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76_SolarForecast: contrib V1.57.3

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git-svn-id: https://svn.fhem.de/fhem/trunk@30217 2b470e98-0d58-463d-a4d8-8e2adae1ed80
This commit is contained in:
DS_Starter
2025-08-25 20:42:49 +00:00
parent fcab6bad04
commit 8eef75f26e
1 changed files with 291 additions and 203 deletions
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464
fhem/contrib/DS_Starter/76_SolarForecast.pm
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@@ -160,8 +160,10 @@ BEGIN {
# Versions History intern # Versions History intern
my %vNotesIntern = ( my %vNotesIntern = (
"1.57.3" => "24.08.2025 set default Performance Ratio PRDEF to 0.9, prevent crash when Victron API does not return an Array ". "1.57.3" => "25.08.2025 set default Performance Ratio PRDEF to 0.9, prevent crash when Victron API does not return an Array ".
"check global attribute dnsServer in all SF Models, expand plantControl->genPVdeviation for perspective change ", "check global attribute dnsServer in all SF Models, expand plantControl->genPVdeviation for perspective change ".
"Household consumption calculation uniformly converted to vector calculation ".
"new ctrlSpecialReadings->dummyConsumption ",
"1.57.2" => "15.08.2025 _attrconsumer: The validity of the components of the key etotal is checked ". "1.57.2" => "15.08.2025 _attrconsumer: The validity of the components of the key etotal is checked ".
"_transferMeterValues: modul accept meter reset > 0 at day start ", "_transferMeterValues: modul accept meter reset > 0 at day start ",
"1.57.1" => "10.08.2025 fix warning, Forum: https://forum.fhem.de/index.php?msg=1346055 ", "1.57.1" => "10.08.2025 fix warning, Forum: https://forum.fhem.de/index.php?msg=1346055 ",
@@ -196,7 +198,7 @@ my %vNotesIntern = (
"1.53.0" => "28.06.2025 new battery style (batcontainer), new key setupBatteryDevXX->label, new reading Battery_ChargeUnrestricted_XX ". "1.53.0" => "28.06.2025 new battery style (batcontainer), new key setupBatteryDevXX->label, new reading Battery_ChargeUnrestricted_XX ".
"attribute graphicShowDiff replaced by graphicControl->showDiff ". "attribute graphicShowDiff replaced by graphicControl->showDiff ".
"check local coordinates are set in global device and fill message system if failure ". "check local coordinates are set in global device and fill message system if failure ".
"consumer Attr key noshow new possible value '9', _beamGraphic: scaleMode log double reduce Discount of z3 ". "consumer Attr key noshow new possible value '9', _beamGraphic: scaleMode log double reduce Discount of z3 ".
"new key plantControl->reductionState, _calcDataEveryFullHour and subs: changeover aln to pvrlvd ". "new key plantControl->reductionState, _calcDataEveryFullHour and subs: changeover aln to pvrlvd ".
"_getaiDecTree: reduce character size of aiRawData, set ... reset: pvCorrection deletes hidden readings too ", "_getaiDecTree: reduce character size of aiRawData, set ... reset: pvCorrection deletes hidden readings too ",
"1.52.18"=> "23.06.2025 ctrlSpecialReadings: new option conForecastComingNight, fix last hour of remainingSurplsHrsMinPwrBat_ ". "1.52.18"=> "23.06.2025 ctrlSpecialReadings: new option conForecastComingNight, fix last hour of remainingSurplsHrsMinPwrBat_ ".
@@ -972,10 +974,10 @@ my %hqtxt = ( # H
DE => qq{produziert wie vorhergesagt 😊} }, DE => qq{produziert wie vorhergesagt 😊} },
pltp => { EN => qq{produced less than predicted 😓}, pltp => { EN => qq{produced less than predicted 😓},
DE => qq{weniger produziert als vorhergesagt 😓} }, DE => qq{weniger produziert als vorhergesagt 😓} },
wusond => { EN => qq{wait until sunset}, wusond => { EN => qq{waiting for data ...},
DE => qq{bis zum Sonnenuntergang warten} }, DE => qq{warte auf Daten ...} },
snbefb => { EN => qq{Should not be empty. Maybe the device has just been redefined.}, snbefb => { EN => qq{the data will be available tomorrow},
DE => qq{Sollte nicht leer sein. Vielleicht wurde das Device erst neu definiert.} }, DE => qq{die Daten werden morgen verfügbar sein} },
scnp => { EN => qq{Scheduling of the consumer is not provided}, scnp => { EN => qq{Scheduling of the consumer is not provided},
DE => qq{Die Einplanung des Verbrauchers ist nicht vorgesehen} }, DE => qq{Die Einplanung des Verbrauchers ist nicht vorgesehen} },
vrmcr => { EN => qq{Please set the Victron VRM Portal credentials with "set LINK vrmCredentials".}, vrmcr => { EN => qq{Please set the Victron VRM Portal credentials with "set LINK vrmCredentials".},
@@ -1133,8 +1135,8 @@ my %htitles = (
DE => qq{nicht bewertet} }, DE => qq{nicht bewertet} },
aimstt => { EN => qq{Perl module AI::DecisionTree is missing}, aimstt => { EN => qq{Perl module AI::DecisionTree is missing},
DE => qq{Perl Modul AI::DecisionTree ist nicht vorhanden} }, DE => qq{Perl Modul AI::DecisionTree ist nicht vorhanden} },
dumtxt => { EN => qq{Consumption that cannot be allocated to registered consumers}, dumtxt => { EN => qq{unassignable consumption (takes into account any hidden consumers)},
DE => qq{Verbrauch der den registrierten Verbrauchern nicht zugeordnet werden kann} }, DE => qq{nicht zuordenbarer Verbrauch (berücksichtigt evtl. versteckte Verbraucher)} },
rdcactiv => { EN => qq{Plant derating active}, rdcactiv => { EN => qq{Plant derating active},
DE => qq{Anlagenabregelung aktiv} }, DE => qq{Anlagenabregelung aktiv} },
rdcnoact => { EN => qq{no Plant derating}, rdcnoact => { EN => qq{no Plant derating},
@@ -1383,6 +1385,7 @@ my %hcsr = (
runTimeLastAPIAnswer => { fnr => 2, fn => \&CurrentVal, par => '', par1 => '', unit => '', def => '-' }, runTimeLastAPIAnswer => { fnr => 2, fn => \&CurrentVal, par => '', par1 => '', unit => '', def => '-' },
runTimeLastAPIProc => { fnr => 2, fn => \&CurrentVal, par => '', par1 => '', unit => '', def => '-' }, runTimeLastAPIProc => { fnr => 2, fn => \&CurrentVal, par => '', par1 => '', unit => '', def => '-' },
allStringsFullfilled => { fnr => 2, fn => \&CurrentVal, par => '', par1 => '', unit => '', def => 0 }, allStringsFullfilled => { fnr => 2, fn => \&CurrentVal, par => '', par1 => '', unit => '', def => 0 },
dummyConsumption => { fnr => 2, fn => \&CurrentVal, par => 'dummyConsumption', par1 => '', unit => ' W', def => 0 },
todayConForecastTillSunset => { fnr => 2, fn => \&CurrentVal, par => 'tdConFcTillSunset', par1 => '', unit => ' Wh', def => 0 }, todayConForecastTillSunset => { fnr => 2, fn => \&CurrentVal, par => 'tdConFcTillSunset', par1 => '', unit => ' Wh', def => 0 },
runTimeTrainAI => { fnr => 3, fn => \&CircularVal, par => 99, par1 => '', unit => ' s', def => '-' }, runTimeTrainAI => { fnr => 3, fn => \&CircularVal, par => 99, par1 => '', unit => ' s', def => '-' },
todayConsumption => { fnr => 3, fn => \&CircularVal, par => 99, par1 => '', unit => ' Wh', def => 0 }, todayConsumption => { fnr => 3, fn => \&CircularVal, par => 99, par1 => '', unit => ' Wh', def => 0 },
@@ -1391,8 +1394,8 @@ my %hcsr = (
BatPowerOut_Sum => { fnr => 5, fn => \&CurrentVal, par => 'batpoweroutsum', par1 => '', unit => ' W', def => '-' }, BatPowerOut_Sum => { fnr => 5, fn => \&CurrentVal, par => 'batpoweroutsum', par1 => '', unit => ' W', def => '-' },
BatWeightedTotalSOC => { fnr => 2, fn => \&CurrentVal, par => 'batsoctotal', par1 => '', unit => ' %', def => 0 }, BatWeightedTotalSOC => { fnr => 2, fn => \&CurrentVal, par => 'batsoctotal', par1 => '', unit => ' %', def => 0 },
SunHours_Remain => { fnr => 5, fn => \&CurrentVal, par => '', par1 => '', unit => '', def => 0 }, # fnr => 3 -> Custom Calc SunHours_Remain => { fnr => 5, fn => \&CurrentVal, par => '', par1 => '', unit => '', def => 0 }, # fnr => 3 -> Custom Calc
SunMinutes_Remain => { fnr => 5, fn => \&CurrentVal, par => '', par1 => '', unit => '', def => 0 }, SunMinutes_Remain => { fnr => 5, fn => \&CurrentVal, par => '', par1 => '', unit => '', def => 0 },
dayAfterTomorrowPVforecast => { fnr => 5, fn => \&CurrentVal, par => 'dayAfterTomorrowPVfc', par1 => '', unit => ' Wh', def => 0 }, dayAfterTomorrowPVforecast => { fnr => 5, fn => \&CurrentVal, par => 'dayAfterTomorrowPVfc', par1 => '', unit => ' Wh', def => 0 },
todayGridFeedIn => { fnr => 5, fn => \&CircularVal, par => 99, par1 => '', unit => '', def => 0 }, todayGridFeedIn => { fnr => 5, fn => \&CircularVal, par => 99, par1 => '', unit => '', def => 0 },
todayGridConsumption => { fnr => 5, fn => \&CircularVal, par => 99, par1 => '', unit => '', def => 0 }, todayGridConsumption => { fnr => 5, fn => \&CircularVal, par => 99, par1 => '', unit => '', def => 0 },
todayNotOwnerConsumption => { fnr => 5, fn => \&CircularVal, par => 99, par1 => 'todayConsumption', unit => ' Wh', def => 0 }, todayNotOwnerConsumption => { fnr => 5, fn => \&CircularVal, par => 99, par1 => 'todayConsumption', unit => ' Wh', def => 0 },
@@ -6779,7 +6782,7 @@ sub _attrplantControl { ## no critic "not used"
feedinPowerLimit => { comp => '\d+', act => 0 }, feedinPowerLimit => { comp => '\d+', act => 0 },
genPVdeviation => { comp => '^(?:daily|continuously)(?::(?:default|reverse))?$', act => 1 }, genPVdeviation => { comp => '^(?:daily|continuously)(?::(?:default|reverse))?$', act => 1 },
genPVforecastsToEvent => { comp => '(adapt4(?:f)?Steps)', act => 0 }, genPVforecastsToEvent => { comp => '(adapt4(?:f)?Steps)', act => 0 },
reductionState => { comp => '[^\s]+:[^\s]+:[^\s]+', act => 1 }, reductionState => { comp => '[^\s]+:[^\s]+:[^\s]+', act => 1 },
showLink => { comp => '(0|1)', act => 0 }, showLink => { comp => '(0|1)', act => 0 },
}; };
@@ -7719,19 +7722,19 @@ sub __attrKeyAction {
} }
if ($init_done && $akey eq 'reductionState') { if ($init_done && $akey eq 'reductionState') {
my $rdcinfo = CurrentVal ($name, 'reductionState', ''); my $rdcinfo = CurrentVal ($name, 'reductionState', '');
my ($rdcdev, $rdcrd, $code) = split ":", $rdcinfo; my ($rdcdev, $rdcrd, $code) = split ":", $rdcinfo;
($err) = isDeviceValid ( { name => $name, ($err) = isDeviceValid ( { name => $name,
obj => $rdcdev, obj => $rdcdev,
method => 'string', method => 'string',
} }
); );
if ($err) { if ($err) {
delete $data{$name}{current}{$akey}; delete $data{$name}{current}{$akey};
return $err; return $err;
} }
if ($code =~ m/^\s*\{.*\}\s*$/xs) { # prüft Perl-Code if ($code =~ m/^\s*\{.*\}\s*$/xs) { # prüft Perl-Code
$code =~ s/\s//xg; $code =~ s/\s//xg;
@@ -7741,10 +7744,10 @@ sub __attrKeyAction {
$err = checkRegex ($code); $err = checkRegex ($code);
} }
if ($err) { if ($err) {
delete $data{$name}{current}{$akey}; delete $data{$name}{current}{$akey};
return $err; return $err;
} }
} }
} }
@@ -9378,10 +9381,10 @@ sub _specialActivities {
my ($fd, $fh) = calcDayHourMove ($chour, $num); my ($fd, $fh) = calcDayHourMove ($chour, $num);
my $nhtstr = 'NextHour'.(sprintf "%02d", $num); my $nhtstr = 'NextHour'.(sprintf "%02d", $num);
if ($fd > 2 && exists $data{$name}{nexthours}{$nhtstr}) { if ($fd > 2 && exists $data{$name}{nexthours}{$nhtstr}) {
delete $data{$name}{nexthours}{$nhtstr}; delete $data{$name}{nexthours}{$nhtstr};
next; next;
} }
} }
## Planungsdaten spezifisch löschen (Anfang und Ende nicht am selben Tag) ## Planungsdaten spezifisch löschen (Anfang und Ende nicht am selben Tag)
@@ -10322,7 +10325,7 @@ sub _transferAPIRadiationValues {
my $hod = sprintf "%02d", int $wthour + 1; # Stunde des Tages my $hod = sprintf "%02d", int $wthour + 1; # Stunde des Tages
my $rad1h = RadiationAPIVal ($name, '?All', $wantdt, 'Rad1h', undef); my $rad1h = RadiationAPIVal ($name, '?All', $wantdt, 'Rad1h', undef);
$paref->{wantdt} = $wantdt; $paref->{wantdt} = $wantdt;
$paref->{wantts} = $wantts; $paref->{wantts} = $wantts;
$paref->{wtday} = $wtday; $paref->{wtday} = $wtday;
$paref->{hod} = $hod; $paref->{hod} = $hod;
@@ -12015,24 +12018,37 @@ sub _createSummaries {
$node2inv2dc += $pac2dc if($ifeed eq 'hybrid' || ($ifeed eq 'default' && $isource eq 'bat')); # AC->DC (Batterie- oder Hybrid-Wechselrichter) $node2inv2dc += $pac2dc if($ifeed eq 'hybrid' || ($ifeed eq 'default' && $isource eq 'bat')); # AC->DC (Batterie- oder Hybrid-Wechselrichter)
} }
my $othprod = 0; # Summe Otherproducer my $ppall = 0; # Summe Otherproducer
for my $pn (1..MAXPRODUCER) { # Erzeugung sonstiger Producer hinzufügen for my $pn (1..MAXPRODUCER) { # Erzeugung sonstiger Producer hinzufügen
$pn = sprintf "%02d", $pn; $pn = sprintf "%02d", $pn;
$othprod += ProducerVal ($name, $pn, 'pgeneration', 0); $ppall += ProducerVal ($name, $pn, 'pgeneration', 0);
} }
my $consumption = sprintf "%.0f", ($pv2node + $pv2bat + $othprod - $gfeedin + $gcon - $batin + $batout); # ohne PV2Grid my $vector = __calcVectorConsumption ( { name => $name,
batout => $batout,
batin => $batin,
pv2bat => $pv2bat,
pv2node => $pv2node,
dc2inv2node => $dc2inv2node,
node2inv2dc => $node2inv2dc,
ppall => $ppall,
gfeedin => $gfeedin,
gcon => $gcon
}
);
my $consumption = $vector->{vectorconsumption};
my $selfconsumption = sprintf "%.0f", ($pv2node + $pv2bat - $gfeedin - $batin); my $selfconsumption = sprintf "%.0f", ($pv2node + $pv2bat - $gfeedin - $batin);
$selfconsumption = $selfconsumption < 0 ? 0 : $selfconsumption; $selfconsumption = $selfconsumption < 0 ? 0 : $selfconsumption;
my $surplus = sprintf "%.0f", ($pv2node - $pv2grid + $othprod - $consumption); # aktueller Überschuß my $surplus = sprintf "%.0f", ($pv2node - $pv2grid + $ppall - $consumption); # aktueller Überschuß
$surplus = 0 if($surplus < 0); # wegen Vergleich nompower vs. surplus $surplus = 0 if($surplus < 0); # wegen Vergleich nompower vs. surplus
if ($debug =~ /collectData/xs) { if ($debug =~ /collectData/xs) {
Log3 ($name, 1, "$name DEBUG> current Power values -> PV2Node: $pv2node W, PV2Bat: $pv2bat, PV2Grid: $pv2grid W, Other: $othprod W, GridIn: $gfeedin W, GridCon: $gcon W"); Log3 ($name, 1, "$name DEBUG> current Power values -> PV2Node: $pv2node W, PV2Bat: $pv2bat, PV2Grid: $pv2grid W, Other: $ppall W, GridIn: $gfeedin W, GridCon: $gcon W");
Log3 ($name, 1, "$name DEBUG> current Power Battery -> BatIn: $batin W (Node2Inv2DC: $node2inv2dc W), BatOut: $batout W (DC2Inv2Node: $dc2inv2node W)"); Log3 ($name, 1, "$name DEBUG> current Power Battery -> BatIn: $batin W (Node2Inv2DC: $node2inv2dc W), BatOut: $batout W (DC2Inv2Node: $dc2inv2node W)");
Log3 ($name, 1, "$name DEBUG> current Consumption result -> $consumption W"); Log3 ($name, 1, "$name DEBUG> current Consumption result -> $consumption W");
} }
my $selfconsumptionrate = 0; my $selfconsumptionrate = 0;
@@ -12052,8 +12068,8 @@ sub _createSummaries {
push @{$data{$name}{current}{surplusslidereg}}, $surplus; # Schieberegister PV Überschuß push @{$data{$name}{current}{surplusslidereg}}, $surplus; # Schieberegister PV Überschuß
limitArray ($data{$name}{current}{surplusslidereg}, SPLSLIDEMAX); limitArray ($data{$name}{current}{surplusslidereg}, SPLSLIDEMAX);
storeReading ('Current_GridFeedIn', (int $gfeedin). ' W'); # V 1.37.0 storeReading ('Current_GridFeedIn', (sprintf "%.0f", $gfeedin). ' W');
storeReading ('Current_GridConsumption', (int $gcon). ' W'); # V 1.37.0 storeReading ('Current_GridConsumption', (sprintf "%.0f", $gcon). ' W');
storeReading ('Current_Consumption', $consumption. ' W'); storeReading ('Current_Consumption', $consumption. ' W');
storeReading ('Current_SelfConsumption', $selfconsumption. ' W'); storeReading ('Current_SelfConsumption', $selfconsumption. ' W');
storeReading ('Current_SelfConsumptionRate', $selfconsumptionrate. ' %'); storeReading ('Current_SelfConsumptionRate', $selfconsumptionrate. ' %');
@@ -12062,19 +12078,81 @@ sub _createSummaries {
storeReading ('Today_PVreal', $pvre. ' Wh'); storeReading ('Today_PVreal', $pvre. ' Wh');
storeReading ('Tomorrow_ConsumptionForecast', $tconsum. ' Wh') if(defined $tconsum); storeReading ('Tomorrow_ConsumptionForecast', $tconsum. ' Wh') if(defined $tconsum);
storeReading ('NextHours_Sum01_PVforecast', (int $next1HoursSum->{PV}). ' Wh'); storeReading ('NextHours_Sum01_PVforecast', (sprintf "%.0f", $next1HoursSum->{PV}). ' Wh');
storeReading ('NextHours_Sum02_PVforecast', (int $next2HoursSum->{PV}). ' Wh'); storeReading ('NextHours_Sum02_PVforecast', (sprintf "%.0f", $next2HoursSum->{PV}). ' Wh');
storeReading ('NextHours_Sum03_PVforecast', (int $next3HoursSum->{PV}). ' Wh'); storeReading ('NextHours_Sum03_PVforecast', (sprintf "%.0f", $next3HoursSum->{PV}). ' Wh');
storeReading ('NextHours_Sum04_PVforecast', (int $next4HoursSum->{PV}). ' Wh'); storeReading ('NextHours_Sum04_PVforecast', (sprintf "%.0f", $next4HoursSum->{PV}). ' Wh');
storeReading ('RestOfDayPVforecast', (int $restOfDaySum->{PV}). ' Wh'); storeReading ('RestOfDayPVforecast', (sprintf "%.0f", $restOfDaySum->{PV}). ' Wh');
storeReading ('Tomorrow_PVforecast', (int $tomorrowSum->{PV}). ' Wh'); storeReading ('Tomorrow_PVforecast', (sprintf "%.0f", $tomorrowSum->{PV}). ' Wh');
storeReading ('Today_PVforecast', (int $todaySumFc->{PV}). ' Wh'); storeReading ('Today_PVforecast', (sprintf "%.0f", $todaySumFc->{PV}). ' Wh');
storeReading ('NextHours_Sum04_ConsumptionForecast', (int $next4HoursSum->{Consumption}).' Wh'); storeReading ('NextHours_Sum04_ConsumptionForecast', (sprintf "%.0f", $next4HoursSum->{Consumption}).' Wh');
storeReading ('RestOfDayConsumptionForecast', (int $restOfDaySum->{Consumption}). ' Wh'); storeReading ('RestOfDayConsumptionForecast', (sprintf "%.0f", $restOfDaySum->{Consumption}). ' Wh');
return; return;
} }
################################################################
# Hausverbrauch aus dem Leistungsfluß in/aus Knoten ermitteln
# (erfasst auch Verlustleistung in den Batteriewechselrichtern)
# und alternativ linear
# alles ohne PV2Grid
################################################################
sub __calcVectorConsumption {
my $paref = shift;
my $name = $paref->{name};
my $batout = $paref->{batout};
my $batin = $paref->{batin};
my $pv2bat = $paref->{pv2bat};
my $pv2node = $paref->{pv2node};
my $dc2inv2node = $paref->{dc2inv2node};
my $node2inv2dc = $paref->{node2inv2dc};
my $ppall = $paref->{ppall};
my $gfeedin = $paref->{gfeedin};
my $gcon = $paref->{gcon};
my $vector;
$vector->{batDischarge2HomeNode} = 0;
my $node2bat = 0; # Verbindung Inv.Knoten <-> Batterie ((-) Bat -> Knoten, (+) Knoten -> Bat)
my $bat2home = 0;
## Vectorverbrauch
####################
if ($batout || $batin) { # Batterie wird geladen oder entladen
$node2bat = ($batin - $batout) - $pv2bat + $dc2inv2node - $node2inv2dc; # positiv: Richtung Inverter Knoten -> Bat, negativ: Richtung Bat -> Inverter Knoten
$node2bat = 0 if(($dc2inv2node || $node2inv2dc) && $node2bat != 0);
if ($node2bat < 0 && !$dc2inv2node && !$pv2bat) { # Batterieentladung direkt ins Hausnetz wenn kein Batterie- / Hybridwechselrichter und kein Batterieladegerät aktiv
$bat2home = abs $node2bat;
$node2bat = 0;
$vector->{batDischarge2HomeNode} = 1;
}
}
else {
$node2bat = $dc2inv2node - $pv2bat; # falls Batterie Idle und Smartloader arbeitet
$node2bat = 0 if($dc2inv2node && $node2bat > 0); # muß negativ (0) sein: Richtung Bat -> Inv.Knoten, wichtig zur Festlegung Richtung und Inv. Knoten Summierung
}
my $pnodesum = $ppall + $pv2node + $dc2inv2node - $node2inv2dc; # Erzeugung Summe im Inverter-Knoten
$pnodesum += $node2bat < 0 ? abs $node2bat : 0; # z.B. Batterie ist voll und SolarLader liefert an Knoten
$pnodesum = __normDecPlaces ($pnodesum);
my $node2home = $pnodesum - $gfeedin - ($node2bat > 0 ? $node2bat : 0); # Energiefluß vom Knoten zum Haus
$node2home = __normDecPlaces ($node2home);
$vector->{vectorconsumption} = sprintf "%.0f", ($gcon + $node2home + $bat2home); # V 1.52.0 Anpassung Consumption wegen Verlustleistungsdifferenzen
## Linearverbrauch
####################
$vector->{linearconsumption} = sprintf "%.0f", ($pv2node + $pv2bat + $ppall - $gfeedin + $gcon - $batin + $batout);
$vector->{bat2home} = $bat2home;
$vector->{pnodesum} = $pnodesum;
$vector->{node2home} = $node2home;
$vector->{node2bat} = $node2bat;
return $vector;
}
################################################################ ################################################################
# Consumer - Energieverbrauch aufnehmen # Consumer - Energieverbrauch aufnehmen
# - Masterdata ergänzen # - Masterdata ergänzen
@@ -12091,6 +12169,8 @@ sub _manageConsumerData {
my $nhour = $chour + 1; my $nhour = $chour + 1;
$paref->{nhour} = sprintf "%02d", $nhour; $paref->{nhour} = sprintf "%02d", $nhour;
my $pcurrsum = 0;
for my $c (sort{$a<=>$b} keys %{$data{$name}{consumers}}) { for my $c (sort{$a<=>$b} keys %{$data{$name}{consumers}}) {
$paref->{consumer} = $c; $paref->{consumer} = $c;
my $consumer = ConsumerVal ($hash, $c, 'name', ''); my $consumer = ConsumerVal ($hash, $c, 'name', '');
@@ -12105,8 +12185,6 @@ sub _manageConsumerData {
if ($paread) { if ($paread) {
my $eup = $up =~ /^kW$/xi ? 1000 : 1; my $eup = $up =~ /^kW$/xi ? 1000 : 1;
$pcurr = ReadingsNum ($consumer, $paread, 0) * $eup; $pcurr = ReadingsNum ($consumer, $paread, 0) * $eup;
storeReading ("consumer${c}_currentPower", $pcurr.' W');
} }
## Verbrauch auslesen + speichern ## Verbrauch auslesen + speichern
@@ -12130,8 +12208,6 @@ sub _manageConsumerData {
$data{$name}{consumers}{$c}{old_etotal} = $etot; $data{$name}{consumers}{$c}{old_etotal} = $etot;
$data{$name}{consumers}{$c}{old_etottime} = $t; $data{$name}{consumers}{$c}{old_etottime} = $t;
storeReading ("consumer${c}_currentPower", $pcurr.' W');
} }
if (defined $ehist && $etot >= $ehist && ($etot - $ehist) >= $ethreshold) { if (defined $ehist && $etot >= $ehist && ($etot - $ehist) >= $ethreshold) {
@@ -12169,8 +12245,16 @@ sub _manageConsumerData {
delete $paref->{val}; delete $paref->{val};
} }
readingsDelete ($hash, "consumer${c}_currentPower") if(!$etotread && !$paread); if (!$etotread && !$paread) {
delete $data{$name}{consumers}{$c}{currpower};
readingsDelete ($hash, "consumer${c}_currentPower");
}
else {
$data{$name}{consumers}{$c}{currpower} = $pcurr;
storeReading ("consumer${c}_currentPower", $pcurr.' W');
}
$pcurrsum += $pcurr;
$paref->{pcurr} = $pcurr; $paref->{pcurr} = $pcurr;
__getAutomaticState ($paref); # Automatic Status des Consumers abfragen __getAutomaticState ($paref); # Automatic Status des Consumers abfragen
@@ -12232,6 +12316,8 @@ sub _manageConsumerData {
storeReading ("consumer${c}_planned_stop", $stoptime) if($stoptime); # Consumer Stop geplant storeReading ("consumer${c}_planned_stop", $stoptime) if($stoptime); # Consumer Stop geplant
} }
$data{$name}{current}{dummyConsumption} = CurrentVal ($name, 'consumption', 0) - $pcurrsum; # aktueller Verbrauch - Summe aller ConsumerPower
delete $paref->{consumer}; delete $paref->{consumer};
delete $paref->{nhour}; delete $paref->{nhour};
@@ -14753,7 +14839,7 @@ sub _genSpecialReadings {
storeReading ($prpo.'_'.$kpi, (sprintf "%.1f", $dbo).' '.$hcsr{$kpi}{unit}); storeReading ($prpo.'_'.$kpi, (sprintf "%.1f", $dbo).' '.$hcsr{$kpi}{unit});
} }
elsif ($kpi eq 'dayAfterTomorrowPVforecast') { # PV Vorhersage Summe für Übermorgen (falls Werte vorhanden), Forum:#134226 elsif ($kpi eq 'dayAfterTomorrowPVforecast') { # PV Vorhersage Summe für Übermorgen (falls Werte vorhanden), Forum:#134226
my $datpvfc = &{$hcsr{$kpi}{fn}} ($name, 'dayAfterTomorrowPVfc', $def); my $datpvfc = &{$hcsr{$kpi}{fn}} ($name, 'dayAfterTomorrowPVfc', $def);
if ($datpvfc) { if ($datpvfc) {
storeReading ($prpo.'_'.$kpi, (sprintf "%.0f", $datpvfc).$hcsr{$kpi}{unit}); storeReading ($prpo.'_'.$kpi, (sprintf "%.0f", $datpvfc).$hcsr{$kpi}{unit});
@@ -16649,7 +16735,7 @@ sub _graphicConsumerLegend {
my $tro = 0; my $tro = 0;
for my $c (@consumers) { for my $c (@consumers) {
my $noshow = isConsumerNoshow ($hash, $c); my $noshow = isConsumerNoshow ($hash, $c);
next if($noshow =~ /[12]/xs); # Consumer ausblenden next if($noshow =~ /[12]/xs); # Consumer ausblenden
@@ -16752,28 +16838,28 @@ sub _graphicConsumerLegend {
} }
if ($noshow !~ /[9]/xs) { # mit $noshow '9' die Schalter im Paneel ausblenden if ($noshow !~ /[9]/xs) { # mit $noshow '9' die Schalter im Paneel ausblenden
if (isConsumerPhysOff($hash, $c)) { # Schaltzustand des Consumerdevices off if (isConsumerPhysOff($hash, $c)) { # Schaltzustand des Consumerdevices off
if ($cmdon) { if ($cmdon) {
$staticon = FW_makeImage('ios_off_fill@red', $htitles{iave}{$lang}); $staticon = FW_makeImage('ios_off_fill@red', $htitles{iave}{$lang});
$swicon = "<a title='$htitles{iave}{$lang}' onClick=$cmdon> $staticon</a>"; $swicon = "<a title='$htitles{iave}{$lang}' onClick=$cmdon> $staticon</a>";
} }
else { else {
$staticon = FW_makeImage('ios_off_fill@grey', $htitles{ians}{$lang}); $staticon = FW_makeImage('ios_off_fill@grey', $htitles{ians}{$lang});
$swicon = "<a title='$htitles{ians}{$lang}'> $staticon</a>"; $swicon = "<a title='$htitles{ians}{$lang}'> $staticon</a>";
} }
} }
if (isConsumerPhysOn($hash, $c)) { # Schaltzustand des Consumerdevices on if (isConsumerPhysOn($hash, $c)) { # Schaltzustand des Consumerdevices on
if($cmdoff) { if($cmdoff) {
$staticon = FW_makeImage('ios_on_fill@green', $htitles{ieva}{$lang}); $staticon = FW_makeImage('ios_on_fill@green', $htitles{ieva}{$lang});
$swicon = "<a title='$htitles{ieva}{$lang}' onClick=$cmdoff> $staticon</a>"; $swicon = "<a title='$htitles{ieva}{$lang}' onClick=$cmdoff> $staticon</a>";
} }
else { else {
$staticon = FW_makeImage('ios_on_fill@grey', $htitles{iens}{$lang}); $staticon = FW_makeImage('ios_on_fill@grey', $htitles{iens}{$lang});
$swicon = "<a title='$htitles{iens}{$lang}'> $staticon</a>"; $swicon = "<a title='$htitles{iens}{$lang}'> $staticon</a>";
} }
} }
} }
if ($clstyle eq 'icon') { if ($clstyle eq 'icon') {
$cicon = FW_makeImage($cicon); $cicon = FW_makeImage($cicon);
@@ -17151,8 +17237,8 @@ sub _beamGraphicRemainingHours {
$hfcg->{$i}{beam1} //= 0; $hfcg->{$i}{beam1} //= 0;
$hfcg->{$i}{beam2} //= 0; $hfcg->{$i}{beam2} //= 0;
my %roundable = map { $_ => 1 } qw(pvForecast pvReal consumptionForecast consumption); my %roundable = map { $_ => 1 } qw(pvForecast pvReal consumptionForecast consumption);
my @beams = ($beam1cont, $beam2cont); my @beams = ($beam1cont, $beam2cont);
$hfcg->{$i}{diff} = sprintf "%.1f", ($hfcg->{$i}{beam1} - $hfcg->{$i}{beam2}); $hfcg->{$i}{diff} = sprintf "%.1f", ($hfcg->{$i}{beam1} - $hfcg->{$i}{beam2});
$hfcg->{$i}{diff} = sprintf "%.0f", $hfcg->{$i}{diff} if($kw eq 'Wh' && grep { $roundable{$_} } @beams); $hfcg->{$i}{diff} = sprintf "%.0f", $hfcg->{$i}{diff} if($kw eq 'Wh' && grep { $roundable{$_} } @beams);
@@ -17353,8 +17439,8 @@ sub _beamGraphic {
} }
) + $spacesz * 10; ) + $spacesz * 10;
$z3 =__normBeamHeight ( { val => $hfcg->{$i}{beam1}, maxVal => $maxVal, height => $height, ground => 0, scalemode => $scm } ); $z3 =__normBeamHeight ( { val => $hfcg->{$i}{beam1}, maxVal => $maxVal, height => $height, ground => 0, scalemode => $scm } );
$titz3 = qq/title="$hfcg->{0}{beam1txt}"/; $titz3 = qq/title="$hfcg->{0}{beam1txt}"/;
} }
if ($lotype eq 'double') { if ($lotype eq 'double') {
@@ -17390,14 +17476,14 @@ sub _beamGraphic {
$z1 = __normBeamHeight ( { val => $mbdf, maxVal => $maxVal, height => $height, ground => 0, scalemode => 'lin' } ); $z1 = __normBeamHeight ( { val => $mbdf, maxVal => $maxVal, height => $height, ground => 0, scalemode => 'lin' } );
$z2 = __normBeamHeight ( { val => $z2, maxVal => $maxVal, height => $height, ground => 0, scalemode => $scm } ); $z2 = __normBeamHeight ( { val => $z2, maxVal => $maxVal, height => $height, ground => 0, scalemode => $scm } );
$z3 = __normBeamHeight ( { val => $z3, maxVal => $maxVal, height => $height, ground => 0, scalemode => $scm } ); $z3 = __normBeamHeight ( { val => $z3, maxVal => $maxVal, height => $height, ground => 0, scalemode => $scm } );
$z2 -= $z3 if($scm eq 'lin'); # effektive Stapelhöhe, da $z2 + $z3 übereinander dargestellt wird $z2 -= $z3 if($scm eq 'lin'); # effektive Stapelhöhe, da $z2 + $z3 übereinander dargestellt wird
if ($scm eq 'log' && $z2) { if ($scm eq 'log' && $z2) {
my $z3perc = int (100 / $z2 * $z3); my $z3perc = int (100 / $z2 * $z3);
$z3 = int ($z3 / 100 * $z3perc); $z3 = int ($z3 / 100 * $z3perc);
$z3 -= $height * 0.1 if($z3); $z3 -= $height * 0.1 if($z3);
$z2 -= $z3; $z2 -= $z3;
} }
} }
if ($lotype eq 'diff') { if ($lotype eq 'diff') {
@@ -17898,16 +17984,14 @@ sub _flowGraphic {
my $exth2cdist = $paref->{flowgh2cDist}; # vertikaler Abstand Home -> Consumer Zeile my $exth2cdist = $paref->{flowgh2cDist}; # vertikaler Abstand Home -> Consumer Zeile
my $lang = $paref->{lang}; my $lang = $paref->{lang};
my $gconMetered = ReadingsNum ($name, 'Current_GridConsumption', 0); my $gconMetered = CurrentVal ($name, 'gridconsumption', 0);
my $node2gridMetered = ReadingsNum ($name, 'Current_GridFeedIn', 0); # vom Inverter-Knoten zum Grid my $node2gridMetered = CurrentVal ($name, 'gridfeedin', 0); # vom Inverter-Knoten zum Grid
my $cselfMetered = ReadingsNum ($name, 'Current_SelfConsumption', 0); my $cselfMetered = CurrentVal ($name, 'selfconsumption', 0);
my $consptn = CurrentVal ($name, 'consumption', 0); my $showgenerators = CurrentVal ($name, 'showGenerators', 0); # Generatoren-Zeile anzeigen
my $showgenerators = CurrentVal ($name, 'showGenerators', 0); # Generatoren-Zeile anzeigen
my $cons_dmy = $consptn; my $scale = FGSCALEDEF;
my $scale = FGSCALEDEF; my $stna = $name;
my $stna = $name; $stna .= int (rand (1500));
$stna .= int (rand (1500));
my ($y_pos, $y_pos1, $y_pos2, $err); my ($y_pos, $y_pos1, $y_pos2, $err);
@@ -17925,8 +18009,8 @@ sub _flowGraphic {
($err) = isDeviceValid ( { name => $name, obj => 'setupBatteryDev'.$bn, method => 'attr' } ); ($err) = isDeviceValid ( { name => $name, obj => 'setupBatteryDev'.$bn, method => 'attr' } );
next if($err); next if($err);
my $batinpow = ReadingsNum ($name, 'Current_PowerBatIn_'.$bn, undef); my $batinpow = BatteryVal ($name, $bn, 'bpowerin', undef);
my $batoutpow = ReadingsNum ($name, 'Current_PowerBatOut_'.$bn, undef); my $batoutpow = BatteryVal ($name, $bn, 'bpowerout', undef);
$batin += $batinpow if(defined $batinpow); $batin += $batinpow if(defined $batinpow);
$batout += $batoutpow if(defined $batoutpow); $batout += $batoutpow if(defined $batoutpow);
} }
@@ -18027,49 +18111,49 @@ sub _flowGraphic {
my $gconMetered_direction = "M250,515 L670,590"; my $gconMetered_direction = "M250,515 L670,590";
my $bat2home_direction = "M1200,515 L730,590"; my $bat2home_direction = "M1200,515 L730,590";
my $node2bat = 0; # Verbindung Inv.Knoten <-> Batterie ((-) Bat -> Knoten, (+) Knoten -> Bat) ## Knotensummen Erzeuger - Batterie - Home ermitteln -> Hausverbrauch ermitteln
my $bat2home = 0; #################################################################################
my $vector = __calcVectorConsumption ( { name => $name,
batout => $batout,
batin => $batin,
pv2bat => $pv2bat,
pv2node => $pv2node,
dc2inv2node => $dc2inv2node,
node2inv2dc => $node2inv2dc,
ppall => $ppall,
gfeedin => $node2gridMetered,
gcon => $gconMetered
}
);
if ($batout || $batin) { # Batterie wird geladen oder entladen my $consptn = $vector->{vectorconsumption};
$node2bat = ($batin - $batout) - $pv2bat + $dc2inv2node - $node2inv2dc; # positiv: Richtung Knoten -> Bat, negativ: Richtung Bat -> Inv.Knoten
$node2bat = 0 if(($dc2inv2node || $node2inv2dc) && $node2bat != 0);
if ($node2bat < 0 && !$dc2inv2node && !$pv2bat) { # Batterieentladung direkt ins Hausnetz wenn kein Batterie- / Hybridwechselrichter und kein Batterieladegerät aktiv if ($vector->{batDischarge2HomeNode}) {
$bat2home = abs $node2bat; $bat2home_style = "$stna active_normal";
$node2bat = 0; $bat2home_direction = "M1200,515 L730,590";
$bat2home_style = "$stna active_normal";
$bat2home_direction = "M1200,515 L730,590";
}
}
else {
$node2bat = $dc2inv2node - $pv2bat; # falls Batterie Idle und Smartloader arbeitet
$node2bat = 0 if($dc2inv2node && $node2bat > 0); # muß negativ (0) sein: Richtung Bat -> Inv.Knoten, wichtig zur Festlegung Richtung und Inv. Knoten Summierung
} }
## Knotensummen Erzeuger - Batterie - Home ermitteln my $bat2home = $vector->{bat2home}; # Batterie -> Hausknoten
###################################################### my $pnodesum = $vector->{pnodesum}; # Summe Inverterknoten
my $pnodesum = $ppall + $pv2node + $dc2inv2node - $node2inv2dc; # Erzeugung Summe im Inverter-Knoten my $node2home = $vector->{node2home}; # Inverterknoten -> Haus
$pnodesum += $node2bat < 0 ? abs $node2bat : 0; # z.B. Batterie ist voll und SolarLader liefert an Knoten my $node2bat = $vector->{node2bat}; # Inverterknoten -> Batterie
$pnodesum = __normDecPlaces ($pnodesum);
my $node2home = $pnodesum - $node2gridMetered - ($node2bat > 0 ? $node2bat : 0); # Energiefluß vom Knoten zum Haus
$node2home = __normDecPlaces ($node2home);
$consptn = $gconMetered + $node2home + $bat2home; # V 1.52.0 Anpassung Consumption wegen Verlustleistungsdifferenzen
## definierte Verbraucher ermitteln ## definierte Verbraucher ermitteln
##################################### #####################################
my $cnsmr = {}; # Consumer Hilfshash Referenz my $cnsmr = {}; # Consumer Hilfshash Referenz
my $concurpsum = 0; # Summierung aller Consumerverbräuche
for my $c (sort{$a<=>$b} keys %{$data{$name}{consumers}}) { # definierte Verbraucher ermitteln for my $c (sort{$a<=>$b} keys %{$data{$name}{consumers}}) { # definierte Verbraucher ermitteln
next if(isConsumerNoshow ($hash, $c) =~ /[13]/xs); # auszublendende Consumer nicht berücksichtigen next if(isConsumerNoshow ($hash, $c) =~ /[13]/xs); # auszublendende Consumer nicht berücksichtigen
$cnsmr->{$c}{p} = ReadingsNum ($name, "consumer${c}_currentPower", 0); $cnsmr->{$c}{p} = ConsumerVal ($name, $c, 'currpower', 0);
$cnsmr->{$c}{shortalias} = ConsumerVal ($name, $c, 'aliasshort', ''); # Consumer Kurzalias $cnsmr->{$c}{shortalias} = ConsumerVal ($name, $c, 'aliasshort', ''); # Consumer Kurzalias
$cnsmr->{$c}{ptyp} = 'consumer'; $cnsmr->{$c}{ptyp} = 'consumer';
$concurpsum += $cnsmr->{$c}{p};
} }
my $consumercount = keys %{$cnsmr}; my $consumercount = keys %{$cnsmr};
$flowgconsumer = 0 if(!$consumercount); # Consumer Anzeige ausschalten wenn keine Consumer definiert $flowgconsumer = 0 if(!$consumercount); # Consumer Anzeige ausschalten wenn keine Consumer definiert
my @consumers = sort{$a<=>$b} keys %{$cnsmr}; my @consumers = sort{$a<=>$b} keys %{$cnsmr};
my $total_shortalias_length = sum map { my $a = $_->{shortalias} // ''; my $total_shortalias_length = sum map { my $a = $_->{shortalias} // '';
@@ -18077,6 +18161,9 @@ sub _flowGraphic {
} }
values %{$cnsmr}; values %{$cnsmr};
## Verbrauch Dummy bestimmen
##############################
my $cons_dmy = $consptn - $concurpsum;
## Producer / Inverter Koordinaten Steuerhash ## Producer / Inverter Koordinaten Steuerhash
############################################### ###############################################
@@ -18222,7 +18309,6 @@ END0
} }
); );
$cons_dmy -= $cnsmrpower;
$cicon = FW_makeImage ($cicon, ''); $cicon = FW_makeImage ($cicon, '');
($scale, $cicon) = __normIconScale ($name, $cicon); ($scale, $cicon) = __normIconScale ($name, $cicon);
@@ -18252,7 +18338,7 @@ END1
## Home Icon ## Home Icon
############## ##############
my $car = CurrentVal ($name, 'autarkyrate', undef); my $car = CurrentVal ($name, 'autarkyrate', undef);
my $hmtxt = ''; my $hmtxt = '';
$hmtxt = $htitles{autarky}{$lang}.': '.$car.' %' if(defined $car); $hmtxt = $htitles{autarky}{$lang}.': '.$car.' %' if(defined $car);
my $hicon = HOMEICONDEF; my $hicon = HOMEICONDEF;
@@ -18447,7 +18533,7 @@ END3
## Textangaben an Grafikelementen ## Textangaben an Grafikelementen
################################### ###################################
$cons_dmy = sprintf "%.0f", $cons_dmy; # Verbrauch Dummy-Consumer $cons_dmy = sprintf "%.0f", $cons_dmy; # Verbrauch Dummy-Consumer
$bat2home = __normDecPlaces ($bat2home); $bat2home = __normDecPlaces ($bat2home);
$dc2inv2node = __normDecPlaces ($dc2inv2node); $dc2inv2node = __normDecPlaces ($dc2inv2node);
$node2bat = __normDecPlaces ($node2bat); $node2bat = __normDecPlaces ($node2bat);
@@ -26550,7 +26636,7 @@ to ensure that the system configuration is correct.
<tr><td> </td><td><b>2</b> - the consumer is hidden in the consumer legend </td></tr> <tr><td> </td><td><b>2</b> - the consumer is hidden in the consumer legend </td></tr>
<tr><td> </td><td><b>3</b> - the consumer is hidden in the flow chart </td></tr> <tr><td> </td><td><b>3</b> - the consumer is hidden in the flow chart </td></tr>
<tr><td> </td><td><b>9</b> - the switching element of the consumer is hidden in the consumer legend </td></tr> <tr><td> </td><td><b>9</b> - the switching element of the consumer is hidden in the consumer legend </td></tr>
<tr><td> </td><td><b>[Device:]Reading</b> - Reading in the consumer or (optionally) an alternative device. </td></tr> <tr><td> </td><td><b>[Device:]Reading</b> - Reading in the consumer or (optionally) an alternative device. </td></tr>
<tr><td> </td><td>If the reading has the value 0 or is not present, the consumer is displayed. </td></tr> <tr><td> </td><td>If the reading has the value 0 or is not present, the consumer is displayed. </td></tr>
<tr><td> </td><td>The effect of the possible reading values 1, 2 and 3 is as described. </td></tr> <tr><td> </td><td>The effect of the possible reading values 1, 2 and 3 is as described. </td></tr>
<tr><td> </td><td> </td></tr> <tr><td> </td><td> </td></tr>
@@ -26733,49 +26819,50 @@ to ensure that the system configuration is correct.
<ul> <ul>
<table> <table>
<colgroup> <col width="27%"> <col width="73%"> </colgroup> <colgroup> <col width="27%"> <col width="73%"> </colgroup>
<tr><td> <b>BatPowerIn_Sum</b> </td><td>the sum of the current battery charging power of all defined battery devices </td></tr> <tr><td> <b>BatPowerIn_Sum</b> </td><td>the sum of the current battery charging power of all defined battery devices </td></tr>
<tr><td> <b>BatPowerOut_Sum</b> </td><td>the sum of the current battery discharge power of all defined battery devices </td></tr> <tr><td> <b>BatPowerOut_Sum</b> </td><td>the sum of the current battery discharge power of all defined battery devices </td></tr>
<tr><td> <b>BatWeightedTotalSOC</b> </td><td>the resulting (weighted) SOC across all installed batteries in % </td></tr> <tr><td> <b>BatWeightedTotalSOC</b> </td><td>the resulting (weighted) SOC across all installed batteries in % </td></tr>
<tr><td> <b>allStringsFullfilled</b> </td><td>Fulfillment status of error-free generation of all strings </td></tr> <tr><td> <b>allStringsFullfilled</b> </td><td>Fulfillment status of error-free generation of all strings </td></tr>
<tr><td> <b>conForecastComingNight</b> </td><td>Consumption forecast from the coming sunset to the coming sunrise. If the sunset has already passed, </td></tr> <tr><td> <b>conForecastComingNight</b> </td><td>Consumption forecast from the coming sunset to the coming sunrise. If the sunset has already passed, </td></tr>
<tr><td> </td><td>it is the consumption forecast from the current time (night) until the next sunrise. </td></tr> <tr><td> </td><td>it is the consumption forecast from the current time (night) until the next sunrise. </td></tr>
<tr><td> <b>conForecastTillNextSunrise</b> </td><td>Consumption forecast from current hour to the coming sunrise </td></tr> <tr><td> <b>conForecastTillNextSunrise</b> </td><td>Consumption forecast from current hour to the coming sunrise </td></tr>
<tr><td> <b>currentAPIinterval</b> </td><td>the current polling interval of the selected radiation data API in seconds </td></tr> <tr><td> <b>currentAPIinterval</b> </td><td>the current polling interval of the selected radiation data API in seconds </td></tr>
<tr><td> <b>currentRunMtsConsumer_XX</b> </td><td>the running time (minutes) of the consumer "XX" since the last switch-on. (last running cycle) </td></tr> <tr><td> <b>currentRunMtsConsumer_XX</b> </td><td>the running time (minutes) of the consumer "XX" since the last switch-on. (last running cycle) </td></tr>
<tr><td> <b>dayAfterTomorrowPVforecast</b> </td><td>provides the forecast of PV generation for the day after tomorrow (if available) without autocorrection (raw data) </td></tr> <tr><td> <b>dayAfterTomorrowPVforecast</b> </td><td>provides the forecast of PV generation for the day after tomorrow (if available) without autocorrection (raw data) </td></tr>
<tr><td> <b>daysUntilBatteryCare_XX</b> </td><td>Days until the next battery XX maintenance (reaching the charge 'maxSoC' from attribute ctrlBatSocManagementXX) </td></tr> <tr><td> <b>daysUntilBatteryCare_XX</b> </td><td>Days until the next battery XX maintenance (reaching the charge 'maxSoC' from attribute ctrlBatSocManagementXX) </td></tr>
<tr><td> <b>lastretrieval_time</b> </td><td>the last retrieval time of the selected radiation data API </td></tr> <tr><td> <b>dummyConsumption</b> </td><td>Provides the current household consumption that cannot be attributed to consumers. Also includes power loss components. </td></tr>
<tr><td> <b>lastretrieval_timestamp</b> </td><td>the timestamp of the last retrieval time of the selected radiation data API </td></tr> <tr><td> <b>lastretrieval_time</b> </td><td>the last retrieval time of the selected radiation data API </td></tr>
<tr><td> <b>remainingSurplsHrsMinPwrBat_XX</b> </td><td>the remaining number of hours on the current day in which the PV surplus (Wh) is higher than the </td></tr> <tr><td> <b>lastretrieval_timestamp</b> </td><td>the timestamp of the last retrieval time of the selected radiation data API </td></tr>
<tr><td> </td><td>calculated hourly integral of the minimum charging power &lt;MinPwr&gt; of battery XX. </td></tr> <tr><td> <b>remainingSurplsHrsMinPwrBat_XX</b> </td><td>the remaining number of hours on the current day in which the PV surplus (Wh) is higher than the </td></tr>
<tr><td> </td><td>The &lt;MinPwr&gt; is specified in the ctrlBatSocManagementXX->loadAbort attribute. </td></tr> <tr><td> </td><td>calculated hourly integral of the minimum charging power &lt;MinPwr&gt; of battery XX. </td></tr>
<tr><td> <b>remainingHrsWoChargeRcmdBat_XX</b> </td><td>the remaining number of hours without charging recommendation for battery XX on the current day </td></tr> <tr><td> </td><td>The &lt;MinPwr&gt; is specified in the ctrlBatSocManagementXX->loadAbort attribute. </td></tr>
<tr><td> <b>response_message</b> </td><td>the last status message of the selected radiation data API </td></tr> <tr><td> <b>remainingHrsWoChargeRcmdBat_XX</b> </td><td>the remaining number of hours without charging recommendation for battery XX on the current day </td></tr>
<tr><td> <b>runTimeAvgDayConsumer_XX</b> </td><td>the average running time (minutes) of consumer "XX" on one day </td></tr> <tr><td> <b>response_message</b> </td><td>the last status message of the selected radiation data API </td></tr>
<tr><td> <b>runTimeCentralTask</b> </td><td>the runtime of the last SolarForecast interval (total process) in seconds </td></tr> <tr><td> <b>runTimeAvgDayConsumer_XX</b> </td><td>the average running time (minutes) of consumer "XX" on one day </td></tr>
<tr><td> <b>runTimeTrainAI</b> </td><td>the runtime of the last AI training cycle in seconds </td></tr> <tr><td> <b>runTimeCentralTask</b> </td><td>the runtime of the last SolarForecast interval (total process) in seconds </td></tr>
<tr><td> <b>runTimeLastAPIAnswer</b> </td><td>the last response time of the radiation data API retrieval to a request in seconds </td></tr> <tr><td> <b>runTimeTrainAI</b> </td><td>the runtime of the last AI training cycle in seconds </td></tr>
<tr><td> <b>runTimeLastAPIProc</b> </td><td>the last process time for processing the received radiation data API data </td></tr> <tr><td> <b>runTimeLastAPIAnswer</b> </td><td>the last response time of the radiation data API retrieval to a request in seconds </td></tr>
<tr><td> <b>SunMinutes_Remain</b> </td><td>the remaining minutes until sunset of the current day </td></tr> <tr><td> <b>runTimeLastAPIProc</b> </td><td>the last process time for processing the received radiation data API data </td></tr>
<tr><td> <b>SunHours_Remain</b> </td><td>the remaining hours until sunset of the current day </td></tr> <tr><td> <b>SunMinutes_Remain</b> </td><td>the remaining minutes until sunset of the current day </td></tr>
<tr><td> <b>todayConsumption</b> </td><td>the energy consumption of the house on the current day </td></tr> <tr><td> <b>SunHours_Remain</b> </td><td>the remaining hours until sunset of the current day </td></tr>
<tr><td> <b>todayNotOwnerConsumption</b> </td><td>the energy consumption on the current day that cannot be allocated to the registered consumers </td></tr> <tr><td> <b>todayConsumption</b> </td><td>the energy consumption of the house on the current day </td></tr>
<tr><td> <b>todayConsumptionForecastDay</b> </td><td>Consumption forecast for the current day </td></tr> <tr><td> <b>todayNotOwnerConsumption</b> </td><td>the energy consumption on the current day that cannot be allocated to the registered consumers </td></tr>
<tr><td> <b>todayConsumptionForecast</b> </td><td>Consumption forecast per hour of the current day (01-24) </td></tr> <tr><td> <b>todayConsumptionForecastDay</b> </td><td>Consumption forecast for the current day </td></tr>
<tr><td> <b>todayConForecastTillSunset</b> </td><td>Consumption forecast from current hour to hour before sunset </td></tr> <tr><td> <b>todayConsumptionForecast</b> </td><td>Consumption forecast per hour of the current day (01-24) </td></tr>
<tr><td> <b>todayDoneAPIcalls</b> </td><td>the number of radiation data API calls executed on the current day </td></tr> <tr><td> <b>todayConForecastTillSunset</b> </td><td>Consumption forecast from current hour to hour before sunset </td></tr>
<tr><td> <b>todayDoneAPIrequests</b> </td><td>the number of radiation data API requests executed on the current day </td></tr> <tr><td> <b>todayDoneAPIcalls</b> </td><td>the number of radiation data API calls executed on the current day </td></tr>
<tr><td> <b>todayGridConsumption</b> </td><td>the energy drawn from the public grid on the current day </td></tr> <tr><td> <b>todayDoneAPIrequests</b> </td><td>the number of radiation data API requests executed on the current day </td></tr>
<tr><td> <b>todayGridFeedIn</b> </td><td>PV energy fed into the public grid on the current day </td></tr> <tr><td> <b>todayGridConsumption</b> </td><td>the energy drawn from the public grid on the current day </td></tr>
<tr><td> <b>todayMaxAPIcalls</b> </td><td>the maximum possible number of radiation data API calls. </td></tr> <tr><td> <b>todayGridFeedIn</b> </td><td>PV energy fed into the public grid on the current day </td></tr>
<tr><td> </td><td>A call can contain multiple API requests. </td></tr> <tr><td> <b>todayMaxAPIcalls</b> </td><td>the maximum possible number of radiation data API calls. </td></tr>
<tr><td> <b>todayRemainingAPIcalls</b> </td><td>the number of radiation data API calls still possible on the current day </td></tr> <tr><td> </td><td>A call can contain multiple API requests. </td></tr>
<tr><td> <b>todayRemainingAPIrequests</b> </td><td>the number of radiation data API requests still possible on the current day </td></tr> <tr><td> <b>todayRemainingAPIcalls</b> </td><td>the number of radiation data API calls still possible on the current day </td></tr>
<tr><td> <b>todayBatIn_XX</b> </td><td>the energy charged into the battery XX on the current day </td></tr> <tr><td> <b>todayRemainingAPIrequests</b> </td><td>the number of radiation data API requests still possible on the current day </td></tr>
<tr><td> <b>todayBatInSum</b> </td><td>Total energy charged in all batteries on the current day </td></tr> <tr><td> <b>todayBatIn_XX</b> </td><td>the energy charged into the battery XX on the current day </td></tr>
<tr><td> <b>todayBatOut_XX</b> </td><td>the energy taken from the battery XX on the current day </td></tr> <tr><td> <b>todayBatInSum</b> </td><td>Total energy charged in all batteries on the current day </td></tr>
<tr><td> <b>todayBatOutSum</b> </td><td>Total energy drawn from all batteries on the current day </td></tr> <tr><td> <b>todayBatOut_XX</b> </td><td>the energy taken from the battery XX on the current day </td></tr>
<tr><td> <b>tomorrowConsumptionForecast</b> </td><td>Consumption forecast per hour of the coming day (01-24) </td></tr> <tr><td> <b>todayBatOutSum</b> </td><td>Total energy drawn from all batteries on the current day </td></tr>
<tr><td> <b>tomorrowConsumptionForecast</b> </td><td>Consumption forecast per hour of the coming day (01-24) </td></tr>
</table> </table>
</ul> </ul>
<br> <br>
@@ -26949,11 +27036,11 @@ to ensure that the system configuration is correct.
<table> <table>
<colgroup> <col width="15%"> <col width="85%"> </colgroup> <colgroup> <col width="15%"> <col width="85%"> </colgroup>
<tr><td> <b>beamHeightlevel</b> </td><td>The bar height for each level of the bar chart can be specified. </td></tr> <tr><td> <b>beamHeightlevel</b> </td><td>The bar height for each level of the bar chart can be specified. </td></tr>
<tr><td> </td><td>The specification for a layer consists of the layer number (1..X), a ‘:’ followed by a positive integer > 0. </td></tr> <tr><td> </td><td>The specification for a layer consists of the layer number (1..X), a ‘:’ followed by a positive integer > 0. </td></tr>
<tr><td> </td><td>The numerical value is used as a normalization factor in the height calculation. </td></tr> <tr><td> </td><td>The numerical value is used as a normalization factor in the height calculation. </td></tr>
<tr><td> </td><td>Further levels are specified separated by commas (see example). </td></tr> <tr><td> </td><td>Further levels are specified separated by commas (see example). </td></tr>
<tr><td> </td><td><b>&lt;Level&gt;:&lt;Integer&gt;</b> - normalization factor (default: 200) </td></tr> <tr><td> </td><td><b>&lt;Level&gt;:&lt;Integer&gt;</b> - normalization factor (default: 200) </td></tr>
<tr><td> </td><td> </td></tr> <tr><td> </td><td> </td></tr>
<tr><td> <b>beamPaddingBottom</b> </td><td>Defines the space in px in the bar chart that is inserted between the last text or icon row of the respective bar chart layer </td></tr> <tr><td> <b>beamPaddingBottom</b> </td><td>Defines the space in px in the bar chart that is inserted between the last text or icon row of the respective bar chart layer </td></tr>
<tr><td> </td><td>and the bottom edge of this layer. </td></tr> <tr><td> </td><td>and the bottom edge of this layer. </td></tr>
<tr><td> </td><td>The value applies uniformly to all bar chart levels. </td></tr> <tr><td> </td><td>The value applies uniformly to all bar chart levels. </td></tr>
@@ -26995,18 +27082,18 @@ to ensure that the system configuration is correct.
<tr><td> </td><td> </td></tr> <tr><td> </td><td> </td></tr>
<tr><td> <b>scaleMode</b> </td><td>The scaling mode can be set to linear or logarithmic for each level of the bar chart. </td></tr> <tr><td> <b>scaleMode</b> </td><td>The scaling mode can be set to linear or logarithmic for each level of the bar chart. </td></tr>
<tr><td> </td><td>The logarithmic setting emphasizes small values and compresses larger values in the display. </td></tr> <tr><td> </td><td>The logarithmic setting emphasizes small values and compresses larger values in the display. </td></tr>
<tr><td> </td><td>The specification for a level consists of the level number (1..X), a ':' followed by the mode 'lin' or 'log'. </td></tr> <tr><td> </td><td>The specification for a level consists of the level number (1..X), a ':' followed by the mode 'lin' or 'log'. </td></tr>
<tr><td> </td><td>The strings for each level are separated by commas (see example). </td></tr> <tr><td> </td><td>The strings for each level are separated by commas (see example). </td></tr>
<tr><td> </td><td><b>&lt;Level&gt;:lin</b> - linear scaling (default) </td></tr> <tr><td> </td><td><b>&lt;Level&gt;:lin</b> - linear scaling (default) </td></tr>
<tr><td> </td><td><b>&lt;Level&gt;:log</b> - logarithmic scaling </td></tr> <tr><td> </td><td><b>&lt;Level&gt;:log</b> - logarithmic scaling </td></tr>
<tr><td> </td><td><b>&lt;Ebene&gt;:staple</b> - The bars are ‘stacked’, with the secondary bar displayed above the primary bar. </td></tr> <tr><td> </td><td><b>&lt;Ebene&gt;:staple</b> - The bars are ‘stacked’, with the secondary bar displayed above the primary bar. </td></tr>
<tr><td> </td><td> </td></tr> <tr><td> </td><td> </td></tr>
<tr><td> <b>showDiff</b> </td><td>Additional numerical display of the difference '&lt;primary bar content&gt; - &lt;secondary bar content&gt;'. </td></tr> <tr><td> <b>showDiff</b> </td><td>Additional numerical display of the difference '&lt;primary bar content&gt; - &lt;secondary bar content&gt;'. </td></tr>
<tr><td> </td><td>The specification for each level consists of the level number (1..X), a ':' followed by the position 'top' or 'bottom'. </td></tr> <tr><td> </td><td>The specification for each level consists of the level number (1..X), a ':' followed by the position 'top' or 'bottom'. </td></tr>
<tr><td> </td><td>The strings for each level are separated by commas (see example). </td></tr> <tr><td> </td><td>The strings for each level are separated by commas (see example). </td></tr>
<tr><td> </td><td><b>&lt;Level&gt;:top</b> - display above the bars </td></tr> <tr><td> </td><td><b>&lt;Level&gt;:top</b> - display above the bars </td></tr>
<tr><td> </td><td><b>&lt;Level&gt;:bottom</b> - display below the bars </td></tr> <tr><td> </td><td><b>&lt;Level&gt;:bottom</b> - display below the bars </td></tr>
<tr><td> </td><td> </td></tr> <tr><td> </td><td> </td></tr>
<tr><td> <b>spaceSize</b> </td><td>Defines how much space in px is kept free above or below the bar (for display type layoutType=diff) to display the </td></tr> <tr><td> <b>spaceSize</b> </td><td>Defines how much space in px is kept free above or below the bar (for display type layoutType=diff) to display the </td></tr>
<tr><td> </td><td>values. For styles with large fonts, the default value may be too small or a bar may slide over the baseline. </td></tr> <tr><td> </td><td>values. For styles with large fonts, the default value may be too small or a bar may slide over the baseline. </td></tr>
<tr><td> </td><td>In these cases, please increase the value. </td></tr> <tr><td> </td><td>In these cases, please increase the value. </td></tr>
@@ -27257,7 +27344,7 @@ to ensure that the system configuration is correct.
<tr><td> </td><td> </td></tr> <tr><td> </td><td> </td></tr>
<tr><td> <b>genPVdeviation</b> </td><td>Defines the method for calculating the deviation between forecast and actual PV generation. </td></tr> <tr><td> <b>genPVdeviation</b> </td><td>Defines the method for calculating the deviation between forecast and actual PV generation. </td></tr>
<tr><td> </td><td>The reading <b>Today_PVdeviation</b> is created depending on this setting. </td></tr> <tr><td> </td><td>The reading <b>Today_PVdeviation</b> is created depending on this setting. </td></tr>
<tr><td> </td><td>The optional addition ‘:reverse’ specifies that PV generation > forecast is displayed as a positive value instead of a negative value (change of perspective). </td></tr> <tr><td> </td><td>The optional addition ':reverse' specifies that PV generation > forecast is evaluated as a positive value instead of a negative value (change of perspective). </td></tr>
<tr><td> </td><td><b>daily[:reverse]</b> - Calculation and creation of Today_PVdeviation takes place after sunset (default) </td></tr> <tr><td> </td><td><b>daily[:reverse]</b> - Calculation and creation of Today_PVdeviation takes place after sunset (default) </td></tr>
<tr><td> </td><td><b>continuously[:reverse]</b> - Calculation and creation of Today_PVdeviation is continuous </td></tr> <tr><td> </td><td><b>continuously[:reverse]</b> - Calculation and creation of Today_PVdeviation is continuous </td></tr>
<tr><td> </td><td> </td></tr> <tr><td> </td><td> </td></tr>
@@ -29207,7 +29294,7 @@ die ordnungsgemäße Anlagenkonfiguration geprüft werden.
<tr><td> </td><td><b>2</b> - der Verbraucher wird in der Verbraucherlegende ausgeblendet </td></tr> <tr><td> </td><td><b>2</b> - der Verbraucher wird in der Verbraucherlegende ausgeblendet </td></tr>
<tr><td> </td><td><b>3</b> - der Verbraucher wird in der Flußgrafik ausgeblendet </td></tr> <tr><td> </td><td><b>3</b> - der Verbraucher wird in der Flußgrafik ausgeblendet </td></tr>
<tr><td> </td><td><b>9</b> - das Schaltelement des Verbrauchers wird in der Verbraucherlegende ausgeblendet </td></tr> <tr><td> </td><td><b>9</b> - das Schaltelement des Verbrauchers wird in der Verbraucherlegende ausgeblendet </td></tr>
<tr><td> </td><td><b>[Device:]Reading</b> - Reading im Verbraucher oder (optional) einem alternativen Device. </td></tr> <tr><td> </td><td><b>[Device:]Reading</b> - Reading im Verbraucher oder (optional) einem alternativen Device. </td></tr>
<tr><td> </td><td>Hat das Reading den Wert 0 oder ist nicht vorhanden, wird der Verbraucher eingeblendet. </td></tr> <tr><td> </td><td>Hat das Reading den Wert 0 oder ist nicht vorhanden, wird der Verbraucher eingeblendet. </td></tr>
<tr><td> </td><td>Die Wirkung der möglichen Readingwerte 1, 2 und 3 ist wie beschrieben. </td></tr> <tr><td> </td><td>Die Wirkung der möglichen Readingwerte 1, 2 und 3 ist wie beschrieben. </td></tr>
<tr><td> </td><td> </td></tr> <tr><td> </td><td> </td></tr>
@@ -29400,7 +29487,8 @@ die ordnungsgemäße Anlagenkonfiguration geprüft werden.
<tr><td> <b>conForecastTillNextSunrise</b> </td><td>Verbrauchsprognose von aktueller Stunde bis zum kommenden Sonnenaufgang </td></tr> <tr><td> <b>conForecastTillNextSunrise</b> </td><td>Verbrauchsprognose von aktueller Stunde bis zum kommenden Sonnenaufgang </td></tr>
<tr><td> <b>currentAPIinterval</b> </td><td>das aktuelle Abrufintervall der gewählten Strahlungsdaten-API in Sekunden </td></tr> <tr><td> <b>currentAPIinterval</b> </td><td>das aktuelle Abrufintervall der gewählten Strahlungsdaten-API in Sekunden </td></tr>
<tr><td> <b>currentRunMtsConsumer_XX</b> </td><td>die Laufzeit (Minuten) des Verbrauchers "XX" seit dem letzten Einschalten. (letzter Laufzyklus) </td></tr> <tr><td> <b>currentRunMtsConsumer_XX</b> </td><td>die Laufzeit (Minuten) des Verbrauchers "XX" seit dem letzten Einschalten. (letzter Laufzyklus) </td></tr>
<tr><td> <b>dayAfterTomorrowPVforecast</b> </td><td>liefert die Vorhersage der PV Erzeugung für Übermorgen (sofern verfügbar) ohne Autokorrektur (Rohdaten). </td></tr> <tr><td> <b>dayAfterTomorrowPVforecast</b> </td><td>Liefert die Vorhersage der PV Erzeugung für Übermorgen (sofern verfügbar) ohne Autokorrektur (Rohdaten). </td></tr>
<tr><td> <b>dummyConsumption</b> </td><td>Liefert den aktuellen, Verbrauchern nicht zuordenbaren Hausverbrauch. Enthält auch Verlustleistungsanteile. </td></tr>
<tr><td> <b>daysUntilBatteryCare_XX</b> </td><td>Tage bis zur nächsten Batterie XX Pflege (Erreichen der Ladung 'maxSoC' aus Attribut ctrlBatSocManagementXX) </td></tr> <tr><td> <b>daysUntilBatteryCare_XX</b> </td><td>Tage bis zur nächsten Batterie XX Pflege (Erreichen der Ladung 'maxSoC' aus Attribut ctrlBatSocManagementXX) </td></tr>
<tr><td> <b>lastretrieval_time</b> </td><td>der letzte Abrufzeitpunkt der gewählten Strahlungsdaten-API </td></tr> <tr><td> <b>lastretrieval_time</b> </td><td>der letzte Abrufzeitpunkt der gewählten Strahlungsdaten-API </td></tr>
<tr><td> <b>lastretrieval_timestamp</b> </td><td>der Timestamp der letzen Abrufzeitpunkt der gewählten Strahlungsdaten-API </td></tr> <tr><td> <b>lastretrieval_timestamp</b> </td><td>der Timestamp der letzen Abrufzeitpunkt der gewählten Strahlungsdaten-API </td></tr>
@@ -29607,11 +29695,11 @@ die ordnungsgemäße Anlagenkonfiguration geprüft werden.
<table> <table>
<colgroup> <col width="15%"> <col width="85%"> </colgroup> <colgroup> <col width="15%"> <col width="85%"> </colgroup>
<tr><td> <b>beamHeightlevel</b> </td><td>Für jede Ebene der Balkengrafik kann die Balkenhöhe der jeweiligen Ebene festgelegt werden. </td></tr> <tr><td> <b>beamHeightlevel</b> </td><td>Für jede Ebene der Balkengrafik kann die Balkenhöhe der jeweiligen Ebene festgelegt werden. </td></tr>
<tr><td> </td><td>Die Angabe für eine Ebene besteht aus der Ebenen-Nummer (1..X), einem ':' gefolgt von einer positiven Ganzzahl > 0. </td></tr> <tr><td> </td><td>Die Angabe für eine Ebene besteht aus der Ebenen-Nummer (1..X), einem ':' gefolgt von einer positiven Ganzzahl > 0. </td></tr>
<tr><td> </td><td>Der Zahlenwert wird als Normierungsfaktor bei der Höhenberechnung verwendet. </td></tr> <tr><td> </td><td>Der Zahlenwert wird als Normierungsfaktor bei der Höhenberechnung verwendet. </td></tr>
<tr><td> </td><td>Die Angabe für weitere Ebenen erfolgt durch Komma getrennt (siehe Beispiel). </td></tr> <tr><td> </td><td>Die Angabe für weitere Ebenen erfolgt durch Komma getrennt (siehe Beispiel). </td></tr>
<tr><td> </td><td><b>&lt;Ebene&gt;:&lt;Ganzzahl&gt;</b> - Normierungsfaktor (default: 200) </td></tr> <tr><td> </td><td><b>&lt;Ebene&gt;:&lt;Ganzzahl&gt;</b> - Normierungsfaktor (default: 200) </td></tr>
<tr><td> </td><td> </td></tr> <tr><td> </td><td> </td></tr>
<tr><td> <b>beamPaddingBottom</b> </td><td>Legt den Platz in px im Balkendiagramm fest, der zwischen der letzten Text- oder Iconreihe der jeweiligen Balkengrafik Ebene </td></tr> <tr><td> <b>beamPaddingBottom</b> </td><td>Legt den Platz in px im Balkendiagramm fest, der zwischen der letzten Text- oder Iconreihe der jeweiligen Balkengrafik Ebene </td></tr>
<tr><td> </td><td>und dem unteren Rand dieser Ebene eingefügt wird. </td></tr> <tr><td> </td><td>und dem unteren Rand dieser Ebene eingefügt wird. </td></tr>
<tr><td> </td><td>Der Wert gilt einheitlich für alle Balkengrafik Ebenen. </td></tr> <tr><td> </td><td>Der Wert gilt einheitlich für alle Balkengrafik Ebenen. </td></tr>
@@ -29653,18 +29741,18 @@ die ordnungsgemäße Anlagenkonfiguration geprüft werden.
<tr><td> </td><td> </td></tr> <tr><td> </td><td> </td></tr>
<tr><td> <b>scaleMode</b> </td><td>Für jede Ebene der Balkengrafik kann der Skalierungsmodus linear oder logarithmisch festgelegt werden. </td></tr> <tr><td> <b>scaleMode</b> </td><td>Für jede Ebene der Balkengrafik kann der Skalierungsmodus linear oder logarithmisch festgelegt werden. </td></tr>
<tr><td> </td><td>Die logarithmische Einstellung hebt kleine Werte stärker an und komprimiert größere Werte in der Darstellung. </td></tr> <tr><td> </td><td>Die logarithmische Einstellung hebt kleine Werte stärker an und komprimiert größere Werte in der Darstellung. </td></tr>
<tr><td> </td><td>Die Angabe für eine Ebene besteht aus der Ebenen-Nummer (1..X), einem ':' gefolgt von dem Modus 'lin' oder 'log'. </td></tr> <tr><td> </td><td>Die Angabe für eine Ebene besteht aus der Ebenen-Nummer (1..X), einem ':' gefolgt von dem Modus 'lin' oder 'log'. </td></tr>
<tr><td> </td><td>Die Strings für jede Ebene werden durch Komma getrennt (siehe Beispiel). </td></tr> <tr><td> </td><td>Die Strings für jede Ebene werden durch Komma getrennt (siehe Beispiel). </td></tr>
<tr><td> </td><td><b>&lt;Ebene&gt;:lin</b> - lineare Skalierung (default) </td></tr> <tr><td> </td><td><b>&lt;Ebene&gt;:lin</b> - lineare Skalierung (default) </td></tr>
<tr><td> </td><td><b>&lt;Ebene&gt;:log</b> - logarithmische Skalierung </td></tr> <tr><td> </td><td><b>&lt;Ebene&gt;:log</b> - logarithmische Skalierung </td></tr>
<tr><td> </td><td><b>&lt;Ebene&gt;:staple</b> - die Balken werden 'gestapelt', der sekundäre Balken wird über dem primären Balken dargestellt </td></tr> <tr><td> </td><td><b>&lt;Ebene&gt;:staple</b> - die Balken werden 'gestapelt', der sekundäre Balken wird über dem primären Balken dargestellt </td></tr>
<tr><td> </td><td> </td></tr> <tr><td> </td><td> </td></tr>
<tr><td> <b>showDiff</b> </td><td>Zusätzliche numerische Anzeige der Differenz '&lt;primärer Balkeninhalt&gt; - &lt;sekundärer Balkeninhalt&gt;'. </td></tr> <tr><td> <b>showDiff</b> </td><td>Zusätzliche numerische Anzeige der Differenz '&lt;primärer Balkeninhalt&gt; - &lt;sekundärer Balkeninhalt&gt;'. </td></tr>
<tr><td> </td><td>Die Angabe für jede Ebene besteht aus der Ebenen-Nummer (1..X), einem ':' gefolgt von der Position 'top' oder 'bottom'. </td></tr> <tr><td> </td><td>Die Angabe für jede Ebene besteht aus der Ebenen-Nummer (1..X), einem ':' gefolgt von der Position 'top' oder 'bottom'. </td></tr>
<tr><td> </td><td>Die Strings für jede Ebene werden durch Komma getrennt (siehe Beispiel). </td></tr> <tr><td> </td><td>Die Strings für jede Ebene werden durch Komma getrennt (siehe Beispiel). </td></tr>
<tr><td> </td><td><b>&lt;Ebene&gt;:top</b> - Anzeige über den Balken </td></tr> <tr><td> </td><td><b>&lt;Ebene&gt;:top</b> - Anzeige über den Balken </td></tr>
<tr><td> </td><td><b>&lt;Ebene&gt;:bottom</b> - Anzeige unter den Balken </td></tr> <tr><td> </td><td><b>&lt;Ebene&gt;:bottom</b> - Anzeige unter den Balken </td></tr>
<tr><td> </td><td> </td></tr> <tr><td> </td><td> </td></tr>
<tr><td> <b>spaceSize</b> </td><td>Legt fest, wieviel Platz in px über oder unter den Balken (bei Anzeigetyp layoutType=diff) zur Anzeige der </td></tr> <tr><td> <b>spaceSize</b> </td><td>Legt fest, wieviel Platz in px über oder unter den Balken (bei Anzeigetyp layoutType=diff) zur Anzeige der </td></tr>
<tr><td> </td><td>Werte freigehalten wird. Bei Styles mit großen Fonts kann der default-Wert zu klein sein bzw. rutscht ein </td></tr> <tr><td> </td><td>Werte freigehalten wird. Bei Styles mit großen Fonts kann der default-Wert zu klein sein bzw. rutscht ein </td></tr>
<tr><td> </td><td>Balken u.U. über die Grundlinie. In diesen Fällen bitte den Wert erhöhen. </td></tr> <tr><td> </td><td>Balken u.U. über die Grundlinie. In diesen Fällen bitte den Wert erhöhen. </td></tr>
@@ -29913,7 +30001,7 @@ die ordnungsgemäße Anlagenkonfiguration geprüft werden.
<tr><td> </td><td> </td></tr> <tr><td> </td><td> </td></tr>
<tr><td> <b>genPVdeviation</b> </td><td>Legt die Methode zur Berechnung der Abweichung von prognostizierter und realer PV Erzeugung fest. </td></tr> <tr><td> <b>genPVdeviation</b> </td><td>Legt die Methode zur Berechnung der Abweichung von prognostizierter und realer PV Erzeugung fest. </td></tr>
<tr><td> </td><td>Das Reading <b>Today_PVdeviation</b> wird in Abhängigkeit dieser Einstellung erstellt. </td></tr> <tr><td> </td><td>Das Reading <b>Today_PVdeviation</b> wird in Abhängigkeit dieser Einstellung erstellt. </td></tr>
<tr><td> </td><td>Der optionale Zusatz ':reverse' legt fest, dass PV-Erzeugung > Prognose als positiver statt negativer Wert dargestellt wird (Perspektivwechsel). </td></tr> <tr><td> </td><td>Der optionale Zusatz ':reverse' legt fest, dass PV-Erzeugung > Prognose als positiver statt negativer Wert gewertet wird (Perspektivwechsel). </td></tr>
<tr><td> </td><td><b>daily[:reverse]</b> - Berechnung und Erstellung von Today_PVdeviation erfolgt nach Sonnenuntergang (default) </td></tr> <tr><td> </td><td><b>daily[:reverse]</b> - Berechnung und Erstellung von Today_PVdeviation erfolgt nach Sonnenuntergang (default) </td></tr>
<tr><td> </td><td><b>continuously[:reverse]</b> - Berechnung und Erstellung von Today_PVdeviation erfolgt fortlaufend </td></tr> <tr><td> </td><td><b>continuously[:reverse]</b> - Berechnung und Erstellung von Today_PVdeviation erfolgt fortlaufend </td></tr>
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