
push(@row_array, "BAT_IDC_B ".$inv_BAT_IDC_B."\n");
push(@row_array, "BAT_IDC_C ".$inv_BAT_IDC_C."\n");
push(@row_array, "BAT_IDC_A ".$inv_BAT_IDC_A."\n") if ($inv_BAT_IDC_A ne "-");
push(@row_array, "BAT_IDC_B ".$inv_BAT_IDC_B."\n") if ($inv_BAT_IDC_B ne "-");
push(@row_array, "BAT_IDC_C ".$inv_BAT_IDC_C."\n") if ($inv_BAT_IDC_C ne "-");
}
if($sup_SpotBatteryLoad) {
push(@row_array, "BAT_LOADTOTAL ".$inv_BAT_LOADTOTAL."\n");
@ -1014,9 +1040,9 @@ sub SMAInverter_getstatusDoParse($) {
}
if($sup_BatteryInfo_TEMP) {
push(@row_array, "BAT_TEMP ". $inv_BAT_TEMP."\n");
push(@row_array, "BAT_TEMP_A ".$inv_BAT_TEMP_A."\n");
push(@row_array, "BAT_TEMP_B ".$inv_BAT_TEMP_B."\n");
push(@row_array, "BAT_TEMP_C ".$inv_BAT_TEMP_C."\n");
push(@row_array, "BAT_TEMP_A ".$inv_BAT_TEMP_A."\n") if ($inv_BAT_TEMP_A ne "-");
push(@row_array, "BAT_TEMP_B ".$inv_BAT_TEMP_B."\n") if ($inv_BAT_TEMP_B ne "-");
push(@row_array, "BAT_TEMP_C ".$inv_BAT_TEMP_C."\n") if ($inv_BAT_TEMP_C ne "-");
}
if($sup_SpotGridFrequency) {
push(@row_array, "SPOT_FREQ ".$inv_SPOT_FREQ."\n");
@ -1179,7 +1205,9 @@ sub SMAInverter_SMAcommand($$$$$) {
$inv_SPOT_UDC1, $inv_SPOT_UDC2,
$inv_SPOT_IDC1, $inv_SPOT_IDC2,
$inv_SPOT_UAC1, $inv_SPOT_UAC2, $inv_SPOT_UAC3,
$inv_SPOT_UAC1_2, $inv_SPOT_UAC2_3, $inv_SPOT_UAC3_1,
$inv_SPOT_IAC1, $inv_SPOT_IAC2, $inv_SPOT_IAC3,
$inv_SPOT_CosPhi,
$inv_BAT_UDC, $inv_BAT_UDC_A, $inv_BAT_UDC_B, $inv_BAT_UDC_C,
$inv_BAT_IDC, $inv_BAT_IDC_A, $inv_BAT_IDC_B, $inv_BAT_IDC_C,
$inv_BAT_CYCLES, $inv_BAT_CYCLES_A, $inv_BAT_CYCLES_B, $inv_BAT_CYCLES_C,
@ -1359,11 +1387,11 @@ sub SMAInverter_SMAcommand($$$$$) {
if($data_ID eq 0x4640) {
$inv_SPOT_PAC1 = unpack("l*", substr $data, 62, 4);
if($inv_SPOT_PAC1 eq -2147483648) {$inv_SPOT_PAC1 = 0; } # Catch 0x80000000 as 0 value
if($inv_SPOT_PAC1 eq -2147483648) {$inv_SPOT_PAC1 = "-"; } # Catch 0x80000000 as 0 value
$inv_SPOT_PAC2 = unpack("l*", substr $data, 90, 4);
if($inv_SPOT_PAC2 eq -2147483648) {$inv_SPOT_PAC2 = 0; } # Catch 0x80000000 as 0 value
if($inv_SPOT_PAC2 eq -2147483648) {$inv_SPOT_PAC2 = "-"; } # Catch 0x80000000 as 0 value
$inv_SPOT_PAC3 = unpack("l*", substr $data, 118, 4);
if($inv_SPOT_PAC3 eq -2147483648) {$inv_SPOT_PAC3 = 0; } # Catch 0x80000000 as 0 value
if($inv_SPOT_PAC3 eq -2147483648) {$inv_SPOT_PAC3 = "-"; } # Catch 0x80000000 as 0 value
Log3 $name, 5, "$name - Found Data SPOT_PAC1=$inv_SPOT_PAC1 and SPOT_PAC2=$inv_SPOT_PAC2 and SPOT_PAC3=$inv_SPOT_PAC3";
return (1,$inv_SPOT_PAC1,$inv_SPOT_PAC2,$inv_SPOT_PAC3,$inv_susyid,$inv_serial);
}
@ -1421,18 +1449,41 @@ sub SMAInverter_SMAcommand($$$$$) {
$inv_SPOT_UAC1 = unpack("l*", substr $data, 62, 4);
$inv_SPOT_UAC2 = unpack("l*", substr $data, 90, 4);
$inv_SPOT_UAC3 = unpack("l*", substr $data, 118, 4);
$inv_SPOT_IAC1 = unpack("l*", substr $data, 146, 4);
$inv_SPOT_IAC2 = unpack("l*", substr $data, 174, 4);
$inv_SPOT_IAC3 = unpack("l*", substr $data, 202, 4);
if(($inv_SPOT_UAC1 eq -2147483648) || ($inv_SPOT_UAC1 eq 0xFFFFFFFF) || $inv_SPOT_UAC1 < 0) {$inv_SPOT_UAC1 = 0; } else {$inv_SPOT_UAC1 = $inv_SPOT_UAC1 / 100; } # Catch 0x80000000 and 0xFFFFFFFF as 0 value
if(($inv_SPOT_UAC2 eq -2147483648) || ($inv_SPOT_UAC2 eq 0xFFFFFFFF) || $inv_SPOT_UAC2 < 0) {$inv_SPOT_UAC2 = 0; } else {$inv_SPOT_UAC2 = $inv_SPOT_UAC2 / 100; } # Catch 0x80000000 and 0xFFFFFFFF as 0 value
if(($inv_SPOT_UAC3 eq -2147483648) || ($inv_SPOT_UAC3 eq 0xFFFFFFFF) || $inv_SPOT_UAC3 < 0) {$inv_SPOT_UAC3 = 0; } else {$inv_SPOT_UAC3 = $inv_SPOT_UAC3 / 100; } # Catch 0x80000000 and 0xFFFFFFFF as 0 value
if(($inv_SPOT_IAC1 eq -2147483648) || ($inv_SPOT_IAC1 eq 0xFFFFFFFF)) {$inv_SPOT_IAC1 = 0; } else {$inv_SPOT_IAC1 = $inv_SPOT_IAC1 / 1000; } # Catch 0x80000000 and 0xFFFFFFFF as 0 value
if(($inv_SPOT_IAC2 eq -2147483648) || ($inv_SPOT_IAC2 eq 0xFFFFFFFF)) {$inv_SPOT_IAC2 = 0; } else {$inv_SPOT_IAC2 = $inv_SPOT_IAC2 / 1000; } # Catch 0x80000000 and 0xFFFFFFFF as 0 value
if(($inv_SPOT_IAC3 eq -2147483648) || ($inv_SPOT_IAC3 eq 0xFFFFFFFF)) {$inv_SPOT_IAC3 = 0; } else {$inv_SPOT_IAC3 = $inv_SPOT_IAC3 / 1000; } # Catch 0x80000000 and 0xFFFFFFFF as 0 value
$inv_SPOT_UAC1_2 = unpack("l*", substr $data, 146, 4);
$inv_SPOT_UAC2_3 = unpack("l*", substr $data, 174, 4);
$inv_SPOT_UAC3_1 = unpack("l*", substr $data, 202, 4);
if($size >= 230) {
$inv_SPOT_CosPhi = unpack("l*", substr $data, 230, 4);
if(($inv_SPOT_CosPhi eq -2147483648) || ($inv_SPOT_CosPhi eq 0xFFFFFFFF)) {$inv_SPOT_CosPhi = "-"; } else {$inv_SPOT_CosPhi = $inv_SPOT_CosPhi / 100; }
}
else
{
$inv_SPOT_CosPhi = "-";
}
if(($inv_SPOT_UAC1 eq -2147483648) || ($inv_SPOT_UAC1 eq 0xFFFFFFFF) || $inv_SPOT_UAC1 < 0) {$inv_SPOT_UAC1 = "-"; } else {$inv_SPOT_UAC1 = $inv_SPOT_UAC1 / 100; } # Catch 0x80000000 and 0xFFFFFFFF as 0 value
if(($inv_SPOT_UAC2 eq -2147483648) || ($inv_SPOT_UAC2 eq 0xFFFFFFFF) || $inv_SPOT_UAC2 < 0) {$inv_SPOT_UAC2 = "-"; } else {$inv_SPOT_UAC2 = $inv_SPOT_UAC2 / 100; } # Catch 0x80000000 and 0xFFFFFFFF as 0 value
if(($inv_SPOT_UAC3 eq -2147483648) || ($inv_SPOT_UAC3 eq 0xFFFFFFFF) || $inv_SPOT_UAC3 < 0) {$inv_SPOT_UAC3 = "-"; } else {$inv_SPOT_UAC3 = $inv_SPOT_UAC3 / 100; } # Catch 0x80000000 and 0xFFFFFFFF as 0 value
if(($inv_SPOT_UAC1_2 eq -2147483648) || ($inv_SPOT_UAC1_2 eq 0xFFFFFFFF) || $inv_SPOT_UAC1_2 < 0) {$inv_SPOT_UAC1_2 = "-"; } else {$inv_SPOT_UAC1_2 = $inv_SPOT_UAC1_2 / 100; } # Catch 0x80000000 and 0xFFFFFFFF as 0 value
if(($inv_SPOT_UAC2_3 eq -2147483648) || ($inv_SPOT_UAC2_3 eq 0xFFFFFFFF) || $inv_SPOT_UAC2_3 < 0) {$inv_SPOT_UAC2_3 = "-"; } else {$inv_SPOT_UAC2_3 = $inv_SPOT_UAC2_3 / 100; } # Catch 0x80000000 and 0xFFFFFFFF as 0 value
if(($inv_SPOT_UAC3_1 eq -2147483648) || ($inv_SPOT_UAC3_1 eq 0xFFFFFFFF) || $inv_SPOT_UAC3_1 < 0) {$inv_SPOT_UAC3_1 = "-"; } else {$inv_SPOT_UAC3_1 = $inv_SPOT_UAC3_1 / 100; } # Catch 0x80000000 and 0xFFFFFFFF as 0 value
Log3 $name, 5, "$name - Found Data SPOT_UAC1=$inv_SPOT_UAC1 and SPOT_UAC2=$inv_SPOT_UAC2 and SPOT_UAC3=$inv_SPOT_UAC3 and SPOT_IAC1=$inv_SPOT_IAC1 and SPOT_IAC2=$inv_SPOT_IAC2 and SPOT_IAC3=$inv_SPOT_IAC3";
return (1,$inv_SPOT_UAC1,$inv_SPOT_UAC2,$inv_SPOT_UAC3,$inv_SPOT_IAC1,$inv_SPOT_IAC2,$inv_SPOT_IAC3,$inv_susyid,$inv_serial);
Log3 $name, 5, "$name - Found Data SPOT_UAC1=$inv_SPOT_UAC1 and SPOT_UAC2=$inv_SPOT_UAC2 and SPOT_UAC3=$inv_SPOT_UAC3 and inv_SPOT_UAC1_2=$inv_SPOT_UAC1_2 and inv_SPOT_UAC2_3=$inv_SPOT_UAC2_3 and inv_SPOT_UAC3_1=$inv_SPOT_UAC3_1 and inv_SPOT_CosPhi=$inv_SPOT_CosPhi";
return (1,$inv_SPOT_UAC1,$inv_SPOT_UAC2,$inv_SPOT_UAC3,$inv_SPOT_UAC1_2,$inv_SPOT_UAC2_3,$inv_SPOT_UAC3_1,$inv_SPOT_CosPhi,$inv_susyid,$inv_serial);
}
if($data_ID eq 0x4653) {
$inv_SPOT_IAC1 = unpack("l*", substr $data, 62, 4);
$inv_SPOT_IAC2 = unpack("l*", substr $data, 90, 4);
$inv_SPOT_IAC3 = unpack("l*", substr $data, 118, 4);
if(($inv_SPOT_IAC1 eq -2147483648) || ($inv_SPOT_IAC1 eq 0xFFFFFFFF) || $inv_SPOT_IAC1 < 0) {$inv_SPOT_IAC1 = "-"; } else {$inv_SPOT_IAC1 = $inv_SPOT_IAC1 / 1000; } # Catch 0x80000000 and 0xFFFFFFFF as 0 value
if(($inv_SPOT_IAC2 eq -2147483648) || ($inv_SPOT_IAC2 eq 0xFFFFFFFF) || $inv_SPOT_IAC2 < 0) {$inv_SPOT_IAC2 = "-"; } else {$inv_SPOT_IAC2 = $inv_SPOT_IAC2 / 1000; } # Catch 0x80000000 and 0xFFFFFFFF as 0 value
if(($inv_SPOT_IAC3 eq -2147483648) || ($inv_SPOT_IAC3 eq 0xFFFFFFFF) || $inv_SPOT_IAC3 < 0) {$inv_SPOT_IAC3 = "-"; } else {$inv_SPOT_IAC3 = $inv_SPOT_IAC3 / 1000; } # Catch 0x80000000 and 0xFFFFFFFF as 0 value
Log3 $name, 5, "$name - Found Data inv_SPOT_IAC1=$inv_SPOT_IAC1 and inv_SPOT_IAC2=$inv_SPOT_IAC2 and inv_SPOT_IAC3=$inv_SPOT_IAC3";
return (1,$inv_SPOT_IAC1,$inv_SPOT_IAC2,$inv_SPOT_IAC3,$inv_susyid,$inv_serial);
}
if ($data_ID eq 0x495B && (ReadingsVal($name,"INV_TYPE","") =~ /SBS(1\.5|2\.0|2\.5)/xs ||
@ -1443,7 +1494,7 @@ sub SMAInverter_SMAcommand($$$$$) {
$inv_BAT_IDC = unpack("l*", substr $data, 118, 4);
if($inv_BAT_IDC eq -2147483648) { # Catch 0x80000000 as 0 value
$inv_BAT_IDC = 0;
$inv_BAT_IDC = "-";
}
else {
$inv_BAT_IDC = $inv_BAT_IDC / 1000;
@ -1525,7 +1576,7 @@ sub SMAInverter_SMAcommand($$$$$) {
$inv_BAT_IDC = unpack("l*", substr $data, 146, 4);
if($inv_BAT_IDC eq -2147483648) { # Catch 0x80000000 as 0 value
$inv_BAT_IDC = 0;
$inv_BAT_IDC = "-";
}
else {
$inv_BAT_IDC = $inv_BAT_IDC / 1000;
@ -2116,58 +2167,62 @@ The retrieval of the inverter will be executed non-blocking. You can adjust the
<b>Readings</b>
<ul>
<li><b>BAT_CYCLES / bat_cycles</b> : Battery recharge cycles </li>
<li><b>BAT_IDC / bat_idc</b> : Battery Current </li>
<li><b>BAT_TEMP / bat_temp</b> : Battery temperature </li>
<li><b>BAT_UDC / bat_udc</b> : Battery Voltage </li>
<li><b>ChargeStatus / chargestatus</b> : Battery Charge status </li>
<li><b>BAT_LOADTODAY</b> : Battery Load Today </li>
<li><b>BAT_LOADTOTAL</b> : Battery Load Total </li>
<li><b>ChargeStatus / chargestatus</b> : Battery Charge status </li>
<li><b>CLASS / device_class</b> : Inverter Class </li>
<li><b>PACMAX1 / pac_max_phase_1</b> : Nominal power in Ok Mode </li>
<li><b>PACMAX1_2 / pac_max_phase_1_2</b> : Maximum active power device (Some inverters like SB3300/SB1200) </li>
<li><b>PACMAX2 / pac_max_phase_2</b> : Nominal power in Warning Mode </li>
<li><b>PACMAX3 / pac_max_phase_3</b> : Nominal power in Fault Mode </li>
<li><b>Serialnumber / serial_number</b> : Inverter Serialnumber </li>
<li><b>SPOT_ETODAY / etoday</b> : Today yield </li>
<li><b>SPOT_ETOTAL / etotal</b> : Total yield </li>
<li><b>SPOT_FEEDTM / feed-in_time</b> : Feed-in time </li>
<li><b>SPOT_FREQ / grid_freq </b> : Grid Frequency </li>
<li><b>SPOT_IAC1 / phase_1_iac</b> : Grid current phase L1 </li>
<li><b>SPOT_IAC2 / phase_2_iac</b> : Grid current phase L2 </li>
<li><b>SPOT_IAC3 / phase_3_iac</b> : Grid current phase L3 </li>
<li><b>SPOT_IDC1 / string_1_idc</b> : DC current input </li>
<li><b>SPOT_IDC2 / string_2_idc</b> : DC current input </li>
<li><b>SPOT_OPERTM / operation_time</b> : Operation Time </li>
<li><b>SPOT_PAC1 / phase_1_pac</b> : Power L1 </li>
<li><b>SPOT_PAC2 / phase_2_pac</b> : Power L2 </li>
<li><b>SPOT_PAC3 / phase_3_pac</b> : Power L3 </li>
<li><b>SPOT_PACTOT / total_pac</b> : Total Power </li>
<li><b>SPOT_PDC1 / string_1_pdc</b> : DC power input 1 </li>
<li><b>SPOT_PDC2 / string_2_pdc</b> : DC power input 2 </li>
<li><b>SPOT_UAC1 / phase_1_uac</b> : Grid voltage phase L1 </li>
<li><b>SPOT_UAC2 / phase_2_uac</b> : Grid voltage phase L2 </li>
<li><b>SPOT_UAC3 / phase_3_uac</b> : Grid voltage phase L3 </li>
<li><b>SPOT_UDC1 / string_1_udc</b> : DC voltage input </li>
<li><b>SPOT_UDC2 / string_2_udc</b> : DC voltage input </li>
<li><b>SUSyID / susyid</b> : Inverter SUSyID </li>
<li><b>INV_TEMP / device_temperature</b> : Inverter temperature </li>
<li><b>INV_TYPE / device_type</b> : Inverter Type </li>
<li><b>POWER_IN / power_in</b> : Battery Charging power </li>
<li><b>POWER_OUT / power_out</b> : Battery Discharging power </li>
<li><b>INV_GRIDRELAY / gridrelay_status</b> : Grid Relay/Contactor Status </li>
<li><b>INV_STATUS / device_status</b> : Inverter Status </li>
<li><b>opertime_start</b> : Begin of iverter operating time corresponding the calculated time of sunrise with consideration of the
attribute "offset" (if set) </li>
<li><b>opertime_stop</b> : End of iverter operating time corresponding the calculated time of sunrise with consideration of the
attribute "offset" (if set) </li>
<li><b>modulstate</b> : shows the current module state "normal" or "sleep" if the inverter won't be requested at the time. </li>
<li><b>avg_power_lastminutes_05</b> : average power of the last 5 minutes. </li>
<li><b>avg_power_lastminutes_10</b> : average power of the last 10 minutes. </li>
<li><b>avg_power_lastminutes_15</b> : average power of the last 15 minutes. </li>
<li><b>inverter_processing_time</b> : wasted time to retrieve the inverter data </li>
<li><b>background_processing_time</b> : total wasted time by background process (BlockingCall) </li>
<li><b>BAT_CYCLES / bat_cycles</b> : Battery recharge cycles </li>
<li><b>BAT_IDC [A,B,C] / bat_idc [A,B,C]</b> : Battery Current [A,B,C]</li>
<li><b>BAT_TEMP [A,B,C] / bat_temp [A,B,C]</b> : Battery temperature [A,B,C]</li>
<li><b>BAT_UDC [A,B,C] / bat_udc [A,B,C]</b> : Battery Voltage [A,B,C]</li>
<li><b>ChargeStatus / chargestatus</b> : Battery Charge status </li>
<li><b>BAT_LOADTODAY</b> : Battery Load Today </li>
<li><b>BAT_LOADTOTAL</b> : Battery Load Total </li>
<li><b>ChargeStatus / chargestatus</b> : Battery Charge status </li>
<li><b>CLASS / device_class</b> : Inverter Class </li>
<li><b>PACMAX1 / pac_max_phase_1</b> : Nominal power in Ok Mode </li>
<li><b>PACMAX1_2 / pac_max_phase_1_2</b> : Maximum active power device (Some inverters like SB3300/SB1200) </li>
<li><b>PACMAX2 / pac_max_phase_2</b> : Nominal power in Warning Mode </li>
<li><b>PACMAX3 / pac_max_phase_3</b> : Nominal power in Fault Mode </li>
<li><b>Serialnumber / serial_number</b> : Inverter Serialnumber </li>
<li><b>SPOT_ETODAY / etoday</b> : Today yield </li>
<li><b>SPOT_ETOTAL / etotal</b> : Total yield </li>
<li><b>SPOT_FEEDTM / feed-in_time</b> : Feed-in time </li>
<li><b>SPOT_FREQ / grid_freq </b> : Grid Frequency </li>
<li><b>SPOT_CosPhi / coshhi </b> : displacement factor </li>
<li><b>SPOT_IAC1 / phase_1_iac</b> : Grid current phase L1 </li>
<li><b>SPOT_IAC2 / phase_2_iac</b> : Grid current phase L2 </li>
<li><b>SPOT_IAC3 / phase_3_iac</b> : Grid current phase L3 </li>
<li><b>SPOT_IDC1 / string_1_idc</b> : DC current input </li>
<li><b>SPOT_IDC2 / string_2_idc</b> : DC current input </li>
<li><b>SPOT_OPERTM / operation_time</b> : Operation Time </li>
<li><b>SPOT_PAC1 / phase_1_pac</b> : Power L1 </li>
<li><b>SPOT_PAC2 / phase_2_pac</b> : Power L2 </li>
<li><b>SPOT_PAC3 / phase_3_pac</b> : Power L3 </li>
<li><b>SPOT_PACTOT / total_pac</b> : Total Power </li>
<li><b>SPOT_PDC1 / string_1_pdc</b> : DC power input 1 </li>
<li><b>SPOT_PDC2 / string_2_pdc</b> : DC power input 2 </li>
<li><b>SPOT_UAC1 / phase_1_uac</b> : Grid voltage phase L1 </li>
<li><b>SPOT_UAC2 / phase_2_uac</b> : Grid voltage phase L2 </li>
<li><b>SPOT_UAC3 / phase_3_uac</b> : Grid voltage phase L3 </li>
<li><b>SPOT_UAC1_2 / phase_1_2_uac</b> : Grid voltage phase L1-L2 </li>
<li><b>SPOT_UAC2_3 / phase_2_3_uac</b> : Grid voltage phase L2-L3 </li>
<li><b>SPOT_UAC3_1 / phase_3_1_uac</b> : Grid voltage phase L3-L1 </li>
<li><b>SPOT_UDC1 / string_1_udc</b> : DC voltage input </li>
<li><b>SPOT_UDC2 / string_2_udc</b> : DC voltage input </li>
<li><b>SUSyID / susyid</b> : Inverter SUSyID </li>
<li><b>INV_TEMP / device_temperature</b> : Inverter temperature </li>
<li><b>INV_TYPE / device_type</b> : Inverter Type </li>
<li><b>POWER_IN / power_in</b> : Battery Charging power </li>
<li><b>POWER_OUT / power_out</b> : Battery Discharging power </li>
<li><b>INV_GRIDRELAY / gridrelay_status</b> : Grid Relay/Contactor Status </li>
<li><b>INV_STATUS / device_status</b> : Inverter Status </li>
<li><b>opertime_start</b> : Begin of iverter operating time corresponding the calculated time of sunrise with consideration of the
attribute "offset" (if set) </li>
<li><b>opertime_stop</b> : End of iverter operating time corresponding the calculated time of sunrise with consideration of the
attribute "offset" (if set) </li>
<li><b>modulstate</b> : shows the current module state "normal" or "sleep" if the inverter won't be requested at the time. </li>
<li><b>avg_power_lastminutes_05</b> : average power of the last 5 minutes. </li>
<li><b>avg_power_lastminutes_10</b> : average power of the last 10 minutes. </li>
<li><b>avg_power_lastminutes_15</b> : average power of the last 15 minutes. </li>
<li><b>inverter_processing_time</b> : wasted time to retrieve the inverter data </li>
<li><b>background_processing_time</b> : total wasted time by background process (BlockingCall) </li>
</ul>
<br><br>
@ -2350,57 +2405,61 @@ Die Abfrage des Wechselrichters wird non-blocking ausgeführt. Der Timeoutwert f
<b>Readings</b>
<ul>
<li><b>BAT_CYCLES / bat_cycles</b> : Akku Ladezyklen </li>
<li><b>BAT_IDC / bat_idc</b> : Akku Strom </li>
<li><b>BAT_TEMP / bat_temp</b> : Akku Temperatur </li>
<li><b>BAT_UDC / bat_udc</b> : Akku Spannung </li>
<li><b>ChargeStatus / chargestatus</b> : Akku Ladestand </li>
<li><b>BAT_LOADTODAY</b> : Battery Load Today </li>
<li><b>BAT_LOADTOTAL</b> : Battery Load Total </li>
<li><b>CLASS / device_class</b> : Wechselrichter Klasse </li>
<li><b>PACMAX1 / pac_max_phase_1</b> : Nominelle Leistung in Ok Mode </li>
<li><b>PACMAX1_2 / pac_max_phase_1_2</b> : Maximale Leistung (für einige Wechselrichtertypen) </li>
<li><b>PACMAX2 / pac_max_phase_2</b> : Nominelle Leistung in Warning Mode </li>
<li><b>PACMAX3 / pac_max_phase_3</b> : Nominelle Leistung in Fault Mode </li>
<li><b>Serialnumber / serial_number</b> : Wechselrichter Seriennummer </li>
<li><b>SPOT_ETODAY / etoday</b> : Energie heute</li>
<li><b>SPOT_ETOTAL / etotal</b> : Energie Insgesamt </li>
<li><b>SPOT_FEEDTM / feed-in_time</b> : Einspeise-Stunden </li>
<li><b>SPOT_FREQ / grid_freq </b> : Netz Frequenz </li>
<li><b>SPOT_IAC1 / phase_1_iac</b> : Netz Strom phase L1 </li>
<li><b>SPOT_IAC2 / phase_2_iac</b> : Netz Strom phase L2 </li>
<li><b>SPOT_IAC3 / phase_3_iac</b> : Netz Strom phase L3 </li>
<li><b>SPOT_IDC1 / string_1_idc</b> : DC Strom Eingang 1 </li>
<li><b>SPOT_IDC2 / string_2_idc</b> : DC Strom Eingang 2 </li>
<li><b>SPOT_OPERTM / operation_time</b> : Betriebsstunden </li>
<li><b>SPOT_PAC1 / phase_1_pac</b> : Leistung L1 </li>
<li><b>SPOT_PAC2 / phase_2_pac</b> : Leistung L2 </li>
<li><b>SPOT_PAC3 / phase_3_pac</b> : Leistung L3 </li>
<li><b>SPOT_PACTOT / total_pac</b> : Gesamtleistung </li>
<li><b>SPOT_PDC1 / string_1_pdc</b> : DC Leistung Eingang 1 </li>
<li><b>SPOT_PDC2 / string_2_pdc</b> : DC Leistung Eingang 2 </li>
<li><b>SPOT_UAC1 / phase_1_uac</b> : Netz Spannung phase L1 </li>
<li><b>SPOT_UAC2 / phase_2_uac</b> : Netz Spannung phase L2 </li>
<li><b>SPOT_UAC3 / phase_3_uac</b> : Netz Spannung phase L3 </li>
<li><b>SPOT_UDC1 / string_1_udc</b> : DC Spannung Eingang 1 </li>
<li><b>SPOT_UDC2 / string_2_udc</b> : DC Spannung Eingang 2 </li>
<li><b>SUSyID / susyid</b> : Wechselrichter SUSyID </li>
<li><b>INV_TEMP / device_temperature</b> : Wechselrichter Temperatur </li>
<li><b>INV_TYPE / device_type</b> : Wechselrichter Typ </li>
<li><b>POWER_IN / power_in</b> : Akku Ladeleistung </li>
<li><b>POWER_OUT / power_out</b> : Akku Entladeleistung </li>
<li><b>INV_GRIDRELAY / gridrelay_status</b> : Netz Relais Status </li>
<li><b>INV_STATUS / device_status</b> : Wechselrichter Status </li>
<li><b>opertime_start</b> : Beginn Aktivzeit des Wechselrichters entsprechend des ermittelten Sonnenaufgangs mit Berücksichtigung des
Attributs "offset" (wenn gesetzt) </li>
<li><b>opertime_stop</b> : Ende Aktivzeit des Wechselrichters entsprechend des ermittelten Sonnenuntergangs mit Berücksichtigung des
Attributs "offset" (wenn gesetzt) </li>
<li><b>modulstate</b> : zeigt den aktuellen Modulstatus "normal" oder "sleep" falls der Wechselrichter nicht abgefragt wird. </li>
<li><b>avg_power_lastminutes_05</b> : durchschnittlich erzeugte Leistung der letzten 5 Minuten. </li>
<li><b>avg_power_lastminutes_10</b> : durchschnittlich erzeugte Leistung der letzten 10 Minuten. </li>
<li><b>avg_power_lastminutes_15</b> : durchschnittlich erzeugte Leistung der letzten 15 Minuten. </li>
<li><b>inverter_processing_time</b> : verbrauchte Zeit um den Wechelrichter abzufragen. </li>
<li><b>background_processing_time</b> : gesamte durch den Hintergrundprozess (BlockingCall) verbrauchte Zeit. </li>
<li><b>BAT_CYCLES / bat_cycles</b> : Akku Ladezyklen </li>
<li><b>BAT_IDC [A,B,C] / bat_idc [A,B,C]</b> : Akku Strom [A,B,C]</li>
<li><b>BAT_TEMP [A,B,C] / bat_temp [A,B,C]</b> : Akku Temperatur [A,B,C]</li>
<li><b>BAT_UDC [A,B,C] / bat_udc [A,B,C]</b> : Akku Spannung [A,B,C]</li>
<li><b>ChargeStatus / chargestatus</b> : Akku Ladestand </li>
<li><b>BAT_LOADTODAY</b> : Battery Load Today </li>
<li><b>BAT_LOADTOTAL</b> : Battery Load Total </li>
<li><b>CLASS / device_class</b> : Wechselrichter Klasse </li>
<li><b>PACMAX1 / pac_max_phase_1</b> : Nominelle Leistung in Ok Mode </li>
<li><b>PACMAX1_2 / pac_max_phase_1_2</b> : Maximale Leistung (für einige Wechselrichtertypen) </li>
<li><b>PACMAX2 / pac_max_phase_2</b> : Nominelle Leistung in Warning Mode </li>
<li><b>PACMAX3 / pac_max_phase_3</b> : Nominelle Leistung in Fault Mode </li>
<li><b>Serialnumber / serial_number</b> : Wechselrichter Seriennummer </li>
<li><b>SPOT_ETODAY / etoday</b> : Energie heute</li>
<li><b>SPOT_ETOTAL / etotal</b> : Energie Insgesamt </li>
<li><b>SPOT_FEEDTM / feed-in_time</b> : Einspeise-Stunden </li>
<li><b>SPOT_FREQ / grid_freq </b> : Netz Frequenz </li>
<li><b>SPOT_CosPhi / coshhi </b> : Verschiebungsfaktor </li>
<li><b>SPOT_IAC1 / phase_1_iac</b> : Netz Strom phase L1 </li>
<li><b>SPOT_IAC2 / phase_2_iac</b> : Netz Strom phase L2 </li>
<li><b>SPOT_IAC3 / phase_3_iac</b> : Netz Strom phase L3 </li>
<li><b>SPOT_IDC1 / string_1_idc</b> : DC Strom Eingang 1 </li>
<li><b>SPOT_IDC2 / string_2_idc</b> : DC Strom Eingang 2 </li>
<li><b>SPOT_OPERTM / operation_time</b> : Betriebsstunden </li>
<li><b>SPOT_PAC1 / phase_1_pac</b> : Leistung L1 </li>
<li><b>SPOT_PAC2 / phase_2_pac</b> : Leistung L2 </li>
<li><b>SPOT_PAC3 / phase_3_pac</b> : Leistung L3 </li>
<li><b>SPOT_PACTOT / total_pac</b> : Gesamtleistung </li>
<li><b>SPOT_PDC1 / string_1_pdc</b> : DC Leistung Eingang 1 </li>
<li><b>SPOT_PDC2 / string_2_pdc</b> : DC Leistung Eingang 2 </li>
<li><b>SPOT_UAC1 / phase_1_uac</b> : Netz Spannung phase L1 </li>
<li><b>SPOT_UAC2 / phase_2_uac</b> : Netz Spannung phase L2 </li>
<li><b>SPOT_UAC3 / phase_3_uac</b> : Netz Spannung phase L3 </li>
<li><b>SPOT_UAC1_2 / phase_1_2_uac</b> : Netz Spannung phase L1-L2 </li>
<li><b>SPOT_UAC2_3 / phase_2_3_uac</b> : Netz Spannung phase L2-L3 </li>
<li><b>SPOT_UAC3_1 / phase_3_1_uac</b> : Netz Spannung phase L3-L1 </li>
<li><b>SPOT_UDC1 / string_1_udc</b> : DC Spannung Eingang 1 </li>
<li><b>SPOT_UDC2 / string_2_udc</b> : DC Spannung Eingang 2 </li>
<li><b>SUSyID / susyid</b> : Wechselrichter SUSyID </li>
<li><b>INV_TEMP / device_temperature</b> : Wechselrichter Temperatur </li>
<li><b>INV_TYPE / device_type</b> : Wechselrichter Typ </li>
<li><b>POWER_IN / power_in</b> : Akku Ladeleistung </li>
<li><b>POWER_OUT / power_out</b> : Akku Entladeleistung </li>
<li><b>INV_GRIDRELAY / gridrelay_status</b> : Netz Relais Status </li>
<li><b>INV_STATUS / device_status</b> : Wechselrichter Status </li>
<li><b>opertime_start</b> : Beginn Aktivzeit des Wechselrichters entsprechend des ermittelten Sonnenaufgangs mit Berücksichtigung des
Attributs "offset" (wenn gesetzt) </li>
<li><b>opertime_stop</b> : Ende Aktivzeit des Wechselrichters entsprechend des ermittelten Sonnenuntergangs mit Berücksichtigung des
Attributs "offset" (wenn gesetzt) </li>
<li><b>modulstate</b> : zeigt den aktuellen Modulstatus "normal" oder "sleep" falls der Wechselrichter nicht abgefragt wird. </li>
<li><b>avg_power_lastminutes_05</b> : durchschnittlich erzeugte Leistung der letzten 5 Minuten. </li>
<li><b>avg_power_lastminutes_10</b> : durchschnittlich erzeugte Leistung der letzten 10 Minuten. </li>
<li><b>avg_power_lastminutes_15</b> : durchschnittlich erzeugte Leistung der letzten 15 Minuten. </li>
<li><b>inverter_processing_time</b> : verbrauchte Zeit um den Wechelrichter abzufragen. </li>
<li><b>background_processing_time</b> : gesamte durch den Hintergrundprozess (BlockingCall) verbrauchte Zeit. </li>
</ul>
<br><br>
@ -2421,15 +2480,15 @@ Die Abfrage des Wechselrichters wird non-blocking ausgeführt. Der Timeoutwert f
"PV",
"inverter"
],
"version": "v1.1.1",
"version": "v2.16.1",
"release_status": "stable",
"author": [
"Thomas Schoedl (sct14675)",
"Maximilian Paries",
"Heiko Maaz <heiko.maaz@t-online.de>",
null
],
"x_fhem_maintainer": [
"sct14675",
"MadMax",
"DS_Starter",
null
],