In diesem Dokument werden Sicherheits- und Warnhinweise verwendet, welche zur persönlichen Sicherheit und vermeidung von Sachschäden
befolgt werden müssen.
Ein Nichtbeachten führt zu Tod oder schwerer Körperverletzung.
Ein Nichtbeachten kann zu Sach- oder Personenschäden führen.
Ein Nichtbeachten kann dazu führen, dass das Gerät nicht die erwartete Funktionalität erfüllt oder beschädigt wird.
Die Installation und Inbetriebnahme darf nur durch geschultes Personal erfolgen. Überprüfen Sie vor der Inbetriebnahme, dass:
- die maximalen Werte aller Anschlüsse nicht überschritten werden, siehe Kapitel "Technische Daten",
- die Anschlussleitungen nicht beschädigt und bei der Verdrahtung spannungsfrei sind
- Energierichtung und Phasenfolge stimmen.
Das Gerät muss ausser Betrieb gesetzt werden, wenn ein gefahrloser Betrieb (z.B. sichtbare Beschädigungen) nicht mehr möglich ist. Dabei
sind alle Anschlüsse abzuschalten. Das Gerät ist an unser Werk bzw. an eine durch uns autorisierte Servicestelle zu schicken.
Ein Önen des Gehäuses bzw. Eingri in das Gerät ist verboten. Das Gerät hat keinen eigenen Netzschalter. Achten Sie darauf, dass beim
Einbau ein gekennzeichneter Schalter in der Installation vorhanden ist und dieser vom Benutzer leicht erreicht werden kann.
Bei einem Eingri in das Gerät erlischt der Garantieanspruch.
Es ist zu beachten, dass die auf dem Typenschild angegebenen Daten eingehalten werden!
Es sind die landesüblichen Vorschriften bei der Installation und Auswahl des Materials der elektrischen Leitungen zu befolgen!
1.2 Qualifiziertes Personal
Das in diesem Dokument beschriebene Produkt darf nur von Personal gehandhabt werden, welches für die jeweilige Aufgabenstellung qualifiziert
ist. Qualifiziertes Personal hat die Ausbildung und Erfahrung um Risiken und Gefährdungen im Umgang mit dem Produkt erkennen zu können. Es
ist in der Lage die enthaltenen Sicherheits- und Warnhinweise zu verstehen und zu befolgen.
Das in diesem Dokument beschriebene Produkt darf nur für den von uns beschriebenen Anwendungszweck eingesetzt werden. Die in den technischen Daten angegebenen maximalen Anschlusswerte und zulässigen Umgebungsbedingungen müssen dabei eingehalten werden. Für den
einwandfreien und sicheren Betrieb des Gerätes wird sachgemässer Transport und Lagerung sowie fachgerechte Lagerung, Montage, Installation, Bedienung und Wartung vorausgesetzt.
1.4 Haftungsausschluss
Der Inhalt dieses Dokuments wurde auf Korrektheit geprüft. Es kann trotzdem Fehler oder Abweichungen enthalten, so dass wir für die Vollständigkeit und Korrektheit keine Gewähr übernehmen. Dies gilt insbesondere auch für verschiedene Sprachversionen dieses Dokuments. Dieses
Dokument wird laufend überprüft und ergänzt. Erforderliche Korrekturen werden in nachfolgende Versionen übernommen und sind via unsere
Webpage www.camillebauer.com verfügbar.
1.5 Rückmeldung
Falls Sie Fehler in diesem Dokument feststellen oder erforderliche Informationen nicht vorhanden sind, melden Sie dies bitte via E-Mail an:
customer-support@camillebauer.com
1.6 Reparaturen und Änderungen
Reparatur und Änderungen dürfen ausschließlich vom Hersteller durchgeführt werden. Önen Sie das Gehäuse des Gerätes nicht. Falls irgendwelche unbefugten Änderungen am Gerät vorgenommen werden, erlischt der Garantieanspruch. Für Geräte, die nicht im Werk geönet wurden,
kann keine Gewährleistung oder Garantie übernommen werden. Wir behalten uns das Recht vor, das Produkt für Verbesserungen zu verändern.
1.7 Kalibration und Neuabgleich
Jedes Gerät wird vor der Auslieferung abgeglichen und geprüft. Der Auslieferungszustand wird erfasst und in elektronischer Form abgelegt. Die
Messunsicherheit von Messgeräten kann sich während des Betriebs ändern, falls z.B. die spezifizierten Umgebungsbedingungen nicht eingehalten werden.
1.8 Entsorgung
Geräte dürfen nur fachgerecht entsorgt werden!
Die Entsorgung der Geräte und Bestandteile darf nur unter Einhaltung guter professioneller Praktiken und nationaler Vorschriften
entsorgt werden. Eine falsche Entsorgung kann die Umwelt gefährden.
1.9 Rücksendung
Alle an Camille Bauer Metrawatt AG gesandten Geräte müssen frei von allen gefährlichen Verunreinigungen sein (Säuren, Laugen, Lösungsmitteln, usw.). Benutzen Sie die Originalverpackung oder eine geeignete Transportverpackung zur Rücksendung des Geräts.
Beschädigung bei der Rücksendung
Für Schäden, die durch eine unsachgemäße Rücksendung hervorgerufen werden, wird keine Gewährleistung oder Garantie
übernommen.
2. Einleitung
2.1 Bestimmung des Dokuments
Dieses Dokument beschreibt die Dreiphasen-Netzmessgerät SIRAX MT7100 und MT7150. Es richtet sich an Installateure, Inbetriebsetzer,
Service- und Wartungspersonal.
Gültigkeitsbereich
Diese Betriebsanleitung ist für alle Varianten der Dreiphasen-Netzmessgerät SIRAX MT7100 und MT7150 gültig.
Vorkenntnisse
Allgemeine Kenntnisse der Elektrotechnik sind erforderlich. Für Montage und Anschluss wird die Kenntnis der landesüblichen Sicherheitsbestimmungen und Installationsnormen vorausgesetzt.
2.2 Lieferumfang
•
Dreiphasen-Netzmessgerät SIRAX MT7100 oder MT7150 mit Montage-Set
•
Sicherheitshinweise (de, en, fr, it, es, nl, cz)
2.3 Weitere Unterlagen
Folgende weitere Dokumente zum Gerät sind elektronisch via www.camillebauer.com verfügbar:
Der SIRAX MT7100 und MT7150 sind "All in One" Dreiphasen-Netzmessgeräte mit integriertem Energiezähler und universellen Stromeingang. Sie
sind für den Hutschieneneinbau konzipiert und lassen sich an gängige Strom- und Spannungswandler und Rogowski Spulen anschliessen. Die Geräte
messen RMS AC und DC, durchschnittliche min. und max. Werte, Frequenz, Crest Faktor, harmonische bis zur 63., THD, I
Sie sind mit einem seriellen Ausgang RS485 Modbus RTU für Messwerte und einem digitalen Ausgang für Alarme ausgestattet. Über die kostenlose
Konfigurationssoftware lassen sich die Geräte sehr einfach konfigurieren.
peak
und U
und viele mehr.
peak
4. Montage und Installation
Sorgen Sie während der Montage, Installations- und Wartungsarbeiten für eine sichere Arbeitsumgebung. Unterbrechen Sie die
Stromzufuhr des Primärleiters und sichern Sie diese gegen unbeabsichtigtes Wiedereinschalten.
• Die Montage erfolgt über DIN-Hutschienenmontage und die Einbaulage der Geräte ist beliebig.
• Schliessen Sie nun das Gerät gemäss Anschlussschema an.
5. Elektrische Anschlüsse
Achtung: Lebensgefahr! Sicherstellen, dass beim Anschluss alle Leitungen spannungsfrei sind !
Es ist zu beachten, dass die auf dem Typenschild angegebenen Daten eingehalten werden!
Es sind die landesüblichen Vorschriften bei der Installation und Auswahl des Materials der elektrischen Leitungen zu befolgen!
GehäusematerialPTB
BrennbarkeitsklasseUL94 V-0, selbstverlöschend, nicht tropfend, halogenfrei
Gewicht60 g
DIP Switch2 Pol
Dimensionen93 x 17.7 x 68.3 mm (ohne Klemmen)
Anschlüsse
Anschlüsse
Anschlussquerschnitt1.5 mm
Steckklemmen 3.5 mm, 1 x 2 Pol, 1 x 3 Pol, 1 x 6 Pol
Fenster: geschlossener Kontakt zwischen den Schwellen
Hinweis: Um digitale Ausgangsalarme zu aktivieren, müssen die RS485-Anschlüsse für den digitalen Ausgang konfiguriert werden. Die Kommu-
nikation wird nur am T-BUS verfügbar sein.
Fenster: geschlossener Kontakt ausserhalb der Schwellen
Genauigkeit (nach EN50470-3 und EN62053-24)
Wh, Genauigkeit abhängig von der Belastung (Stromausgang CT)
Wh, Genauigkeit abhängig von der Last (Spannungsausgang CT)VARh, Genauigkeit abhängig von der Last (Spannungsausgang CT)
VARh, Genauigkeit abhängig von der Last (Stromausgang CT)
Hinweis: Die Genauigkeit der Blindleistung wird gewährt, wenn die Q-Berechnung des Geräts der Budeanu-Formel entspricht.
Der SIRAX MT7100 und MT7150 lassem sich auf zwei Arten programmieren. Zum Einen über die serielle RS485-USB Schnittstelle und der
Programmiersoftware und zum Andern über der direkten Verwendung der Modbus Adress-Register.
Wenn Sie die Geräte über die Programmiersoftware einstellen möchten, stellen Sie die DIP-Schalter auf 0. Wenn Sie direkt über die RS485 Modbus Schnittstelle einstellen wollen, stellen Sie den ersten DIP-Schalter auf 1 (oben) und dann den zweiten für die Baudrateneinstellung ein 0 für
9600 oder 1 für 38400. Nach den Einstellungen speichern Sie bitte die Konfiguration über das Befehls-Register, schalten Sie dann die Stromversorgung aus, bevor Sie zum Einschalten der Stromversorgung die DIP-Schalter auf 0 setzen.
Jegliche Änderungen durch den DIP-Schalter machen das Abschalten der Stromversorgung erforderlich. Es ist eine Sicherheitsbedingung, um jegliche
Störung auf dem Gerät zu verhindern.
7.1 Programmierung über Software
Laden Sie sich die Programmiersoftware kostenlos von unserer Homepage www.camillebauer.com herunter. Bevor Sie die Software verwenden
können, kontrollieren Sie, ob Sie Java (32-Bit) auf Ihrem Rechner installiert haben. Wenn nicht, dann laden Sie die Java Software von der Hompage
www.java.com herunter.
Um die Menüsprache der Software ändern zu können, gehen Sie in das heruntergeladene Verzeichnis der Software. Önen Sie das File "023.ini" mit
einem Text Editor Programm. Ändern Sie nun die aufgeführte Sprache z.B. "EN" in die gewünschte Sprache z.B. "DE". Bitte beachten Sie, dass nur
die im Verzeichnis aufgeführten Sprachen geändert werden können.
7.1.1 Konfiguration
Beschreibung12
RS485 Einstellungen vom EEPROM0X
Adresse 1 - Baudrate 9600, no parity10
Adresse 1 - Baudrate 38400, no paritiy11
Starten Sie die Software mit der Datei SIRAX MT71xx_023_v003.jar
Klicken Sie nun auf "WEITER" um in das Menüfenster Verbindung zu
gelangen.
In diesem Modus können Sie wählen, ob Sie das Gerät über eine
direkte Verbindung via RS485-USB, oder im Offline-Modus programmieren möchten.
Wählen Sie den Modus "Verbindung mit RS485 Anschluss", dann
gelangen Sie zum Menü "Einstellung DIP-Schalter"
Wählen Sie den Modus "Keine Verbindung (OFF-Line), dann gelangen
Sie DIREKT zum Menü "Konfiguration".
Stellen Sie die DIP-Schalter gemäss Vorlage ein. Genaue Angaben der
einzelnen Positionen der DIP-Schalter entnehmen Sie aus der Tabelle
"DIP-Schalter Einstellungen" auf Seite 10.
Drücken Sie auf "Weiter".
Um mit dem SIRAX MT7100 oder MT7150 zu kommunizieren, überprüfen Sie den verfügbaren COM PORT, indem Sie auf die Schaltfläche
"AKTUALISIEREN" klicken. Ihr PC wird eine virtuelle COM für die
Kommunikation mit dem SIRAX MT7100 oder MT7150 zuweisen.
Klicken Sie auf den Button "VERBINDUNG MIT DEM GERÄT HERSTELLEN".
Sie sehen ein Fenster, in dem Sie gefragt werden, ob Sie mit dem
Gerät verbunden sind. Klicken Sie dann auf diesen Button in diesem
Fenster "WEITER". Nachdem Sie die Verbindung hergestellt haben,
können Sie mit der Konfiguration des Geräts fortfahren.
Wählen Sie nun die Art der Konfigurationserstellung aus.
Dies ist die Gerätekonfigurationsseite, auf der die Parameter für die
Modbus Kommunikation eingestellt werden:
1. Die Modbus "ADRESSE", die dem Gerät zugewiesen werden soll
2. Der "Verzug" auf Antwort;
3. Die Geschwindigkeitskommunikation "BAUDRATE"
(von 1200 bis 115200)
4. Die Parität ist immer Keine
Um die Standardeinstellungen zu verwenden, klicken Sie auf die Schaltfläche "WERKSEINSTELLUNGEN"
Dies ist die Gerätekonfigurationsseite, auf der die allgemeinen Eingangseinstellungen eingestellt werden. Es lassen sich folgende Parameter einstellen:
• Stromeingang
• Anschlussparameter
• Berechnungsmethode der Blindleistung
• Quelle der Frequenzmessung
• Faktor Energieeinheit
• Energiespeicher ein/aus
• Messwerttyp
• Integrationszustand
• Messungsfilter
Dies ist die Gerätekonfigurationsseite, auf der die Leistungseinstellungen
vorgenommen werden. Es lassen sich folgende Parameter einstellen:
• Wandlerverhältnisse
• Min. Welligkeit Spannung, Strom und Leisung
• AC oder DC Filter
Dies ist die Gerätekonfigurationsseite, auf der die Alarmeinstellungen
eingestellt werden. Es gibt zwei Arten von wählbaren Alarmen, die Eine
mit LED und die Andere mit Kontakt (Switch).
LED ALARM
Überprüfen Sie das Vorhandensein von Anomalien, der Benutzer kann
Fehler-LED aktivieren, indem eine oder mehrere der vorhandenen
Flags wählt.
SWITCH ALARM
Wenn Sie den gewünschten Parameter im Dropdown-Menü auswählen, stellen Sie den Schwellenwert und den Hysteresewert ein, um den
Alarm am digitalen Ausgang zu aktivieren.
0=Geschlossene Ausgangsbedingung
1=Fenster: geschlossener Kontakt zwischen Schwellen
2=Oene Ausgangsbedingung
3=Fenster: geschlossener Kontakt ausserhalb Schwellen
Bit 15: Filterung der Messwerte
0=Filter deaktiviert
1=Filter aktiviert
40008LED Einstellungen
Stellen Sie die Fehler LED entsprechend dem Bit ein:
0=Fehler EEPROM (Einstellungen, Kalibrierung oder Energie)
1=Phasenumkehr
40011Stromwandlerverzögerung Stromwandlerverzögerung in [°] @ 50 Hz für genaue
Leistungsberechnung
40013Spannungswandlerbereich Spannungswandlerbereich M/N - Standard 1.0
(Bsp .: 1000:100 → Wandlerverhältnis = 10)
40015Spannungswandler-
verzögerung
40017Minimale
Spannungswelligkeit
40019Minimale Stromwelligkeit Mindestschwelle, bei der das Gerät 0 liest unabhängig
40021Minimale
Leistungswelligkeit
40023DC FilterAnzahl der Zehntelsekunden für den I RMS-Wert in DCUnsigned shortR/W10
40024AC FilterAnzahl der Nulldurchgänge für den I RMS-Wert in ACUnsigned shortR/W50
40025Minute_für_Max_
Anforderung
40027Sekunden_zum_
Mittelwert_RMS
40028Sekunden_für_Max_RMS Sekunden 1..30 für MAX RMS-Wert. Wenn das Regis-
40029Sekunden_für_Min_RMS Sekunden 1..30 für minimalen RMS-Wert. Wenn das
40030Faktor der Energieeinheit Variable zum Ändern der Energiemesseinheit:
40036Alarm_Register_Start_
Adresse
40037Alarm_Trip_WertAlarmschwelle für "geschlossen" und "oen" oder
40039Alarm HystereseAlarm HystereseFloatR/W1
40041Alarm_Trip_Wert 2Zweite Alarmschwelle für "innerhalb der Schwelle" und
40043Leistungsschwelle für
Überschreitung
40045Nominale
Sternspannung
40047Sag ProzentsatzProzentsatz über der nominalen Sternspannung, unter
40049Swell ProzentsatzProzentsatz über der nominalen Sternspannung, über
40051Prozentsatz der
Unterbrechung
40053Mindestdauer-
Abschaltung
Spannungswandlerverzögerung in [°] @ 50 Hz für
genaue Leistungsberechnung
Mindestschwelle, bei der das Gerät 0 liest unabhängig
vom Eingangswert
vom Eingangswert
Mindestschwelle, bei der das Gerät 0 liest unabhängig
vom Eingangswert (P, Q und S)
Minute für maximale Bedarfsberechnung (0..45)Unsigned shortR/W15
Registrierung in Sekunden (0...30) für den
RMS-Durchschnitt
ter 0 ist, wird der absolute MAX RMS angegebe
Register 0 ist, wird der absolute min RMS angegeben
Bit 1: Fehler Flash-Kalibrierung
Bit 2: Überspannung Strom I1
Bit 3: Unterspannung Strom I1
Bit 4: Überspannung Strom I2
Bit 5: Unterspannung Strom I2
Bit 6: Überspannung Strom I3
Bit 7: Unterspannung Strom I3
Bit 8: Überspannung Strom U1
Bit 9: Unterspannung Strom U1
Bit 10: Überspannung Strom U2
Bit 11: Unterspannung Strom U2
Bit 12: Überspannung Strom U3
Bit 13: Unterspannung Strom U3
Bit 14: Nulldurchgangserkennung
Bit 15: Switch oen
Bit 16: Wh Speicherfehler
Bit 17..18: spielt keine Rolle
Bit 19: Alarmerkennung
Bit 20...27: spielt keine Rolle
Bit 28: Führender Leistungsfaktor PF1
Bit 29: Führender Leistungsfaktor PF2
Bit 30: Führender Leistungsfaktor PF3
Reset-Befehl = 0xC1A0;
Energie sparen Befehl = 0xBABA;
Close Switch Befehl = 0xDAAA (nur wenn Digital
Output aktiviert ist);
Open Switch Befehl = 0xDAAB (nur wenn Digital
Output aktiviert ist);
Geben Sie den Bootloader-Befehl = 0xB000 ein;
Setzen Sie den MAX Demand-Registerbefehl =
0xF000 zurück
40245kWh 1Aktive Energieleitung 1 [Wh Zentel]Signed long longR/W
10249kWh 2Aktive Energieleitung 2 [Wh Zentel]Signed long longR/W
40253kWh 3Aktive Energieleitung 3 [Wh Zentel]Signed long longR/W
40257kWh SummeAktive Energie dreiphasig [Wh Zentel]Signed long longR/W
40261kWh 1 positivPositive aktive Energieleitung 1 [Wh Zentel]Signed long longR/W
40265kWh 2 positivPositive aktive Energieleitung 2 [Wh Zentel]Signed long longR/W
40269kWh 3 positivPositive aktive Energieleitung 3 [Wh Zentel]Signed long longR/W
40273kWh Summe positivPositive aktive Energie dreiphasig [Wh Zentel]Signed long longR/W
40277kWh 1 negativNegative aktive Energieleitung 1 [Wh Zentel]Signed long longR/W
40281kWh 2 negativNegative aktive Energieleitung 2 [Wh Zentel]Signed long longR/W
40285kWh 3 negativNegative aktive Energieleitung 3 [Wh Zentel]Signed long longR/W
40289kWh Summe negativNegative aktive Energie dreiphasig [Wh Zentel]Signed long longR/W
40293kVARh 1Blindenergie Leitung 1 [VARh Zentel]Signed long longR/W
40297kVARh 2Blindenergie Leitung 2 [VARh Zentel]Signed long longR/W
40301kVARh 3Blindenegie Leitung 3 [VARh Zentel]Signed long longR/W
40305kVARh SummeBlindenergie dreiphasig [VARh Zentel]Signed long longR/W
40309kVARh 1 induktivInduktive Blindenergie Leitung 1 [VARh Zentel]Signed long longR/W
40313kVARh 2 induktivInduktive Blindenergie Leitung 2 [VARh Zentel]Signed long longR/W
40317kVARh 3 induktivInduktive Blindenergie Leitung 3 [VARh Zentel]Signed long longR/W
40321kVARh Summe induktivInduktive Blindenergie dreiphasig [VARh Zentel]Signed long longR/W
40325kVARh 1 kapazitivKapazitive Blindenergie Leitung 1 [VARh Zentel]Signed long longR/W
40329kVARh 2 kapazitivKapazitive Blindenergie Leitung 2 [VARh Zentel]Signed long longR/W
40333kVARh 3 kapazitivKapazitive Blindenergie Leitung 3 [VARh Zentel]Signed long longR/W
40337kVARh Summe kapazitivKapazitive Blindenergie dreiphasig [VARh Zentel]Signed long longR/W
40341kVAh 1Scheinenergie Leitung 1 [VAh Zentel]Signed long longR/W
40345kVAh 2Scheinenergie Leitung 2 [VAh Zentel]Signed long longR/W
40349kVAh 3Scheinenergie Leitung 3 [VAh Zentel]Signed long longR/W
40353kVAh SummeScheinenergie dreiphasig [VAh Zentel]Signed long longR/W
40357Wh SpeicheranzahlAnzahl der Wh Flashspeicherung (alle 20 Sek.)Unsigned longR
40359U_L1_NRMS Sternspannung L1_N [V]FloatR
40361U_L2_NRMS Sternspannung L2_N [V]FloatR
40363U_L3_NRMS Sternspannung L3_N [V]FloatR
43307U_SAG_Wert_N_1Spannung SAG RMS-Wert (zwischen 10% und 90%
"Nenn-sternspannung") @ n-1
43309U_SAG_Jahr_N_1Spannung SAG Jahr @ n-1Unsigned shortR
43310U_SAG_Monat_N_1Spannung SAG Monat @ n-1Unsigned shortR
43311U_SAG_Tag_N_1Spannung SAG Tag @ n-1Unsigned shortR
43312U_SAG_Stunden_N_1Spannung SAG Stunden @ n-1Unsigned shortR
43313U_SAG_Minuten_N_1Spannung SAG Minuten @ n-1Unsigned shortR
43314U_SAG_Sekunden_N_1 Spannung SAG Sekunden @ n-1Unsigned shortR
43315U_SAG_Dauer_N_1Spannung SAG Dauer [ms] @ n-1Unsigned shortR
43316U_SAG_Query_N_1Spannung SAG Typ:
0: ND
1: U_L1N
2: U_L2N
3: U_L3N
4: U_L1L2
5: U_L2L3
6: U_L3L1
43317U_SAG_Wert_N_2Spannung SAG RMS-Wert (zwischen 10% und 90%
"Nenn-sternspannung") @ n-2
43319U_SAG_Jahr_N_2Spannung SAG Jahr @ n-2Unsigned shortR
43320U_SAG_Monat_N_2Spannung SAG Monat @ n-2Unsigned shortR
43321U_SAG_Tag_N_2Spannung SAG Tag @ n-2Unsigned shortR
43322U_SAG_Stunden_N_2Spannung SAG Stunden @ n-2Unsigned shortR
43323U_SAG_Minuten_N_2Spannung SAG Minuten @ n-2Unsigned shortR
43324U_SAG_Sekunden_N_2 Spannung SAG Sekunden @ n-2Unsigned shortR
43325U_SAG_Dauer_N_2Spannung SAG Dauer [ms] @ n-2Unsigned shortR
43326U_SAG_Query_N_2Spannung SAG Typ:
0: ND
1: U_L1N
2: U_L2N
3: U_L3N
4: U_L1L2
5: U_L2L3
6: U_L3L1
43327U_SAG_Wert_N_3Spannung SAG RMS-Wert (zwischen 10% und 90%
"Nenn-sternspannung") @ n-3
43329U_SAG_Jahr_N_3Spannung SAG Jahr @ n-3Unsigned shortR
43330U_SAG_Monat_N_3Spannung SAG Monat @ n-3Unsigned shortR
43331U_SAG_Tag_N_3Spannung SAG Tag @ n-3Unsigned shortR
43332U_SAG_Stunden_N_3Spannung SAG Stunden @ n-3Unsigned shortR
43333U_SAG_Minuten_N_3Spannung SAG Minuten @ n-3Unsigned shortR
43334U_SAG_Sekunden_N_3 Spannung SAG Sekunden @ n-3Unsigned shortR
43335U_SAG_Dauer_N_3Spannung SAG Dauer [ms] @ n-3Unsigned shortR
43336U_SAG_Query_N_3Spannung SAG Typ:
43337U_SAG_Wert_N_4Spannung SAG RMS-Wert (zwischen 10% und 90%
"Nenn-sternspannung") @ n-4
43339U_SAG_Jahr_N_4Spannung SAG Jahr @ n-4Unsigned shortR
43340U_SAG_Monat_N_4Spannung SAG Monat @ n-4Unsigned shortR
43341U_SAG_Tag_N_4Spannung SAG Tag @ n-4Unsigned shortR
43342U_SAG_Stunden_N_4Spannung SAG Stunden @ n-4Unsigned shortR
43343U_SAG_Minuten_N_4Spannung SAG Minuten @ n-4Unsigned shortR
43344U_SAG_Sekunden_N_4 Spannung SAG Sekunden @ n-4Unsigned shortR
43345U_SAG_Dauer_N_4Spannung SAG Dauer [ms] @ n-4Unsigned shortR
43346U_SAG_Query_N_4Spannung SAG Typ:
0: ND
1: U_L1N
2: U_L2N
3: U_L3N
4: U_L1L2
5: U_L2L3
6: U_L3L1
43347U_SAG_Wert_N_5Spannung SAG RMS-Wert (zwischen 10% und 90%
"Nenn-sternspannung") @ n-5
43349U_SAG_Jahr_N_5Spannung SAG Jahr @ n-5Unsigned shortR
43350U_SAG_Monat_N_5Spannung SAG Monat @ n-5Unsigned shortR
43351U_SAG_Tag_N_5Spannung SAG Tag @ n-5Unsigned shortR
43352U_SAG_Stunden_N_5Spannung SAG Stunden @ n-5Unsigned shortR
43353U_SAG_Minuten_N_5Spannung SAG Minuten @ n-5Unsigned shortR
43354U_SAG_Sekunden_N_5 Spannung SAG Sekunden @ n-5Unsigned shortR
43355U_SAG_Dauer_N_5Spannung SAG Dauer [ms] @ n-5Unsigned shortR
43356U_SAG_Query_N_5Spannung SAG Typ:
0: ND
1: U_L1N
2: U_L2N
3: U_L3N
4: U_L1L2
5: U_L2L3
6: U_L3L1
43357U_SAG_Wert_N_6Spannung SAG RMS-Wert (zwischen 10% und 90%
"Nenn-sternspannung") @ n-6
43359U_SAG_Jahr_N_6Spannung SAG Jahr @ n-6Unsigned shortR
43360U_SAG_Monat_N_6Spannung SAG Monat @ n-6Unsigned shortR
43361U_SAG_Tag_N_6Spannung SAG Tag @ n-6Unsigned shortR
43362U_SAG_Stunden_N_6Spannung SAG Stunden @ n-6Unsigned shortR
43363U_SAG_Minuten_N_6Spannung SAG Minuten @ n-6Unsigned shortR
43364U_SAG_Sekunden_N_6 Spannung SAG Sekunden @ n-6Unsigned shortR
43365U_SAG_Dauer_N_6Spannung SAG Dauer [ms] @ n-6Unsigned shortR
43366U_SAG_Query_N_6Spannung SAG Typ:
0: ND
1: U_L1N
2: U_L2N
3: U_L3N
4: U_L1L2
5: U_L2L3
6: U_L3L1
43367U_SAG_Wert_N_7Spannung SAG RMS-Wert (zwischen 10% und 90%
"Nenn-sternspannung") @ n-7
43369U_SAG_Jahr_N_7Spannung SAG Jahr @ n-7Unsigned shortR
43370U_SAG_Monat_N_7Spannung SAG Monat @ n-7Unsigned shortR
43371U_SAG_Tag_N_7Spannung SAG Tag @ n-7Unsigned shortR
43372U_SAG_Stunden_N_7Spannung SAG Stunden @ n-7Unsigned shortR
43373U_SAG_Minuten_N_7Spannung SAG Minuten @ n-7Unsigned shortR
43374U_SAG_Sekunden_N_7 Spannung SAG Sekunden @ n-7Unsigned shortR
43375U_SAG_Dauer_N_7Spannung SAG Dauer [ms] @ n-7Unsigned shortR
43377U_SAG_Wert_N_8Spannung SAG RMS-Wert (zwischen 10% und 90%
"Nenn-sternspannung") @ n-8
43379U_SAG_Jahr_N_8Spannung SAG Jahr @ n-8Unsigned shortR
43380U_SAG_Monat_N_8Spannung SAG Monat @ n-8Unsigned shortR
43381U_SAG_Tag_N_8Spannung SAG Tag @ n-8Unsigned shortR
43382U_SAG_Stunden_N_8Spannung SAG Stunden @ n-8Unsigned shortR
43383U_SAG_Minuten_N_8Spannung SAG Minuten @ n-8Unsigned shortR
43384U_SAG_Sekunden_N_8 Spannung SAG Sekunden @ n-8Unsigned shortR
43385U_SAG_Dauer_N_8Spannung SAG Dauer [ms] @ n-8Unsigned shortR
43386U_SAG_Query_N_8Spannung SAG Typ:
0: ND
1: U_L1N
2: U_L2N
3: U_L3N
4: U_L1L2
5: U_L2L3
6: U_L3L1
43387U_SAG_Wert_N_9Spannung SAG RMS-Wert (zwischen 10% und 90%
"Nenn-sternspannung") @ n-9
43389U_SAG_Jahr_N_9Spannung SAG Jahr @ n-9Unsigned shortR
43390U_SAG_Monat_N_9Spannung SAG Monat @ n-9Unsigned shortR
43391U_SAG_Tag_N_9Spannung SAG Tag @ n-9Unsigned shortR
43392U_SAG_Stunden_N_9Spannung SAG Stunden @ n-9Unsigned shortR
43393U_SAG_Minuten_N_9Spannung SAG Minuten @ n-9Unsigned shortR
43394U_SAG_Sekunden_N_9 Spannung SAG Sekunden @ n-9Unsigned shortR
43395U_SAG_Dauer_N_9Spannung SAG Dauer [ms] @ n-9Unsigned shortR
43396U_SAG_Query_N_9Spannung SAG Typ:
0: ND
1: U_L1N
2: U_L2N
3: U_L3N
4: U_L1L2
5: U_L2L3
6: U_L3L1
43397U_SAG_Wert_EEPROMSpannung SAG RMS-Wert (zwischen 10% und 90%
"Nenn-sternspannung") EEPROM Daten
43399U_SAG_Jahr_EEPROMSpannung SAG Jahr EEPROM DatenUnsigned shortR
43400U_SAG_Monat_EEPROM Spannung SAG Monat EEPROM DatenUnsigned shortR
43401U_SAG_Tag_EEPROMSpannung SAG Tag EEPROM DatenUnsigned shortR
43402U_SAG_Stunden_EEPROM Spannung SAG Stunden EEPROM DatenUnsigned shortR
43403U_SAG_Minuten_EEPROM Spannung SAG Minuten EEPROM DatenUnsigned shortR
43404U_SAG_Sekunden_EEPROM Spannung SAG Sekunden EEPROM DatenUnsigned shortR
43405U_SAG_Dauer_EEPROM Spannung SAG Dauer [ms] EEPROM DatenUnsigned shortR
43406U_SAG_Query_EEPROM Spannung SAG Typ:
0: ND
1: U_L1N
2: U_L2N
3: U_L3N
4: U_L1L2
5: U_L2L3
6: U_L3L1
43407U_SWELL_Wert_N_0Spannung Swell RMS-Wert (zwischen 10% und 90%
In this document safety and warning notices are used, which you have to observe to ensure personal safety and to prevent damage to property.
If the warning notice is not followed death or severe personal injury will result.
If the warning notice is not followed damage to property or severe personal injury may result.
If the warning notice is not followed the device may be damaged or may not fulfill the expected functionality.
The installation and commissioning should only be carried out by trained personnel.
Check the following points before commissioning:
- that the maximum values for all the connections are not exceeded, see „Technical data“ section,
- that the connection wires are not damaged, and that they are not live during wiring,
- that the power flow direction and the phase rotation are correct.
The instrument must be taken out of service if safe operation is no longer possible (e.g. visible damage). In this case, all the connections must
be switched o. The instrument must be returned to the factory or to an authorized service dealer.
It is forbidden to open the housing and to make modifications to the instrument. The instrument is not equipped with an integrated circuit breaker. During installation check that a labeled switch is installed and that it can easily be reached by the operators.
Unauthorized repair or alteration of the unit invalidates the warranty.
Please observe that the data on the type plate must be adhered to!
The national provisions have to be observed in the installation and material selection of electric lines!
1.2 Qualified personnel
The product described in this document may be handled by personnel only, which is qualified for the respective task. Qualified personnel have
the training and experience to identify risks and potential hazards when working with the product. Qualified personnel are also able to understand
and follow the given safety and warning notices.
PM 1001941 000 00 Three phase meter SIRAX MT7100/MT7150 32/60
Page 33
1.3 Intended use
The product described in this document may be used only for the application specified. The maximum electrical supply data and ambient conditions specified in the technical data section must be adhered. For the perfect and safe operation of the device proper transport and storage as
well as professional assembly, installation, handling and maintenance are required.
1.4 Disclaimer of liability
The content of this document has been reviewed to ensure correctness. Nevertheless it may contain errors or inconsistencies and we cannot
guarantee completeness and correctness. This is especially true for dierent language versions of this document. This document is regularly
reviewed and updated. Necessary corrections will be included in subsequent version and are available via our webpage www.camillebauer.com.
1.5 Feedback
If you detect errors in this document or if there is necessary information missing, please inform us via e-mail to:
customer-support@camillebauer.com
1.6 Repair work and modifications
Repair work and modifications shall exclusively be carried out by the manufacturer. Do not open the housing of the device. In case of any tampering with the device, the guaranty claim shall lapse. We reserve the right of changing the product to improve it.
1.7 Calibration and new adjustment
Each device is adjusted and checked before delivery. The condition as supplied to the customer is measured and stored in electronic form.
The uncertainty of measurement devices may be altered during normal operation if, for example, the specified ambient conditions are not met.
1.8 Disposal
Device may only be disposed in a professional manner!
The disposal of devices and components may only be realised in accordance with good professional practice observing the
country-specifi c regulations. Incorrect disposal can cause environmental risks.
1.9 Return
All devices delivered to Camille Bauer Metrawatt AG shall be free of any hazardous contaminants (acids, lyes, solutions, etc.).
Use original packaging or suitable transport packaging to return the device.
Damage by returning
Damages caused by improper returning, no warranties or guarantees can be given.
2. Introduction
2.1 Purpose of this document
This document describes the three phase meter SIRAX MT7100 and MT7150. It is intended to be used by Installation personnel, commissioning
engineers, Service and maintenance personnel.
Scope
This handbook is valid for all versions of the three phase meter SIRAX MT7100 and MT7150. Some of the functions described in this document
are available only, if the necessary optional components are included in the device.
Required knowledge
A general knowledge in the field of electrical engineering is required. For assembly and installation of the device knowledge of applicable national
safety regulations and installation standard is required.
2.2 Scope of supply
•
three phase meter SIRAX MT7100 or MT7150 with connection set
•
Safety instructions (ge, en, fr, it, es, nl, cz)
2.3 Further documents
The following documents are provided electronically via www.camillebauer.com:
•
Datasheet (ge, en)
•
Safety instructions (ge, en, fr, it, es, nl, cz)
•
Operating manual (ge, en)
PM 1001941 000 00 Three phase meter SIRAX MT7100/MT7150 33/60
Page 34
3. Functional description
The SIRAX MT7100 and MT7150 are all-in-one three phase meter with integrated energy meter and universal current input. They are designed for
DIN rail mounting installation and can be connected to Common current and voltage transformers and Rogowski coils. The devices measure RMS AC
and DC, average min. and max. values, frequency, crest factor, harmonic up to the 63rd, THD, I
a serial output RS485 Modbus RTU for measurements and a digital output for alarms. The free configuration software makes it very easy to configure
the devices.
peak
and U
and many more. They are equipped with
peak
4. Assembly and installation
Ensure a safe working environment during assembly, installation and maintenance work. Disconnect the power supply of the
primary conductor and secure it against unintentional reconnection.
Magnetic fields of high intensity can vary the values measured by the transformer. Avoid installation near permanent magnets,
electromagnets or iron masses that induce strong changes in the magnetic field. If there are any irregularities, we recommend
realigning or moving the transformer in the most appropriate area.
• Mounting is done by DIN rail mounting and the installation of the devices is arbitrary.
• Now connect the device according to the wiring diagram.
5. Electrical connections
Attention: danger to life! Ensure under all circumstances that the leads are free of potential when connecting them!
It is to be noted, that the data given on the type plate are respected!
3-phase, 4 wires, 3 CT's connection
3-phase, 3 wires, 3 CT's connection
The national regulations for the installation and selection of the material of the electrical cables must be followed!
PM 1001941 000 00 Three phase meter SIRAX MT7100/MT7150 34/60
Page 35
1-phase, 2 wires, connection with 1 TA
1-phase, 2 wires, connection with 1 TA and 1TV
Digital Output on terminal 8-9-10 in digital output configurationPower supply
Communication via T-BUS (with the proper optional connector)Communication via terminal 8-9-10 in RS485 configuration
6. Technical specifications
SIRAX MT7100SIRAX MT7150
Input
Current sensorsRogowski probe; Current transformer secondary 1A / 5A; Voltage transformer 0 ... 333 mV
; U
; Ipk; U
per phase; Active power: P,P1,P2,P3; Reactive power: Q,Q1,Q2,Q3; Apparent power: S,S1,S2,S3;
pk
Frequency; Power factor total and per phase; Energy (kWh) total and per phase;
bidirectional Energy (kWh) total and positive/negative per phase; Cosϕ;
Active and reactive energy (kVARh) total and per phase; Crest factor total and per phase
Ta nϕ per phase and average;
Power factor total, per phase and average;
Power factor distortion per phase and average;
power measurement min/max total, per phase
and average; monitoring phase sequence; max
demand over 15 min. total and per phase; time at
which arises max demand (per month) total and per
phase; time above a threshold total and per phase;
K factor;THD; TDD; harmonics analysis up to 63
interharmonics analysis up to 63th; SAG; SWELL;
Voltage interruption;
Available measure
Voltage input
I
rms
rms
th
;
Nominal voltage U
n
300 VLN / 500 V
LL
Impedance400 kΩ
PM 1001941 000 00 Three phase meter SIRAX MT7100/MT7150 35/60
Page 36
Continuous overload U
max
Overload for 500 ms600 VLN / 1000 V
400 VLN / 700 V
LL
LL
Current input
Typenot isolated (external CTs necessary)
Current output CT's
Nominal current I
n
5 AAC
Impedance< 0.5 VA per phase
Continuous overload I
max
6 AAC
Overload for 500 ms40 AAC
Crest factor< 4 (20 A
PK
max.)
Voltage output CT's
Niminal voltage U
n
333 mVAC
Impedance220 kΩ
Continuous overload U
max
Overload for 500 ms13 V
Crest factor< 3 (1 V
2.1 V
PK
PK
PK
max.)
Working frequency1 ... 70 Hz
Power supply10 ... 30 VDC or 19 ... 28 VAC
Power consumption< 0.7 W
Output
Digital outputRS485 (Modbus RTU)
Baudratefrom 1200 ... 115200 (standard 9600)
Accuracy (@ 25 ±5 °C, Frequence = 50 Hz)
Voltage (U
Current (I
: 230/400V)± 0.5% RDG (10 ... 100% Un)
n
: 5A)± 0.5% RDG (5 ... 100% In)
n
Frequence± 0.1 Hz (40 ... 70 Hz)
Active and reactive power± 0.5% RDG
Active energyClass C according to EN50470-1/3 or Class 0.5S according to EN62053-22
Reactive energyClass 0.5S according to EN62053-24
Power factor± (0.001 +1%(1.00-PF))
Bandwidth (-3dB)> 2 kHz
Temperature coecient< 100 ppm/°C
Absorption< 500 mW @ 24 VDC
Sampling rate6400 Hz @ 50 Hz or 7280 Hz @ 60 Hz
Energy backupVia Flash, minimum lifetime: 3 years
Environmental conditions
Operating temperature-10 ... +60 °C
Storage temperature-40 ... +85 °C
Humidity10 ... 90 % (not condensing)
Altitudemax. 2000 m
Safety
Overvoltage categoryCATIII
between power supply and measuring inputs
4 kV
RMS
4 kV
Isolation
between RS485 and measuring inputs
RMS
1.5 kV
between power supply and RS485
RMS
PM 1001941 000 00 Three phase meter SIRAX MT7100/MT7150 36/60
Page 37
Housing protection IPIP20
Mechanical properties
housing materialPTB
FlammabilityUL94 V-0, self-extinguishing, non-dripping, halogen-free
Weight60 g
DIP Switch2 Pol
Dimensions93 x 17.7 x 68.3 mm (without connectors)
Connections
Connections
Cross-sectional area1.5 mm
Plug-in terminals 3.5 mm, 1 x 2 pole, 1 x 3 pole, 1 x 6 pole
BlinkingBootloader active: Can be executed through Modbus command, or because of program flash corruption.
At least one of the following state is present:
Fail (yellow)
Stedy on
RX (red)BlinkingThe device is receiving data from RS485
TX (red)BlinkingThe device is sending data from RS485
D
(green)Stedy onDigital output is closed
out
EEPROM failError on storing flash for settings, calibration or energies
Phase reversalPhase sequence L
I
or Ui over-rangeCurrent or voltage phase i has a too high positive value
i
I
or Ui under-rangeCurrent or voltage phase i has a too high negative value
i
, L2, L3 is not correct
1
Digital output alarms
Rising: Normally open contact
PM 1001941 000 00 Three phase meter SIRAX MT7100/MT7150 37/60
Falling: Normally closed contact
Page 38
Windowed: closed contact between threshold
Note: To enable digital output alarms, RS485 terminals must be configured for digital output. Communication will be available only on T-BUS.
Windowed: closed contact outside threshold
Accuracy (according to EN50470-3 and EN62053-24)
Wh, accuracy depending on the load (current output CT)
Wh, accuracy depending on the load (voltage output CT)VARh, accuracy depending on the load (voltage output CT)
VARh, accuracy depending on the load (current output CT)
Note: Reactive power accuracy is granted if the instrument Q calculation is according Budeanu formula.
PM 1001941 000 00 Three phase meter SIRAX MT7100/MT7150 38/60
Page 39
Used calculation formulas
Phase variablesSystem variablesEnergy metering
Voltage RMSVoltage averageActive energy
Current RMSCurrent averageReactive energy
Active powerThree phase active powerApparent energy
Apparent powerThree phase apparent powerWhere:
i = phase observed (L1; L2 or L3);
P = Active power;
Reactive powerThree phase reactive power
Power factorThree phase power factor
Q = Reactive power;
t1, t2 = starting and ending time points of
consumption recording;
n = time unit;
t = time unit length;
n1, n2 = starting and ending discrete time
points of consumption recording
7. Programming
The SIRAX MT7100 and MT7150 can be programmed in two ways. On the one hand via the serial RS485-USB interface and the programming
software and on the other hand over the direct use of the Modbus address registers.
If you want to set up the units via the programming software, set the DIP switches to 0. If you want to set directly via the RS485 Modbus interface, set the first DIP switch to 1 (up) and then the second one for the baud rate setting 0 for 9600 or 1 for 38400. After making the settings, save
the configuration via the command register, then turn o the power before setting the DIP switches to 0 to turn on the power.
Description12
Any changes made by dip-switch required to switch
o the power supply. It’s a safety condition in order
to prevent any manumission on the device.
7.1 Programming over Software
Download the programming software for free from our homepage www.camillebauer.com. Before you can use the software, check if you have
Java (32-bit) installed on your computer. If not, download the Java software from the homepage www.java.com.
To change the menu language of the software, go to the downloaded directory of the software. Open the file "015.ini" and "current" with a text
editor program. Now change the listed language, e.g. "EN" in the desired language e.g. "DE". Please note that only the languages listed in the
directory can be changed.
7.1.1 Configuration
RS485 settings from EEPROM0X
Address 1 - Baudrate 9600, no parity 10
Address 1 - Baudrate 38400, no parity11
Start the software with the file SIRAX MT71xx_023_v003.jar
Now click on "NEXT" to get into the menu window Connection.
PM 1001941 000 00 Three phase meter SIRAX MT7100/MT7150 39/60
Page 40
In this mode, you can choose to program the device via a direct
connection via RS485-USB, or in offline mode.
Select the mode "Connection with RS485 connection", then you get to
the menu "DIP switch setting"
If you select the mode "no connection (OFF-Line)", then you arrive
DIRECTLY to the menu "configuration".
Set the DIP switches according to the template. Detailed information
on the individual positions of the DIP switches can be found in the
table "DIP switch settings" on page 45.
Press "Next".
To communicate with the SIRAX MT7000 or MT7050, check the available COM PORT by clicking on the "UPDATE" button. Your PC will assign
a virtual COM for communication with the SIRAX MT7100 or MT7150.
Click the "CONNECT TO THE DEVICE" button, you will see a window
asking if you are connected to the device. Then click on this button in
this window "CONTINUE". After you have established the connection,
you can proceed with the configuration of the device on the setting
pages described below.
Now select the type of configuration creation.
PM 1001941 000 00 Three phase meter SIRAX MT7100/MT7150 40/60
Page 41
This is the device configuration page where the parameters for Modbus
communication are set:
1. The Modbus "ADDRESS" to be assigned to the device
2. The "delay" to answer
3. The speed communication "BAUDRATE"
(from 1200 to 115200)
4. The parity is alway None
To use the default settings, click on the "FACTORY SETTINGS" button
This is the device configuration page where the general input settings
are set. The following parameters can be set:
• Measurement current channel
• Connection
• Reactive power calculation method
• Frequency detection channel
• Energy unit factor
• Energy saving on/off
• Measurement type
• Integrator condition
• Filtered measurements
This is the device configuration page where the power settings are
made. The following parameters can be set:
• Transformer ratios
• Min. Ripple voltage, current and power
• AC or DC filter
This is the device configuration page where the alarm settings are set.
There are two types of selectable alarms, one with LED and the other
with contact (switch).
LED ALARM
Check for the presence of anomalies, the user can select to enable of
FAIL LED by checking one or more of the following flag
SWITCH ALARM
Selecting the desired parameter in the dropdown menu, you set the
threshold and hysteresis value to activate the alarm on digital output.
PM 1001941 000 00 Three phase meter SIRAX MT7100/MT7150 41/60
Page 42
This is the device configuration page where the power quality settings
are made. The following parameters can be set:
• Nominal star voltage
• SAG and SWELL Level
• Interruption level
• Minimum duration cutoff
Now select whether you want to save the configuration in a file or
transfer it to the device.
This screen allows you to save the configuration in to a file.
This screen allows you to check the functionality of the device. The
energies, RMS values and peaks can be displayed.
PM 1001941 000 00 Three phase meter SIRAX MT7100/MT7150 42/60
Page 43
7.2 Programmierung über Modbus Adress-Register
Modbus
Adresse
Register NameParameter BeschreibungRegister-Typ
Lesen /
Schreiben
Standard Werte
40001Machine_IdMaschine IDUnsigned shortR23 or 32
40002HW_FW_versionHardware (MSB) and Firmware (LSB) RevisionUnsigned shortR
40003AddressModbus AddressUnsigned shortR/W1
40004DelayAnswer delay expressed as cyclesUnsigned shortR/W1
40005BaudrateBaudrate: 0=1200 / 1=2400 / 2=4800 / 3=9600 /
Unsigned shortR/W3
4=19200 / 5=38400 / 6=57600 / 7=115200
40006Parity0=NONE / 1=ODD / 2=EVENUnsigned shortR/W0
40007Configuration_FlagBit 0: Current Measurement type
0=Input 1A/5A
1=Input 333mV / Rogowski
Bit 1...2: Connection
0=Single phase
1=Three phase: 3 wires, 2 CT (Aron)
2=Three phase: 3 wires, 3 CT
3=Three phase: 4 wires, 3 CT (with neutral)
Bit 3: FFT representation
0=Absolute
1=Relative to the I1 value
Bit 5: Reactive power calculation method
0=Triangle method
1=Budeanu
Unsigned shortR/W
16934
INPUT_1A_5A |
THREE_PHASE_4W_3CT |
FFT_REPRESENTATION_AB-
SOLUTE |
BUDEANU |
RS485_BEHAVIOUR |
FREQUENCY_DETECTI-
ON_ON_VOLTAGE |
NORMAL_INPUT |ENERGY_
SAVING_ENABLED |
FLOAT_TYPE |INTEGRATOR_
DISABLED |
OPEN_COND |
FILTERED_OUTPUT_DI-
SABLED
Bit 6: RS485 as Switch
0=RS485
1=Switch
Bit 7: Frequency detection Channel
0=Voltage
1=Current
Bit 8: Voltage input type
0=Normal load
1=PWM modulated input (Inverter Load)
Bit 9: Energy saving
0=Disabled
1=Enabled
Bit 11...12: Measurement type
0=Float
1=Float Swapped
2=Hundredth (Float * 100)
3=Hundredth swapped (Float * 100 SW)
Bit 13: Integrator condition
0=Integrator disabled
1=Integrator enabled (Rogowski input)
Bit 10, 14: Output switch initial condition
0=Closed initial condition
1=Windowed: closed contact between thresholds
2=Open initial condition
3=Windowed: closed contact outside thresholds
Bit 15: Filtered measurement
0=Filtering disabled
1=Filtering enabled
40008Led_settingsSet the error LED according to the bit:
0=Fail Eeprom (settings, calibration or Energy)
1=Phase reversal
Unsigned shortR/W1:
Fail EEPROM
2=I1 Over-range
3=I1 Under-range
4=I2 Over-range
5=I2 Under-range
6=I3 Over-range
7=I3 Under-range
8=V1 Over-range
9=V1 Under-range
10=V2 Over-range
11=V2 Under-range
12=V3 Over-range
13=V3 Under-range
PM 1001941 000 00 Three phase meter SIRAX MT7100/MT7150 43/60
Page 44
40009CT_Transducer_ratioIf Input 1A/5A → Current transformer ratio M/N
40011CT_Transducer_delayCurrent transformer delay in [°] @ 50 Hz for accurate
power calculation
40013VT_Transducer_ratioVoltage transformer ratio M/N - Default 1.0
(Ex: 1000:100 → transducer_ratio = 10)
40015VT_Transducer_delayVoltage transformer delay in [°] @ 50 Hz for accurate
power calculation
40017minimum_voltage_
ripple
40019minimum_current_ripple Minimum threshold under which the instrument reads
40021minimum_power_
ripple
40023DC_FilterNumber of tenth seconds for I RMS value in DCUnsigned shortR/W10
40024AC_FilterNumber of zero crossings for I RMS value in ACUnsigned shortR/W50
40025Minute_for_Max_
demand
40027Seconds_for_mean_
RMS
40028Seconds_for_MAX_RMS Seconds 1...30 for MAX RMS value. If the register is 0,
40029Seconds_for_min_RMSSeconds 1...30 for min RMS value. If the register is 0,
40030Energy_unit_factorVariable for changing Energy measurement unit:
40036Alarm_Register_Start_
Address
40037Alarm_trip_valueAlarm Threshold for "closed" and "open" condition
40039Alarm_hysteresisAlarm HysteresisFloatR/W1
40041Alarm_trip_value_2Second alarm Threshold for "within threshold" and
40043Power_Threshold_for_
exceed
40045Nominal_Star_VoltageNominal Star Voltage for Sag, Swell, Interruption
40047Sag_percentage_levelPercentage over Nominal_Star_Voltage under which a
40049Swell_percentage_
level
40051Interruption_
percentage_level
40053Minimum_duration_
cuto
40239Status_1bit 0: flash settings error
Minimum threshold under which the instrument reads
0 independent from the input value
0 independent from the input value
Minimum threshold under which the instrument reads
0 independent from the input value (P, Q, and S)
Minute for Max demand calculation (0..45)Unsigned shortR/W15
Register in seconds (0...30) for RMS averageUnsigned shortR/W0
then the absolute MAX RMS is given
then the absolute min RMS is given
0=WH/10
1=Wh
4=kWh
Float value Starting address for alarm (40361 V_L1_N,
40363 V_L2_N, 40365 V_L3_N, ecc)
OR first alarm Threshold for "within threshold" and
"Outside"
"Outside threshold" condition
Threshold for Power exceedings monitoringFloatR/W0
monitoring [V]
Sag event is generated (default 0.9 = 90 %); must be
over Interruption
Percentage over Nominal_Star_Voltage over which a
Swell event is generated (default 1.1 = 110 %)
Percentage over Nominal_Star_Voltage under which an
Interruption event is generated (default 0.1 = 10 %)
Sag, Swell or Interruption events must be above this
cuto to be displayed and saved [ms]
bit 1: flash calibration error
bit 2: Current I1 Over Range
bit 3: Current I1 Under Range
bit 4: Current I2 Over Range
bit 5: Current I2 Under Range
bit 6: Current I3 Over Range
bit 7: Current I3 Under Range
bit 8: Current V1 Over Range
bit 9: Current V1 Under Range
bit 10: Current V2 Over Range
bit 11: Current V2 Under Range
bit 12: Current V3 Over Range
bit 13: Current V3 Under Range
FloatR/W1
FloatR/W0
FloatR/W1
FloatR/W0
FloatR/W0
FloatR/W0
FloatR/W0
Unsigned shortR/W0
Unsigned shortR/W0
Unsigned shortR/W0
Unsigned shortR/W40361
FloatR/W0
FloatR/W
FloatR/W230
FloatR/W0.9
FloatR/W1.1
FloatR/W0.1
Unsigned shortR/W0
Unsigned longR
PM 1001941 000 00 Three phase meter SIRAX MT7100/MT7150 44/60
Page 45
bit 14: Zero crossing detecting
bit 15: Switch open
bit 16: Wh storing error
bit 17...18: don’t care
bit 19: Alarm detection
bit 20...27: don't care
bit 28: Leading Power factor PF1
bit 29: Leading Power factor PF2
bit 30: Leading Power factor PF3
40244CommandFlash settings save command = 0xC1C0
Reset command = 0xC1A0
Save energy command = 0xBABA
Close Switch command = 0xDAAA (only if Digital
Output is enabled)
Open Switch command = 0xDAAB (only if Digital
Output is enabled)
Enter Bootloader command = 0xB000Reset MAX
Demand registers command = 0xF000
40245kWh 1Active energy line 1 [Wh tenth]Signed long longR/W
10249kWh 2Active energy line 2 [Wh tenth]Signed long longR/W
40253kWh 3Active energy line 3 [Wh tenth]Signed long longR/W
40257kWh_SUMActive energy three phase [Wh tenth]Signed long longR/W
40261kWh1_PlusPositive Active energy line 1 [Wh tenth]Signed long longR/W
40265kWh2_PlusPositive Active energy line 2 [Wh tenth]Signed long longR/W
40269kWh3_PlusPositive Active energy line 3 [Wh tenth]Signed long longR/W
40273kWh_SUM_PlusPositive Active energy three phase [Wh tenth]Signed long longR/W
40277kWh1_NegNegative Active energy line 1 [Wh tenth]Signed long longR/W
40281kWh2_NegNegative Active energy line 2 [Wh tenth]Signed long longR/W
40285kWh3_NegNegative Active energy line 3 [Wh tenth]Signed long longR/W
40289kWh_SUM_NegNegative Active energy three phase [Wh tenth]Signed long longR/W
40293kVARh 1Reactive energy line 1 [VARh tenth]Signed long longR/W
40297kVARh 2Reactive energy line 2 [VARh tenth]Signed long longR/W
40301kVARh 3Reactive energy line 3 [VARh tenth]Signed long longR/W
40305kVARh_SUMReactive energy three phase [VARh tenth]Signed long longR/W
40309kVARh1_InductiveInductive Reactive energy line 1 [VARh tenth]Signed long longR/W
40313kVARh2_InductiveInductive Reactive energy line 2 [VARh tenth]Signed long longR/W
40317kVARh3_InductiveInductive Reactive energy line 3 [VARh tenth]Signed long longR/W
40321kVARh_SUM_InductiveInductive Reactive energy three phase [VARh tenth]Signed long longR/W
40325kVARh1_CapacitiveCapacitive Reactive energy line 1 [VARh tenth]Signed long longR/W
40329kVARh2_CapacitiveCapacitive Reactive energy line 2 [VARh tenth]Signed long longR/W
40333kVARh3_CapacitiveCapacitive Reactive energy line 3 [VARh tenth]Signed long longR/W
40337kVARh_SUM_CapacitiveCapacitive Reactive energy three phase [VARh tenth]Signed long longR/W
40341kVAh 1Apparent energy line 1 [VAh tenth]Signed long longR/W
40345kVAh 2Apparent energy line 2 [VAh tenth]Signed long longR/W
40349kVAh 3Apparent energy line 3 [VAh tenth]Signed long longR/W
40353kVAh_SUMApparent energy three phase [VAh tenth]Signed long longR/W
40357Wh_storage_countNumber of Wh flash savings (every 20 seconds)Unsigned longR
40359V_L1_NRMS star voltage L1-N [V]FloatR
40361V_L2_NRMS star voltage L2-N [V]FloatR
40363V_L3_NRMS star voltage L3-N [V]FloatR
40365V_STAR_AVERAGERMS star avg value voltage [V]FloatR
40367V_L1_L2RMS line voltage L1-L2 [V]FloatR
40369V_L2_L3RMS line voltage L2-L3 [V]FloatR
40371V_L3_L1RMS line voltage L3-L1 [V]FloatR
40373V_LINE_AVERAGERMS line average value voltage [V]FloatR
40375I_L1RMS line current L1 [A]FloatR
40377I_L2RMS line current L2 [A]FloatR
40379I_L3RMS line current L3 [A]FloatR
40381I_NRMS line current N [A] (if 1 or 2 TA connection, I_N=0)FloatR
40383I_AVERAGERMS average value current [A]
(excluding neutral current I_N)
40385P1RMS active power line 1 [W]FloatR
40387P2RMS active power line 2 [W]FloatR
40389P3RMS active power line 3 [W]FloatR
Unsigned shortR/W
FloatR
PM 1001941 000 00 Three phase meter SIRAX MT7100/MT7150 45/60
Page 46
40391P_SUMRMS sum active power [W]FloatR
40393Q1RMS reactive power line 1 [VAR]FloatR
40395Q2RMS reactive power line 2 [VAR]FloatR
40397Q3RMS reactive power line 3 [VAR]FloatR
40399Q_SUMRMS sum reactive power [VAR]]FloatR
40401S1RMS apparent power line 1 [VA]FloatR
40403S2RMS apparent power line 2 [VA]FloatR
40405S3RMS apparent power line 3 [VA]FloatR
40407S_SUMRMS sum apparent power [VA]FloatR
40409PF1Power Factor line 1FloatR
40411PF2Power Factor line 2FloatR
40413PF3Power Factor line 3FloatR
40415PF_3PHThree Phase Power FactorFloatR
40417CF1Crest Factor line 1FloatR
40419CF2Crest Factor line 2FloatR
40421CF3Crest Factor line 3FloatR
40423CF_NCrest Factor NeutralFloatR
40425FrequenzFrequency [Hz]FloatR
40427V_L1_N_peakStar voltage L1-N peak [V]FloatR/W
40429V_L2_N_peakStar voltage L2-N peak [V]FloatR/W
40431V_L3_N_peakStar voltage L3-N peak [V]FloatR/W
40433V_L1_L2_peakLine voltage L1-L2 peak [V]FloatR/W
40435V_L2_L3_peakLine voltage L2-L3 peak [V]FloatR/W
40437V_L3_L1_peakLine voltage L3-L1 peak [V]FloatR/W
40439I_L1_peakL1 current peak [A]FloatR/W
40441I_L2_peakL2 current peak [A]FloatR/W
40443I_L3_peakL3 current peak [A]FloatR/W
40445I_N_peakN current peak [A]FloatR/W
40467DPF1Distortion Power Factor line 1 (+ inductive, - capacitive)FloatR
40469DPF2Distortion Power Factor line 2 (+ inductive, - capacitive)FloatR
40471DPF3Distortion Power Factor line 3 (+ inductive, - capacitive)FloatR
40473DPF_NNeutral Distortion Power Factor (+ inductive, - capacitive)FloatR
40475TAN_FI_1Ta nϕ L1 (+ inductive, - capacitive)FloatR
40477TAN_FI_2Ta nϕ L2 (+ inductive, - capacitive)FloatR
40479TAN_FI_3Ta nϕ L3 (+ inductive, - capacitive)FloatR
40481TAN_FI_AVERAGEAverage Tanϕ (+ inductive, - capacitive)FloatR
40483Phase_OrderL1, L2, L3 = 0 / L1, L3, L2 = 1FloatR
40485Internal_temperatureInternal Temperature [°C]FloatR
40487V_L1_N_RMS_AVGStar voltage L1_N RMS average [V] over “seconds_
for_mean_RMS”
40489V_L1_N_RMS_MaxStar voltage L1_N MAX RMS [V] over last “seconds_
for_MAX_RMS”
40491V_L1_N_RMS_MinStar voltage L1_N Min RMS [V] over last“seconds_for_
min_RMS”
40493V_L2_N_RMS_AVGStar voltage L2_N RMS average [V] over “seconds_
for_mean_RMS”
40495V_L2_N_RMS_MaxStar voltage L2_N MAX RMS [V] over last “seconds_
for_MAX_RMS”
40497V_L2_N_RMS_MinStar voltage L2_N Min RMS [V] over last“seconds_for_
min_RMS”
40499V_L3_N_RMS_AVGStar voltage L3_N RMS average [V] over “seconds_
for_mean_RMS”
40501V_L3_N_RMS_MaxStar voltage L3_N MAX RMS [V] over last “seconds_
for_MAX_RMS”
40503V_L3_N_RMS_MinStar voltage L3_N Min RMS [V] over last“seconds_for_
min_RMS”
40505V_Star_AVG_RMS_AVG Star voltage AVG RMS average [V] over “seconds_for_
mean_RMS”
40507V_Star_AVG_RMS_Max. Star voltage AVG MAX RMS [V] over last “seconds_
for_MAX_RMS”
40509V_Star_AVG_RMS_Min. Star voltage AVG Min RMS [V] over last“seconds_for_
min_RMS”
FloatR
FloatR
FloatR
FloatR
FloatR
FloatR
FloatR
FloatR
FloatR
FloatR
FloatR
FloatR
PM 1001941 000 00 Three phase meter SIRAX MT7100/MT7150 46/60
Page 47
40511V_L1_L2_RMS_AVGLine voltage L1-Line voltage L2-Line voltage L3-L1
RMS average [V] over “seconds_for_mean_RMS”
40513V_L1_L2_RMS_Max.Line voltage L1-Line voltage L2-Line voltage L3-L1
MAX RMS [V] over last “seconds_for_MAX_RMS”
40515V_L1_L2_RMS_Min.Line voltage L1-Line voltage L2-Line voltage L3-L1
Min RMS [V] over last“seconds_for_min_RMS”
40517V_L2_L3_RMS_AVGLine voltage L2-Line voltage L3-L1 RMS average [V]
over “seconds_for_mean_RMS”
40519V_L2_L3_RMS_Max.Line voltage L2-Line voltage L3-L1 MAX RMS [V] over
last “seconds_for_MAX_RMS”
40521V_L2_L3_RMS_Min.Line voltage L2-Line voltage L3-L1 Min RMS [V] over
last“seconds_for_min_RMS”
40523V_L3_L1_RMS_AVGLine voltage L3-L1 RMS average [V] over “seconds_
for_mean_RMS”
40525V_L3_L1_RMS_Max.Line voltage L3-L1 MAX RMS [V] over last “seconds_
for_MAX_RMS”
40527V_L3_L1_RMS_Min.Line voltage L3-L1 Min RMS [V] over last“seconds_
for_min_RMS”
40529V_Line_AVG_RMS_AVG Line voltage AVG RMS average [V] over “seconds_for_
mean_RMS”
40531V_Line_AVG_RMS_Max. Line voltage AVG MAX RMS [V] over last “seconds_
for_MAX_RMS”
40533V_Line_AVG_RMS_Min. Line voltage AVG Min RMS [V] over last“seconds_for_
min_RMS”
40535I_L1_RMS_AVGL1 RMS average [A] over “seconds_for_mean_RMS”FloatR
40537I_L1_RMS_Max.L1 MAX RMS [A] over last “seconds_for_MAX_RMS”FloatR
40539I_L1_AVG_Min.L1 Min RMS [A] over last“seconds_for_min_RMS”FloatR
40541I_L2_RMS_AVGL2 RMS average [A] over “seconds_for_mean_RMS”FloatR
40543I_L2_RMS_Max.L2 MAX RMS [A] over last “seconds_for_MAX_RMS”FloatR
40545I_L2_AVG_Min.L2 Min RMS [A] over last“seconds_for_min_RMS”FloatR
40547I_L3_RMS_AVGL3 RMS average [A] over “seconds_for_mean_RMS”FloatR
40549I_L3_RMS_Max.L3 MAX RMS [A] over last “seconds_for_MAX_RMS”FloatR
40551I_L3_AVG_Min.L3 Min RMS [A] over last“seconds_for_min_RMS”FloatR
40553I_N_RMS_AVGN RMS average [A] over “seconds_for_mean_RMS”FloatR
40555I_N_RMS_Max.N MAX RMS [A] over last “seconds_for_MAX_RMS”FloatR
40557I_N_AVG_Min.N Min RMS [A] over last“seconds_for_min_RMS”FloatR
40559I_AVG_RMS_AVGI_AVG RMS average [A] over “seconds_for_mean_RMS”FloatR
40561I_AVG_RMS_Max.I_AVG MAX RMS [A] over last “seconds_for_MAX_RMS”FloatR
40563I_AVG_RMS_Min.I_AVG Min RMS [A] over last“seconds_for_min_RMS”FloatR
40565P1_RMS_AVGP1 RMS average [A] over “seconds_for_mean_RMS”FloatR
40567P1_RMS_Max.P1 MAX RMS [A] over last “seconds_for_MAX_RMS”FloatR
40569P1_RMS_Min.P1 Min RMS [A] over last“seconds_for_min_RMS”FloatR
40571P2_RMS_AVGP2 RMS average [A] over “seconds_for_mean_RMS”FloatR
40573P2_RMS_Max.P2 MAX RMS [A] over last “seconds_for_MAX_RMS”FloatR
40575P2_RMS_Min.P2 Min RMS [A] over last“seconds_for_min_RMS”FloatR
40577P3_RMS_AVGP3 RMS average [A] over “seconds_for_mean_RMS”FloatR
40579P3_RMS_Max.P3 MAX RMS [A] over last “seconds_for_MAX_RMS”FloatR
40581P3_RMS_Min.P3 Min RMS [A] over last“seconds_for_min_RMS”FloatR
40583P-SUM_RMS_AVGP_SUM RMS average [A] over “seconds_for_mean_RMS”FloatR
40585P_SUM_RMS_Max.P_SUM MAX RMS [A] over last “seconds_for_MAX_RMS”FloatR
40587P_SUM_RMS_Min.P_SUM Min RMS [A] over last“seconds_for_min_RMS”FloatR
40589Q1_RMS_AVGQ1 RMS average [A] over “seconds_for_mean_RMS”FloatR
40591Q1_RMS_Max.Q1 MAX RMS [A] over last “seconds_for_MAX_RMS”FloatR
40593Q1_RMS_Min.Q1 Min RMS [A] over last“seconds_for_min_RMS”FloatR
40595Q2_RMS_AVGQ2 RMS average [A] over “seconds_for_mean_RMS”FloatR
40597Q2_RMS_Max.Q2 MAX RMS [A] over last “seconds_for_MAX_RMS”FloatR
40599Q2_RMS_Min.Q2 Min RMS [A] over last“seconds_for_min_RMS”FloatR
40601Q3_RMS_AVGQ3 RMS average [A] over “seconds_for_mean_RMS”FloatR
40603Q3_RMS_Max.Q3 MAX RMS [A] over last “seconds_for_MAX_RMS”FloatR
40605Q3_RMS_Min.Q3 Min RMS [A] over last“seconds_for_min_RMS”FloatR
40607Q-SUM_RMS_AVGQ_SUM RMS average [A] over “seconds_for_mean_RMS”FloatR
40609Q_SUM_RMS_Max.Q_SUM MAX RMS [A] over last “seconds_for_MAX_RMS”FloatR
40611Q_SUM_RMS_Min.Q_SUM Min RMS [A] over last“seconds_for_min_RMS”FloatR
FloatR
FloatR
FloatR
FloatR
FloatR
FloatR
FloatR
FloatR
FloatR
FloatR
FloatR
FloatR
PM 1001941 000 00 Three phase meter SIRAX MT7100/MT7150 47/60
Page 48
40613S1_RMS_AVGS1 RMS average [A] over “seconds_for_mean_RMS”FloatR
40615S1_RMS_Max.S1 MAX RMS [A] over last “seconds_for_MAX_RMS”FloatR
40617S1_RMS_Min.S1 Min RMS [A] over last“seconds_for_min_RMS”FloatR
40619S2_RMS_AVGS2 RMS average [A] over “seconds_for_mean_RMS”FloatR
40621S2_RMS_Max.S2 MAX RMS [A] over last “seconds_for_MAX_RMS”FloatR
40623S2_RMS_Min.S2 Min RMS [A] over last“seconds_for_min_RMS”FloatR
40625S3_RMS_AVGS3 RMS average [A] over “seconds_for_mean_RMS”FloatR
40627S3_RMS_Max.S3 MAX RMS [A] over last “seconds_for_MAX_RMS”FloatR
40629S3_RMS_Min.S3 Min RMS [A] over last“seconds_for_min_RMS”FloatR
40631S-SUM_RMS_AVGS_SUM RMS average [A] over “seconds_for_mean_RMS”FloatR
40633S_SUM_RMS_Max.S_SUM MAX RMS [A] over last “seconds_for_MAX_RMS”FloatR
40635S_SUM_RMS_Min.S_SUM Min RMS [A] over last“seconds_for_min_RMS”FloatR
40637PF1_RMS_AVGPF1 RMS average [A] over “seconds_for_mean_RMS”FloatR
40639PF1_RMS_Max.PF1 MAX RMS [A] over last “seconds_for_MAX_RMS”FloatR
40641PF1_RMS_Min.PF1 Min RMS [A] over last“seconds_for_min_RMS”FloatR
40643PF2_RMS_AVGPF2 RMS average [A] over “seconds_for_mean_RMS”FloatR
40645PF2_RMS_Max.PF2 MAX RMS [A] over last “seconds_for_MAX_RMS”FloatR
40647PF2_RMS_Min.PF2 Min RMS [A] over last“seconds_for_min_RMS”FloatR
40649PF3_RMS_AVGPF3 RMS average [A] over “seconds_for_mean_RMS”FloatR
40651PF3_RMS_Max.PF3 MAX RMS [A] over last “seconds_for_MAX_RMS”FloatR
40653PF3_RMS_Min.PF3 Min RMS [A] over last“seconds_for_min_RMS”FloatR
40655PF_SUM_RMS_AVGPF_SUM RMS average [A] over “seconds_for_mean_RMS”FloatR
40657PF_SUM_RMS_Max.PF_SUM MAX RMS [A] over last “seconds_for_MAX_RMS”FloatR
40659PF_SUM_RMS_Min.PF_SUM Min RMS [A] over last“seconds_for_min_RMS”FloatR
40661P1_Time_over_
threshold
40663P2_Time_over_
threshold
40665P3_Time_over_
threshold
40667P_SUM_Time_over_th-
reshold
40669P1_MaxDemandMax Demand over 15minutes for P1 for current monthFloatR
40671P2_MaxDemandMax Demand over 15minutes for P2 for current monthFloatR
40673P3_MaxDemandMax Demand over 15minutes for P3 for current monthFloatR
40675P_SUM_MaxDemandMax Demand over 15minutes for P three phase for
40677Time_of_P1_
MaxDemand
40679Time_of_P2_
MaxDemand
40681Time_of_P3_
MaxDemand
40683Time_of_P_SUM_Max-
Demand
40685K_Factor_I1K-factor for I1, see IEEE Standard 1100-1992FloatR
40687K_Factor_I2K-factor for I2, see IEEE Standard 1100-1992FloatR
40689K_Factor_I3K-factor for I3, see IEEE Standard 1100-1992FloatR
40691YearRTC: Year (2000...2099)Unsigned shortR/W
40692MonthtRTC: Month (1...12)Unsigned shortR/W
40693DayRTC: Day (1...31)Unsigned shortR/W
40694HourRTC: Hour (0...23)Unsigned shortR/W
40695MinuteRTC: Minute (0...59)Unsigned shortR/W
40696SecondsRTC: Seconds (0...59)Unsigned shortR/W
40697THD_V_L1THD Star Voltage L1FloatR
40699THD_V_L2THD Star Voltage L2FloatR
40701THD_V_L3THD Star Voltage L3FloatR
40703THD_V_L12THD Line Voltage L1-L2FloatR
40705THD_V_L23THD Line Voltage L2-L3FloatR
40707THD_V_L31THD Line Voltage L3-L1FloatR
40709THD_I_L1THD Line Current L1FloatR
40711THD_I_L2THD Line Current L2FloatR
40713THD_I_L3THD Line Current L3FloatR
Time above threshold specified in "Power_Threshold_
for_exceedings" for Active Power P1 [min]
Time above threshold specified in "Power_Threshold_
for_exceedings" for Active Power P2 [min]
Time above threshold specified in "Power_Threshold_
for_exceedings" for Active Power P3 [min]
Time above threshold specified in "Power_Threshold_
for_exceedings" for Active Power P_SUM [min]
current month
Time at which arises Max Demand over 15minutes for
P1 for current month (month, day, hour, minutes)
Time at which arises Max Demand over 15minutes for
P2 for current month (month, day, hour, minutes)
Time at which arises Max Demand over 15minutes for
P3 for current month (month, day, hour, minutes)
Time at which arises Max Demand over 15minutes for P
three phase for current month (month, day, hour, minutes)
FloatR
FloatR
FloatR
FloatR
FloatR
Unsigned longR
Unsigned longR
Unsigned longR
Unsigned longR
PM 1001941 000 00 Three phase meter SIRAX MT7100/MT7150 48/60
Page 49
40715THD_I_NTHD Neutral CurrentFloatR
40717TDD_I_L1TDD Line Current L1FloatR
40719TDD_I_L2TDD Line Current L2FloatR
40721TDD_I_L3TDD Line Current L3FloatR
40737 up to
40863
40865 up to
40991
40993 up to
41119
41121 up to
41247
41249 up to
41375
41377 up to
41503
41507 up to
41631
41633 up to
41759
41761 up to
41887
41889 up to
42015
42017 up to
42143
42145 up to
42271
42273 up to
42399
42401 up to
42527
42529 up to
42655
42657 up to
42783
42785 up to
42911
42913 up to
43039
43041 up to
43167
43169 up to
43295
43297V_SAG_VALUE_N_0Voltage Sag RMS Value (between 10% and 90%
43299V_SAG_YEAR_N_0Voltage Sag Year @ n-0Unsigned shortR
43300V_SAG_MONTH_N_0Voltage Sag Month @ n-0Unsigned shortR
43301V_SAG_DAY_N_0Voltage Sag Day @ n-0Unsigned shortR
43302V_SAG_HOUR_N_0Voltage Sag Hour @ n-0Unsigned shortR
43303V_SAG_MINUTE_N_0Voltage Sag Minute @ n-0Unsigned shortR
43304V_SAG_SECOND_N_0Voltage Sag Second @ n-0Unsigned shortR
43305V_SAG_DURATION_N_0 Voltage Sag Duration [ms] @ n-0Unsigned shortR
43306V_SAG_QUERY_N_0Voltage Sag Type:
43307V_SAG_VALUE_N_1Voltage Sag RMS Value (between 10% and 90%
43309V_SAG_YEAR_N_1Voltage Sag Year @ n-1Unsigned shortR
43310V_SAG_MONTH_N_1Voltage Sag Month @ n-1Unsigned shortR
V_L1N_H_0...63Star Voltage L1-N Harmonic 0 up to 63FloatR
V_L2N_H_0...63Star Voltage L2-N Harmonic 0 up to 63FloatR
V_L3N_H_0...63Star Voltage L3-N Harmonic 0 up to 63FloatR
V_L12_H_0...63Line Voltage L1-L2 Harmonic 0 up to 63FloatR
V_L23_H_0...63Line Voltage L2_L3 Harmonic 0 up to 63FloatR
V_L31_H_0...63Line Voltage L3-L1 Harmonic 0 up to 63FloatR
I_L1_H_0...63Line Current L1 Harmonic 0 up to 63FloatR
I_L2_H_0...63Line Current L2 Harmonic 0 up to 63FloatR
I_L3_H_0...63Line Current L3 Harmonic 0 up to 63FloatR
I_N_H_0...63Line Current N Harmonic 0 up to 63FloatR
V_L1N_IH_0...63Star Voltage L1-N InterHarmonic 0 up to 63FloatR
V_L2N_IH_0...63Star Voltage L2-N InterHarmonic 0 up to 63FloatR
V_L3N_IH_0...63Star Voltage L3-N InterHarmonic 0 up to 63FloatR
V_L12_IH_0...63Line Voltage L1-L2 InterHarmonic 0 up to 63FloatR
V_L23_IH_0...63Line Voltage L2-L3 InterHarmonic 0 up to 63FloatR
V_L31_IH_0...63Line Voltage L3-L1 InterHarmonic 0 up to 63FloatR
I_L1_IH_0...63Line Current L1 InterHarmonic 0 up to 63FloatR
I_L2_IH_0...63Line Current L2 InterHarmonic 0 up to 63FloatR
I_L3_IH_0...63Line Current L3 InterHarmonic 0 up to 63FloatR
I_N_IH_0...63Line Current N InterHarmonic 0 up to 63FloatR
PM 1001941 000 00 Three phase meter SIRAX MT7100/MT7150 49/60
Page 50
43311V_SAG_DAY_N_1Voltage Sag Day @ n-1Unsigned shortR
43312V_SAG_HOUR_N_1Voltage Sag Hour @ n-1Unsigned shortR
43313V_SAG_MINUTE_N_1Voltage Sag Minute @ n-1Unsigned shortR
43314V_SAG_SECOND_N_1Voltage Sag Second @ n-1Unsigned shortR
43315V_SAG_DURATION_N_1 Voltage Sag Duration [ms] @ n-1Unsigned shortR
43316V_SAG_QUERY_N_1Voltage Sag Type:
43317V_SAG_VALUE_N_2Voltage Sag RMS Value (between 10% and 90%
"Nominal_Star_Voltage") @ n-2
43319V_SAG_YEAR_N_2Voltage Sag Year @ n-2Unsigned shortR
43320V_SAG_MONTH_N_2Voltage Sag Month @ n-2Unsigned shortR
43321V_SAG_DAY_N_2Voltage Sag Day @ n-2Unsigned shortR
43322V_SAG_HOUR_N_2Voltage Sag Hour @ n-2Unsigned shortR
43323V_SAG_MINUTE_N_2Voltage Sag Minute @ n-2Unsigned shortR
43324V_SAG_SECOND_N_2Voltage Sag Second @ n-2Unsigned shortR
43325V_SAG_DURATION_N_2 Voltage Sag Duration [ms] @ n-2Unsigned shortR
43326V_SAG_QUERY_N_2Voltage Sag Type:
0: ND
1: V_L1N
2: V_L2N
3: V_L3N
4: V_L1L2
5: V_L2L3
6: V_L3L1
43327V_SAG_VALUE_N_3Voltage Sag RMS Value (between 10% and 90%
"Nominal_Star_Voltage") @ n-3
43329V_SAG_YEAR_N_3Voltage Sag Year @ n-3Unsigned shortR
43330V_SAG_MONTH_N_3Voltage Sag Month @ n-3Unsigned shortR
43331V_SAG_DAY_N_3Voltage Sag Day @ n-3Unsigned shortR
43332V_SAG_HOUR_N_3Voltage Sag Hour @ n-3Unsigned shortR
43333V_SAG_MINUTE_N_3Voltage Sag Minute @ n-3Unsigned shortR
43334V_SAG_SECOND_N_3Voltage Sag Second @ n-3Unsigned shortR
43335V_SAG_DURATION_N_3 Voltage Sag Duration [ms] @ n-3Unsigned shortR
43336V_SAG_QUERY_N_3Voltage Sag Type:
0: ND
1: V_L1N
2: V_L2N
3: V_L3N
4: V_L1L2
5: V_L2L3
6: V_L3L1
43337V_SAG_VALUE_N_4Voltage Sag RMS Value (between 10% and 90%
"Nominal_Star_Voltage") @ n-4
43339V_SAG_YEAR_N_4Voltage Sag Year @ n-4Unsigned shortR
43340V_SAG_MONTH_N_4Voltage Sag Month @ n-4Unsigned shortR
43341V_SAG_DAY_N_4Voltage Sag Day @ n-4Unsigned shortR
43342V_SAG_HOUR_N_4Voltage Sag Hour @ n-4Unsigned shortR
43343V_SAG_MINUTE_N_4Voltage Sag Minute @ n-4Unsigned shortR
43344V_SAG_SECOND_N_4Voltage Sag Second @ n-4Unsigned shortR
43345V_SAG_DURATION_N_4 Voltage Sag Duration [ms] @ n-4Unsigned shortR
43346V_SAG_QUERY_N_4Voltage Sag Type:
0: ND
1: V_L1N
2: V_L2N
3: V_L3N
4: V_L1L2
5: V_L2L3
6: V_L3L1
43347V_SAG_VALUE_N_5Voltage Sag RMS Value (between 10% and 90%
"Nominal_Star_Voltage") @ n-5
Unsigned shortR
FloatR
Unsigned shortR
FloatR
Unsigned shortR
FloatR
Unsigned shortR
FloatR
PM 1001941 000 00 Three phase meter SIRAX MT7100/MT7150 50/60
Page 51
43349V_SAG_YEAR_N_5Voltage Sag Year @ n-5Unsigned shortR
43350V_SAG_MONTH_N_5Voltage Sag Month @ n-5Unsigned shortR
43351V_SAG_DAY_N_5Voltage Sag Day @ n-5Unsigned shortR
43352V_SAG_HOUR_N_5Voltage Sag Hour @ n-5Unsigned shortR
43353V_SAG_MINUTE_N_5Voltage Sag Minute @ n-5Unsigned shortR
43354V_SAG_SECOND_N_5Voltage Sag Second @ n-5Unsigned shortR
43355V_SAG_DURATION_N_5 Voltage Sag Duration [ms] @ n-5Unsigned shortR
43356V_SAG_QUERY_N_5Voltage Sag Type:
43357V_SAG_VALUE_N_6Voltage Sag RMS Value (between 10% and 90%
"Nominal_Star_Voltage") @ n-6
43359V_SAG_YEAR_N_6Voltage Sag Year @ n-6Unsigned shortR
43360V_SAG_MONTH_N_6Voltage Sag Month @ n-6Unsigned shortR
43361V_SAG_DAY_N_6Voltage Sag Day @ n-6Unsigned shortR
43362V_SAG_HOUR_N_6Voltage Sag Hour @ n-6Unsigned shortR
43363V_SAG_MINUTE_N_6Voltage Sag Minute @ n-6Unsigned shortR
43364V_SAG_SECOND_N_6Voltage Sag Second @ n-6Unsigned shortR
43365V_SAG_DURATION_N_6 Voltage Sag Duration [ms] @ n-6Unsigned shortR
43366V_SAG_QUERY_N_6Voltage Sag Type:
0: ND
1: V_L1N
2: V_L2N
3: V_L3N
4: V_L1L2
5: V_L2L3
6: V_L3L1
43367V_SAG_VALUE_N_7Voltage Sag RMS Value (between 10% and 90%
"Nominal_Star_Voltage") @ n-7
43369V_SAG_YEAR_N_7Voltage Sag Year @ n-7Unsigned shortR
43370V_SAG_MONTH_N_7Voltage Sag Month @ n-7Unsigned shortR
43371V_SAG_DAY_N_7Voltage Sag Day @ n-7Unsigned shortR
43372V_SAG_HOUR_N_7Voltage Sag Hour @ n-7Unsigned shortR
43373V_SAG_MINUTE_N_7Voltage Sag Minute @ n-7Unsigned shortR
43374V_SAG_SECOND_N_7Voltage Sag Second @ n-7Unsigned shortR
43375V_SAG_DURATION_N_7 Voltage Sag Duration [ms] @ n-7Unsigned shortR
43376V_SAG_QUERY_N_7Voltage Sag Type:
0: ND
1: V_L1N
2: V_L2N
3: V_L3N
4: V_L1L2
5: V_L2L3
6: V_L3L1
43377V_SAG_VALUE_N_8Voltage Sag RMS Value (between 10% and 90%
"Nominal_Star_Voltage") @ n-8
43379V_SAG_YEAR_N_8Voltage Sag Year @ n-8Unsigned shortR
43380V_SAG_MONTH_N_8Voltage Sag Month @ n-8Unsigned shortR
43381V_SAG_DAY_N_8Voltage Sag Day @ n-8Unsigned shortR
43382V_SAG_HOUR_N_8Voltage Sag Hour @ n-8Unsigned shortR
43383V_SAG_MINUTE_N_8Voltage Sag Minute @ n-8Unsigned shortR
43384V_SAG_SECOND_N_8Voltage Sag Second @ n-8Unsigned shortR
43385V_SAG_DURATION_N_8 Voltage Sag Duration [ms] @ n-8Unsigned shortR
43386V_SAG_QUERY_N_8Voltage Sag Type:
0: ND
1: V_L1N
2: V_L2N
3: V_L3N
4: V_L1L2
5: V_L2L3
6: V_L3L1
Unsigned shortR
FloatR
Unsigned shortR
FloatR
Unsigned shortR
FloatR
Unsigned shortR
PM 1001941 000 00 Three phase meter SIRAX MT7100/MT7150 51/60
Page 52
43387V_SAG_VALUE_N_9Voltage Sag RMS Value (between 10% and 90%
"Nominal_Star_Voltage") @ n-9
43389V_SAG_YEAR_N_9Voltage Sag Year @ n-9Unsigned shortR
43390V_SAG_MONTH_N_9Voltage Sag Month @ n-9Unsigned shortR
43391V_SAG_DAY_N_9Voltage Sag Day @ n-9Unsigned shortR
43392V_SAG_HOUR_N_9Voltage Sag Hour @ n-9Unsigned shortR
43393V_SAG_MINUTE_N_9Voltage Sag Minute @ n-9Unsigned shortR
43394V_SAG_SECOND_N_9Voltage Sag Second @ n-9Unsigned shortR
43395V_SAG_DURATION_N_9 Voltage Sag Duration [ms] @ n-9Unsigned shortR
43396V_SAG_QUERY_N_7Voltage Sag Type:
0: ND
1: V_L1N
2: V_L2N
3: V_L3N
4: V_L1L2
5: V_L2L3
6: V_L3L1
43397V_SAG_VALUE_EEPROM Voltage Sag RMS Value (between 10% and 90%
"Nominal_Star_Voltage") EEPROM Data
43399V_SAG_YEAR_EEPROMVoltage Sag Year EEPROM DataUnsigned shortR
43400V_SAG_MONTH_EE-
PROM
43401V_SAG_DAY_EEPROMVoltage Sag Day EEPROM DataUnsigned shortR
43402V_SAG_HOUR_EEPROM Voltage Sag Hour EEPROM DataUnsigned shortR
43403V_SAG_MINUTE_EE-
PROM
43404V_SAG_SECOND_EE-
PROM
43405V_SAG_DURATION_EE-
PROM
43406V_SAG_QUERY_EE-
PROM
43407V_SWELL_VALUE_N_0Voltage Swell RMS Value (between 10% and 90%
43409V_SWELL_YEAR_N_0Voltage Swell Year @ n-0Unsigned shortR
43410V_SWELL_MONTH_N_0 Voltage Swell Month @ n-0Unsigned shortR
43411V_SWELL_DAY_N_0Voltage Swell Day @ n-0Unsigned shortR
43412V_SWELL_HOUR_N_0Voltage Swell Hour @ n-0Unsigned shortR
43413V_SWELL_MINUTE_N_0 Voltage Swell Minute @ n-0Unsigned shortR
43414V_SWELL_
SECOND_N_0
43415V_SWELL_
DURATION_N_0
43416V_SWELL_QUERY_N_0Voltage Swell Type:
43417V_SWELL_VALUE_N_1Voltage Swell RMS Value (between 10% and 90%
43419V_SWELL_YEAR_N_1Voltage Swell Year @ n-1Unsigned shortR
43420V_SWELL_MONTH_N_1 Voltage Swell Month @ n-1Unsigned shortR
43421V_SWELL_DAY_N_1Voltage Swell Day @ n-1Unsigned shortR
43422V_SWELL_HOUR_N_1Voltage Swell Hour @ n-1Unsigned shortR
43423V_SWELL_MINUTE_N_1 Voltage Swell Minute @ n-1Unsigned shortR
43424V_SWELL_SECOND_N_1 Voltage Swell Second @ n-1Unsigned shortR
Voltage Sag Month EEPROM DataUnsigned shortR
Spannung SAG Minuten EEPROM DataUnsigned shortR
Voltage Sag Minute EEPROM DataUnsigned shortR
Voltage Sag Duration [ms] EEPROM DataUnsigned shortR
Voltage Sag Type:
0: ND
1: V_L1N
2: V_L2N
3: V_L3N
4: V_L1L2
5: V_L2L3
6: V_L3L1
FloatR
"Nominal_Star_Voltage") EEPROM Data
Voltage Swell Year EEPROM DataUnsigned shortR
Voltage Swell Month EEPROM DataUnsigned shortR
Voltage Swell Day EEPROM DatenUnsigned shortR
Voltage Swell Hour EEPROM DatenUnsigned shortR
Voltage Swell Minute EEPROM DatenUnsigned shortR
Voltage Swell Second EEPROM DatenUnsigned shortR
Voltage Swell Duration [ms] EEPROM DatenUnsigned shortR