User manual
Table Of Contents
- 1. Einleitung
- 2. Technische Daten
- 3. Gerätebeschreibung
- 4. Allgemeines zum Gerät
- 5. Installation
- 6. Bedienung
- 6.1 Die Anzeige
- 6.2 Verwendete Symbolik
- 6.3 Übersicht über die Anzeigeelemente
- 6.4 Einschalten des Ausgangs
- 6.5 Sollwerte einstellen
- 6.6 Schrittweiten bei Sollwerteinstellung
- 6.7 Tastenfeld umschalten
- 6.8 Bedieneinheit sperren
- 6.9 Bedienort wechseln
- 6.10 Umschalten in den Funktionsmanager
- 6.11 Umschalten ins Menü
- 6.12 Parameterseiten
- 6.13 Alarme, Warnungen und Meldungen
- 6.14 Quittieren von Alarmen und Warnungen
- 6.15 Der Funktionsmanager
- 7. Gerätekonfiguration
- 7.1 Betriebsparameter definieren
- 7.2 Voreinstellung von Sollwertsätzen
- 7.3 Einstellgrenzen
- 7.4 Bedieneinheit konfigurieren
- 7.5 Display einstellen
- 7.6 Überwachung
- 7.7 Grundeinstellung wiederherstellen
- 7.8 Aktivierung der Photovoltaik-Funktion
- 7.9 Freischaltung der U/I/R Betriebsart
- 7.10 Sperren der Geräte-Konfiguration
- 8. Verhalten bei ...
- 9. Wechselbare Schnittstellen
- 10. Eingebaute Analogschnittstelle
- 11. PV - Solarmodul-Simulation
- 12. HS - High-Speed-Modifikation
- 13. Sonstiges
- 1. Introduction
- 2. Technical specifications
- 3. Device description
- 4. General
- 5. Installation
- 6. Handling
- 6.1 The display
- 6.2 Used symbols
- 6.3 Short overview about the display elements
- 6.4 Switching the power output on
- 6.5 Adjusting set values
- 6.6 Step widths for set value adjustment
- 6.7 Switching the button panel
- 6.8 Locking the control panel
- 6.9 Changing the location mode
- 6.10 Switching to the function manager
- 6.11 Activating the menu
- 6.12 Parameter pages
- 6.13 Alarms, warnings and signals
- 6.14 Acknowledging alarms and warnings
- 6.15 The function manager
- 7. Device configuration
- 7.1 Defining operation parameters
- 7.2 Predefining preset lists
- 7.3 Adjustment limits
- 7.4 Configuring the control panel
- 7.5 Configuring the graphic display
- 7.6 Supervision
- 7.7 Reset to default configuration
- 7.8 Activating the photovoltaics feature
- 7.9 Unlocking the U/I/R mode
- 7.10 Locking the device configuration
- 8. Behaviour of the device when...
- 9. Pluggable interface cards
- 10. Built-in analogue interface
- 11. PV - Solar panel simulation
- 12. HS - High speed ramping
- 13. Miscellaneous

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© 2006, Elektro-Automatik GmbH & Co. KG
Irrtümer und Änderungen vorbehalten
EN
Instruction Manual
PSI 8000 3U HS PV Series
Date: 10-28-2011
Operating the device
Figure 9. Wiring remote sense
The product of both values, the actual power, would sink below
the previously set power limit and the device would change from
constant power regulation (CP) to constant current regulation
(CC).
Those three conditions CC, CV and CP are also indicated on the
appropriate pins of the optional, analogue interface cards or can
be read out as status bits via an optional, digital interface card.
8.7 Remote sense is active
Remote sense operation is used to compensate voltage drops
of the conductors between the power supply and the load.
Because the compensation is limited to a certain level, it is
recommended to match the cross section of the conductors to
the output current and thus minimise the voltage drop.
The sense input is located on the rear at terminal Sense, where
the sense conductors are connected to the load with correct
polarity. The power supply will detect the external sense au-
tomatically and compensate the output voltage by the actual
voltage at the load instead of the output. The output voltage
will be raised by the value of the voltage drop between power
supply and load.
Maximum compensation: see technical specications, will vary
from model to model.
Also see gure 9 below.
8.8 Mains undervoltage or overvoltage occurs
The units require two or three phases of a three-phase supply
with 400V phase conductor voltage and tolerate max. +15%.
This results in an input voltage range of 340...460V AC. Within
this range, the units can be operated without any restrictions.
Input voltages below 340V AC are considered as supply under-
voltage and will store the last condition, as well as switch the
power output off. Same happens at overvoltage above 460V AC.
Permanent input undervoltage or overvoltage must be
avoided!
8.9 Connecting different types of loads
Different types of loads, such as ohmic loads (lamp, resistor),
electronic loads or inductive loads (motor) behave differently
and can retroact to the power supply. For example, motors
can induce a countervoltage which may cause the overvoltage
protection of the power supply to shut off the output.
Electronic loads have regulator circuits for voltage, current and
power that can counteract to the ones of the power supply and
may result in increased output ripple or other, unwanted side
effects. Ohmic loads are almost 100% neutral. It is recommen-
ded to consider the load situation when planning applications.