Sc 1006 Net Gama Tronic

Gamatronic Electronic Industries Ltd.

Har Hotzvim Industrial Park, 14 Hartom St., PO Box 45029, Jerusalem 97774, Israel

Tel: +972-2-588-8222 Fax: +972-2-582-8875

Email: [email protected] Website: www.gamatronic.com

POWER SYSTEM CONTROLLER

MODEL SC1006 UNIVERSAL NET

12VDC, 24VDC, 48VDC, 60VDC

User Guide and Instruction Manual

Release 1.7

June 2006

Gamatronic Electronic Industries Ltd. User Guide

ii User Guide and Instruction Manual Gamatronic Electronic Industries Ltd.

Gamatronic Electronic Industries Ltd. Har Hotzvim Industrial Park

14 Hartom St.

PO Box 45029

Jerusalem 97774

Israel

Tel: +972-2-588-8222

Fax: +972-2-582-8875

Email: [email protected]

Website: www.gamatronic.com

Copyright 2006 by Gamatronic Electronic Industries Ltd. All rights reserved worldwide.

The information contained in this document is proprietary and is subject to all relevant copyright, patent and other

laws protecting intellectual property, as well as any specific agreement protecting Gamatronic Electronic Industries

Ltd. rights in the aforesaid information. Neither this document nor the information contained herein may be published, or reproduced, in whole or in part, without the express, prior, written permission of Gamatronic Electronic Industries Ltd. In addition, any use of this document or the information contained herein for any purposes other than those for which it was disclosed is strictly forbidden.

Gamatronic Electronic Industries Ltd. reserves the right, without prior notice or liability, to make changes in equipment design or specifications.

Information supplied by Gamatronic Electronic Industries Ltd. is believed to be accurate and reliable. However,

no responsibility is assumed by Gamatronic Electronic Industries Ltd. for the use thereof nor for the rights of third parties which may be affected in any way by the use thereof.

Any representation(s) in this document concerning performance of Gamatronic Electronic Industries Ltd.

product(s) are for informational purposes only and are not warranties of future performance, either express or

implied. Gamatronic Electronic Industries Ltd. standard limited warranty, available upon request, stated in its

sales contract or order confirmation form, is the only warranty offered by Gamatronic Electronic Industries Ltd. in relation thereto.

This document may contain flaws, omissions or typesetting errors; no warranty is granted nor liability assumed in

relation thereto unless specifically undertaken in Gamatronic Electronic Industries Ltd. sales contract or order confirmation. Information contained herein is periodically updated and changes will be incorporated into subsequent

editions. If you have encountered an error, please notify Gamatronic Electronic Industries Ltd. All specifications

are subject to change without prior notice.


SC1006 UNIVERSAL NET ¡Error! Estilo no definido.

iii

TABLE OF CONTENTS

1. INTRODUCTION....................................................................................................... 1

1.1 SC1006Net’s Main Features ....................................................................... 1

2. SYSTEM CONTROLLER ........................................................................................... 4

2.1 Front Panel ................................................................................................. 5

2.1.1 7-Segment Display.................................................................................... 6 2.1.2 7-Segment Display LEDs .......................................................................... 6 2.1.3 LED Status Indicators ............................................................................... 7 2.1.4 Control Buttons ......................................................................................... 8 2.1.5 Audible alarm buzzer ................................................................................ 8 2.1.6 RJ45 Communication Port ........................................................................ 8

2.2 RS232 Communication Protocol & Data Structure ...................................... 9

2.2.1 General Information .................................................................................. 9 2.2.2 Master ..................................................................................................... 10 2.2.3 Slave ....................................................................................................... 10 2.2.4 TCP/IP Communication .......................................................................... 11

2.3 Linking Other Equipment to the SC1006 ................................................... 12

2.3.1 Changing SC1006Net to SC1006Serial .................................................. 12

3. THEORY OF OPERATION ....................................................................................... 16

3.1 Modifying Nominal Values......................................................................... 16

3.1.1 Output Voltage ........................................................................................ 16 3.1.2 Battery Test............................................................................................. 17 3.1.3 Battery Charge Current Limit .................................................................. 17 3.1.4 Battery Charge Temperature Compensation .......................................... 17 3.1.5 LVD ......................................................................................................... 18 3.1.6 Alarm Thresholds.................................................................................... 18

3.2 Default Parameter Banks .......................................................................... 19

3.2.1 Actual Parameters Bank ......................................................................... 19

3.3 Measurement of System Parameters ........................................................ 20

3.4 Fault Detection and Alarms ....................................................................... 21

3.4.1 Alarm LOG .............................................................................................. 21 3.4.2 Alarm Dry Contacts ................................................................................. 22

4. MONITORING AND SETUP OF THE POWER SYSTEM ................................................. 23

4.1 Setting-Up Parameters in Edit Mode ......................................................... 23

4.2 Changing the Battery Charge Mode .......................................................... 24

4.2.1 Floating Voltage Setup............................................................................ 24 4.2.2 Equalizing Voltage Setup ........................................................................ 24

4.3 Testing Power System Components ......................................................... 25

4.3.1 Battery Test............................................................................................. 25 4.3.2 7-Segment Display/Alarm Buzzer/LEDs ................................................. 25 4.3.3 Relays ..................................................................................................... 26

4.4 Setting up the Nominal Values of Parameters........................................... 27

4.4.1 Saving and Restoring Nominal Values.................................................... 27

4.5 Setting up Alarm Thresholds ..................................................................... 28

4.6 Recalibrating the Power System's Measurements..................................... 29


POWER SYSTEM CONTROLLER MODEL SC1006 UNIVERSAL NET

iv

4.7 Real Time Clock (RTC) ............................................................................. 30

4.8 Resetting the Controller ............................................................................ 31

4.9 Indications and Measurements.................................................................. 31

4.10 Special Codes for System Monitoring/Setup ............................................. 32

Figures

FIGURE 1: PS1006 POWER SYSTEM WITH AN SC1006 CONTROLLER ............................ 4

FIGURE 2: SC1006 FRONT PANEL ............................................................................... 5

FIGURE 3: CROSS CABLE .......................................................................................... 12

FIGURE 4: PC157 BOARD CONFIGURED FOR SERIAL COMMUNICATION .......................... 13

FIGURE 5: PC157 BOARD CONFIGURED FOR ETHERNET SNMP AND THE PC375 BOARD14

FIGURE 6: PC157 BOARD CONFIGURED FOR ETHERNET SNMP AND THE PC575 BOARD15

FIGURE 7: DEFAULT DRY CONTACTS-ALARMS CONNECTIONS...................................... 22

FIGURE 8: MEASURING CALIBRATION VALUES WITH A DMM ........................................ 29

FIGURE 9: MAIN SCREEN, PSM-DC 1006 MONITORING SOFTWARE (48V SYST.)........... 37

FIGURE 10: SET VALUES TAB, PSM DC 1006 MONITORING SOFTWARE (48V SYST.) .... 38

FIGURE 11: SET ALARMS TAB, PSM DC 1006 MONITORING SOFTWARE (48V SYST.) .... 38

Tables

TABLE 1: 7-SEGMENT DISPLAYS .................................................................................. 6

TABLE 2: LED STATUS INDICATORS ............................................................................. 7

TABLE 3: CONTROL BUTTONS ...................................................................................... 8

TABLE 4: STATUS ALARMS......................................................................................... 20

TABLE 5: ALARM MESSAGES...................................................................................... 21

TABLE 6: MEASURING CALIBRATION VALUES WITH A DMM .......................................... 29

TABLE 7: SYSTEM MONITORING AND SETUP................................................................ 32



1

1. INTRODUCTION

The SC1006NET controller enables the user to control and monitor all components of

the PS1006 DC power supply system. The ability to reset various configurations

allows the user to adjust the system to suit specific needs. The clear, simple, user-

friendly graphic user interface (GUI) makes the controller easy to use, configure and

calibrate.

SC1006NET can be used with 12V, 24V, 48V, and 60V power systems.

The communication protocol for SC1006NET is detailed in RS232 Communication

Protocol & Data Structure, page 9 and TCP/IP Communication, page 11.

The user may refer to this protocol to either write an application or to implement

Gamatronic’s Windows-based monitoring and control software (PSM-DC1006

NET/SERIAL).

1.1 SC1006Net’s Main Features

SC1006Net’s main features include:

1. Control of power system components/parameters:

a. DC output voltage control.

b. Control of up to two LVDs with an independent threshold

disconnection setup.

c. Forces each LVD to open independently / Sets it back to normal.

d. Controller reset.

e. Easily restored factory defaults.

f. Easily saved and restored user defaults (in addition to factory defaults).

g. Operation with either one or two battery sets (affects the battery test

procedure).

2. Tests of power system components:

a. Battery test – up to two battery sets, both manual and

periodic/automatic triggering, protected by an adjustable top time.

b. 7-Segment Display-LED-buzzer test.

c. Relay test.

3. Alarms:

a. Three output dry contacts for alarm indication, which are entirely

configured by the user.

b. Alarm buzzer-mute controlled locally by a control button or remotely

by an application.

c. Setting the threshold levels for triggering alarms.



2

d. Modem dialing upon alarm activation.

e. Phone number for modem dialing set by the user.

f. Event LOG – 192 cyclic event LOG (+ CLEAR).

g. Embedded real-time clock backup for two weeks of voltage supply

absence.

4. Remote monitoring and control:

a. IP, MASK and GATEWAY parameters used by the TCP/IP

communication.

b. Modem init string (READ/WRITE) for modem installation (unit

configuration).

c. User ID – an additional six-byte of nonvolatile identification.

5. User-friendly user interface:

a. Three-digit 7-Segment Displays for displaying measurements and

parameter values.

b. Intensity control of the 7-Segment Displays.

c. LED indicators displaying system status.

d. LEDs indicating which parameter is being monitored/modified.

6. User adjustable parameters:

a. Battery test supply voltage and failure threshold levels adjustable by

the user.

b. AC voltage failure threshold (high and low) levels adjustable by the

user.

c. Separate DC voltage failure threshold (high and low) levels for

equalizing and floating charge modes adjustable by the user.

d. Over-temperature threshold level adjustable by the user.

e. Auto battery test period and top time adjustable by the user.

f. Auto equalizing period and top time adjustable by the user.

g. Independent voltage setup for both floating and equalizing modes.

h. A unique ID, which is determined by the manufacturer and by the user.

i. Calibration of ACV DCV LOAD-current and RECT current easily

performed by the user, thus reducing the number of drift- and error

effect.

j. One-step current measurement offset (caused by hardware) strip-off.



3

7. Optional features that the user can enable/disable:

a. Enable / Disable automatic equalizing.

b. Periodic/Auto and Manual boost mode, protected by an adjustable top

time.

c. Battery charge temperature compensation.

d. Temperature coefficient and temperature compensation Enable /

Disable determination adjustable by the user.

e. Battery charge current limit.

f. Battery current limit value and Enable / Disable determination

adjustable by the user.

8. Measurements shown on 7-segment display:

a. DC output voltage.

b. DC rectifiers total current.

c. Battery charge/discharge currentt.

d. Load current.

e. Temperature reading from the relocatable temperature sensor.

9. LED indicators:

a. AC line voltage status.

b. LVD status.

c. Battery testing status and last test result.

d. DC output voltage status (float / equalize).

e. Faults indication (an audible alarm is also present).

f. Communication status.



4

2. SYSTEM CONTROLLER

The SC1006NET system controller is housed in the power system’s rack along side a

user-defined number of rectifiers (one or more), which it monitors and controls along

with the rest of the system’s components (i.e. LVDs, batteries, etc.).

The controller is a “Hot Swap” Plug-In model that can be replaced or switched on and

off during system operation without damaging either the controller or the system's

operation mode or components.

The controller’s main components include the front panel communication port and the

back panel connector that links the controller to the system.

Rectifiers Controller

Figure 1: PS1006 Power System with an SC1006 Controller



5

2.1 Front Panel

The SC1006NET front panel contains the following:

1. A three-digit 7-Segment Display panel

2. Five LED indicators under the 7-Segment Display that indicate which parameters

are currently being displayed or reconfigured

3. Five LEDs to indicate the real-time status of the power system.

4. Two LEDs to indicate the current communications status.

5. Seven control buttons for managing the controller

6. An audible alarm buzzer that warns of a fault or faults in the system

7. An RJ45 Communication Port that allows remote communication with the

controller, via the RS232 or 10Base-T/Ethernet protocols. The protocol used by

the SC1006 controller depends on the cable used and the data received by the

SC1006.

Figure 2: SC1006 Front Panel



6

2.1.1 7-Segment Display

In Monitoring mode, the 7-Segment Display digitally displays the real-time status of a

system parameter. The user can change the nominal values of the parameter displayed

on the 7-Segment Display with the Up and Down arrow buttons (see Setting up the

Nominal Values of Parameters, page 27).

2.1.2 7-Segment Display LEDs

The lit LED under the 7-Segment Display indicates which system parameter is

currently being monitored or modified. The relationship between the LED, the 7-

Segment Display and the parameter modifications is described in the following table:

Table 1: 7-Segment Displays

LED 7-SEGMENT DISPLAY SETTING MODIFICATION

VDC DC Voltage measurements (Output Voltage)

Adjusting the output voltage in Floating Mode

Arect Total DC current output from the rectifiers

None

Abatt Battery output current Adjusting threshold voltage for opening the 2 LVDs

Aload Current drawn by a load None

TEMP Battery temperature Adjusting the coefficient by which the charge voltage for batteries is modified to compensate for high or low battery temperature



7

2.1.3 LED Status Indicators

The color-coded LED lights indicate the real-time status of system components, as

described in the following table:

Table 2: LED Status Indicators

LED COLOR MEANING

AC Green A steady light indicates normal input voltage from the mains

AC Unlit No voltage from the mains

LVD Red A steady light indicates that the LVD is open (either the controller system opened the LVD to prevent battery damage or the user manually opened the LVD)

LVD Unlit An unlit LED indicates a normal operation mode.

BATT Green 1. A steady light indicates that the last battery test passed

2. A flashing light indicates a battery test in progress

BATT Unlit An unlit LED indicates the last battery test failed.

FAULT Red 1. A steady light indicates that there is a fault in the system.

2. A flashing light indicates that there is a rectifier fault plus the possibility of another fault as well.

FAULT Unlit An unlit LED indicates that there are no active faults in the system.

FL / EQ Green 1. A steady light indicates normal DC voltage and that the system is in Floating mode.

2. A flashing light indicates that the system is in Equalizing mode.

FL / EQ Unlit Indicates a fault in the DC voltage

LINK Lit The controller is communicating with a remote application via a Serial or Net connection:

1. 10BaseT (Ethernet) - Indicates that the link is OK

2. Serial - Indicates serial Line activity

ACT Lit 10BaseT (Ethernet) - Net Activity



8

2.1.4 Control Buttons

The following table describes the results of pressing each of the control buttons.

Table 3: Control Buttons

BUTTON DESCRIPTION

BATT TEST 1. Manually initiates a battery test.

2. Aborts an ongoing battery test.

(ALARM OFF) 1. Silences the beep tone that signals an active alarm.

2. Manually initiates a test of the controller's LEDs, display, and alarm beep tone if it is pressed when the alarm is silent. (Note: This does not test the LINK and ACT LEDs.)

UP / DOWN

ARROW BUTTONS

1. Browses measurements and parameters

2. Modifies parameters

ENT 1. Enters Setup mode

2. Saves changes made in Editing or Setup modes

+ ENT Enters Editing mode (enhanced setup mode)

ESC 1. Exits Setup or Editing mode.

2. Pressing this key for a few seconds displays the F Indicator codes on the 7-Segment Display screen (see Special Codes for System Monitoring/Setup, page 32).

EQ 1. Manually switches the Charge mode from Equalizing to Floating when the controller is in Equalizing mode.

2. Manually switches the Charge mode from Floating to Equalizing when the controller is in Floating mode.

Reset Resets the controller

2.1.5 Audible alarm buzzer

The audible alarm buzzer warns users of the existence of a fault or faults in the power

system. It continues to sound until the fault no longer exists or until the button is

pressed. The Fault LED remains lit until the fault is no longer active, even if the

alarm buzzer has stopped.

2.1.6 RJ45 Communication Port

This port enables remote communication with the controller, allowing remote

monitoring and control of operation, status, and parameter setting. The following

communication protocols may be used with it (see RS232 Communication Protocol &

Data Structure, page 9):

1. RS232 serial port

2. SNMP (TCP/IP – Ethernet)

3. SNMP (TCP/IP – PPP)



9

2.2 RS232 Communication Protocol & Data Structure

The SC1006 system controller supports a unique RS232 communication protocol.

This protocol allows a user at a remote location to send commands to the controller

and retrieve data and status information from it:

1. The command packet (sent to the controller) includes the operation codes to be

carried out by the controller plus any data required for that operation.

2. The retrieved packet (sent by the controller) includes all possible data that can

be supplied by the controller. It is sent every time a valid command packet is

received, even if the command packet only contains a non-operation

command.

2.2.1 General Information

The communication protocol adheres to the following general rules:

1. The host PC and the controller communicate via Half-Duplex RS232 9600.N.1

RX, TX, GND lines with no flow control (neither hardware nor software).

2. The host is always the master and the controller is the slave.

3. The data is binary with no dedicated control characters.

4. Data transmitted by each end has a constant length.

5. Three elements are utilized for data reliability:

a. three byte – header

b. one byte – check sum

c. three byte – termination.

6. On receiving a valid packet, the controller starts responding within 50 msec.

7. On receiving a header start (0 × AC) a 500msec, a long reception window is

initiated. If a valid packet is received it is processed, otherwise, the controller

backs-off by initializing the reception counter.



10

2.2.2 Master

The “master” is normally a PC or a remote power management system. The master

sends its packet, which includes the header, opcode, data, checksum and termination.

The ten-byte opcode bit-combination enables the user to perform one or more

functions simultaneously.

The 97-byte data should include operation-relevant data set by the user as opcode.

2.2.3 Slave

The “slave” is normally the SC1006NET controller. The slave responds as soon as it

receives a valid packet, which includes a header, received_opcode,

received_checksum, id, data, checksum and termination.

1. The received_opcode is the last opcode received from the master.

2. The received_checksum is the last checksum received from the master.

3. The four-byte id consists of preprogrammed three bytes and an additional byte,

which may be programmed by the master.

4. The 118-byte data always includes all the data or status information that the

user may request, i.e., every transaction relayed from the master to the slave

results in the retrieval of all possible data that the slave is able to supply.

Note: The data retrieved in a transaction does not include the changes made by the

host’s command (if any). Another retrieval should take place in order to receive the

values affected in the previous command.



11

2.2.4 TCP/IP Communication

The SC1006Net controller enables the user to communicate via SNMP and to send

alarms to remote NMS(s).

Gamatronic applications that work with the SC1006Net controller are PSM-DC

1006Net, GeMS and Global Control. Before these applications can monitor and

control the power system, the user must set the IP, Gateway and Mask addresses of the

controller and the IP addresses of the remote NMS(s) that are to receive Alarm Traps

(optional).

The codes for the controller addresses are:

• IP: B01-B04

• Gateway: B05-B08

• Mask: B09-B12

To set the addresses of the controller via its front panel:

1. Go into Edit mode. To enter Edit mode:

Press and hold . You will hear a beep, and the screen displays “888”.

Quickly, while “888” is still displayed, and while still holding , press ENT.

This brings you into Edit mode.

2. In Edit mode, the screen flashes continuously. Every four or five flashes, it

displays the current field code. The first field code you will see is A01.

3. Press the arrow buttons until B01 appears and press ENT.

(See Table 7 on page 32 for the meaning of the various codes displayed on the

screen.)

4. Change the value of the address using the arrows and press ENT to save the value.

5. Press the arrow buttons until B02 is displayed.

6. Repeat step 3 until the contents of the B01-B12 fields have been set.

7. Press ESC to return to Monitoring Mode.

To configure an MIB Browser to receive Alarm Traps from the controller:

1. Open a MIB Browser.

2. Enter the IP address of the controller into the Remote SNMP Agent field.

3. Open a MIB Compiler.

4. Add Gamatronic PS MIB to the compiler.

5. Compile it in psTrap; alarm traps appear in the MIB tree in psSecurityTrapIp1,

psSecurityTrapIp2, psSecurityTrapIp3, or psSecurityTrapIp4.

Note: It is possible to configure up to four NMS.



12

2.3 Linking Other Equipment to the SC1006

The circuit boards installed in the SC1006 determine the protocol it uses to

communicate with the devices attached to it.

For serial RS232 communication, only the PC157 motherboard is required.

For TCP/IP communication, the addition of either the PC575 (or PC375) is also

required. The additional card is connected to the PC177 card with two connectors.

2.3.1 Changing SC1006Net to SC1006Serial

To transform SC1006Net into SC1006Serial, a technician must:

1. Replace the 10baseT cable connecting SC1006Net to PS1006 with a cross

cable (see Figure 3)

2. Change the jumpers on the SC1006Net controller card to match the jumpers in

Figure 4

Figure 3: Cross Cable



13

Figure 4: PC157 board configured for serial communication



14

Figure 5: PC157 board configured for Ethernet SNMP and the PC375 board



15

Figure 6: PC157 board configured for Ethernet SNMP and the PC575 board



16

3. Theory of Operation

SC1006 monitors and controls the PS1006 power supply system with:

1. Nominal values of system parameters that can be setup by the user or imported

from a parameters bank.

2. Measurements of the system's input AC voltage and output DC voltage and

current.

3. Responses to data received from the system.

4. Fault detection and alarms.

3.1 Modifying Nominal Values

The values the following power system parameters can be set by the user or imported

from a parameter bank (see Default Parameter Banks, page 19):

1. Output voltage.

2. Battery test.

3. Battery charge current limit.

4. Battery temperature compensation.

5. LVD opening.

6. Alarm thresholds.

3.1.1 Output Voltage

The system output voltage set by the controller is affected by:

1. Activated charge mode (floating/equalizing).

2. Battery temperature compensation (if enabled).

3. Battery test (if activated).

4. Battery charge current limit (if enabled).

5. Deviation of output voltage.

In the absence of a controller or in the event of a controller failure, the output voltage

reverts to the system's default output voltage.

3.1.1.1 Output / Floating Voltage Setup

To change the output / floating voltage setting:

1. Press the arrow buttons until the VDC LED is lit.

The floating voltage is displayed.

2. Press the ENT button. The display flashes.

3. Use the arrow buttons to set the output voltage.

4. Press ENT to save the new setting.

5. Press ESC to quit.



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3.1.2 Battery Test

The user may manually initiate a battery test at any time via a control button or a

remote application. In addition, an enabled automatic battery test occurs whenever a

period of days (set by the user) has passed.

The battery test uses an algorithm involving the actual battery current and battery

capacity that is set by the user and which can always be modified by the user.

The formula is:

TIME LEFT (sec) =

[BATTERY CAPACITY (AH) × 180 / BATTERY CURRENT (A)] – ELAPSED TIME (sec)

In any event, the test time does not exceed the time limit parameter. The controller can

handle up to two battery sets (the number of batteries is set by the user). It uses the

LVDs to switch off the battery not being tested. Throughout the test, the supply

voltage is lowered to a defined voltage set by the user which allows the battery to

discharge. The controller continually checks the battery’s voltage, waiting for it to

cross the threshold set by the user as the criteria that indicates a bad battery. If

threshold is crossed, the test of the battery is aborted and the battery is considered

faulty. The results are stored separately in a non-volatile memory.

3.1.3 Battery Charge Current Limit

The battery charge current limit controls, if enabled, the output voltage in the event

that the battery current is higher then the preset user value. The control is achieved in

real-time, ensuring that the higher the current reaches, the lower the output voltage

(and vice versa).

To set up the total battery charge current limit of the power system, you must enter

Edit mode and change the values defined for field codes C17 and D10. Refer to

section 4.1 “Setting-Up Parameters in Edit Mode” on page 23

3.1.4 Battery Charge Temperature Compensation

The system’s temperature is measured by two sensors. These real-time sensors are

used for determining the amount of temperature compensation required as well as the

criteria for activating the over temperature alarm.

The battery current compensation effects, if enabled, the output voltage according to

the formula below, where K is the compensation value determined by the user.

VP (T°C) = VP (25°C) – 24 × K (T°C - 25°C)

Where the VP is limited in the following way:

VP (25°C) – 1.5 < VP < VP (25°C) + 2



18

3.1.4.1 Battery Charge Temperature Compensation Setup

By default, the battery charge temperature compensation is set to 6mV per battery cell.

To change the compensation setting:

1. Press the arrow buttons until the TEMP LED is lit.

2. Press the ENT button to display the mV compensation value.

3. Use the arrow buttons to modify the compensation value, if required.

4. Press the ENT button to save the new setting.

5. Press ESC to return to Monitoring mode.

3.1.5 LVD

System controller SC1006 supports up to two LVDs. The number of LVDs (one or

two) is set by the user and equals the number of battery sets.

The LVD’s first and most important task is to disconnect the batteries in the event

that a deep discharge is endangering the battery’s life. The user determines the criteria

for opening each LVD separately. The user also defines the hysteresis (the gap

between the opening and closing voltage of an LVD).

The LVD’s second function - during the battery test - is to disconnect the battery not

being tested (in the case of a two battery system only). It is possible to turn off or

normalize asynchronously each of the LVDs, regardless of the system status.

3.1.5.1 LVD Voltage Setup

To change the voltage on both LVDs:

1. Press the arrow buttons until the ABAT LED is lit.

2. Press the ENT button to display the existing LVD voltage setting.

The display flashes.

3. Use the arrow buttons to change the voltage setting as required.

4. Press ENT to save the new setting


3.1.6 Alarm Thresholds

There is a range of permitted values for each system parameter. If the value of a

system parameter is outside the defined range, an alarm is triggered (see Setting up

Alarm Thresholds, page 28).



19

3.2 Default Parameter Banks

There are two categories of stored default values for parameters, which can be

retrieved at any time to become the current values of parameters:

• Factory defaults determined by Gamatronic. The user may retrieve them but

cannot modify them.

• The user default bank in which the current parameters can be copied and later

retrieved as default parameters.

The two options allow the user the flexibility and confidence of being able to return to

the factory defaults, as well as the convenience of retrieving user-defined parameters

already stored as good functioning ones.

3.2.1 Actual Parameters Bank

APPLICATION

1006

ACTUALFRAME

USERDEFINED

FACTORYDEFINED

READ ONLY

READ/WRITE

SAVE USER

DEFAULTS

RESTOREUSER

DEFAULTS

RESTOREFACTORYDEFAULTS

The controller always uses the non-volatile ACTUAL PARAMETERS BANK as its

reference for settings, alarms, etc. (normal operation). This bank can be updated by

the user via both the controller's panel and a remote software application. In addition,

an entire bank can be copied into it. For this purpose, the user can choose to copy

either Factory or User Defaults to the actual bank (see Saving and Restoring Nominal

Values, page 27).

Factory Defaults are rigidly determined by the factory, while User Defaults can be

created and saved by the user from a setup existing in the controller at any time.



20

3.3 Measurement of System Parameters

The system parameters described in the following table are constantly being measured

to provide updated data about their real-time status. The permitted nominal value

range for these parameters is set by the user or the manufacturer. If the monitored

value for these parameters is out of the permitted range, an alarm is triggered. (See

Fault Detection and Alarms, page 21 for a table listing the faults linked to each alarm

message.

Table 4: Status Alarms

PARAMETER STATUS INFORMATION ALARM MESSAGE

AC Input Line AC voltage from the mains AC HIGH AC LOW

DC Output DC output voltage for

floating mode

DC HIGH DC LOW

DC LOWLOW LVD-2 DRIVEN OPEN LVD-1 DRIVEN OPEN

DC Output DC output voltage for equalizing mode

DC HIGH DC LOW

DC LOWLOW LVD-2 DRIVEN OPEN LVD-1 DRIVEN OPEN

Load Current Current drawn by the load

Rectifier Current

Sum of the total output current from all the rectifiers

RECTIFIER FAIL

Battery Current

Calculated by subtracting the load current from the rectifier

current

Activates the current limit feature (if enabled)

Battery Temperature

Temperature of batteries OVER TEMPERATURE

Dry Contacts Circuit breakers open or closed

AUX BREAKER OPEN LOAD BREAKER OPEN

BATTERY BREAKER OPEN AUX CONTACT CLOSED

INV/CONV FAULT CONTACT OPEN

Note: The alarm levels for DC Output are set separately for floating and equalizing

modes so that there are suitable alarm levels for whichever mode is running at any

given time.



21

3.4 Fault Detection and Alarms

The controller generates alarms in response to the power system faults described in

the following table. When an alarm becomes active the Fault LED lights up, the

alarm buzzer sounds, and an alarm message - marked by a Time Stamp - is recorded

in the Event Log. One of the LED status indicators may light up too.

Each alarm remains active for as long as the fault remains active. It disappears as

soon as the fault no longer exists. The exception to this is a failed battery test.

Batteries must pass the battery test for their alarm status to revert to normal.

The alarm message associated with each fault is described in the following table:

Table 5: Alarm Messages

ALARM MESSAGE FAULT

AC Low Low voltage in mains

AC High High voltage in mains

DC High Voltage DC output voltage high

DC Low Voltage DC output voltage low

DC LowLow Volt DC output voltage too low (LVD is opened)

Batt#1 Test Fault Fault in Battery 1

Batt#2 Test Fault Fault in Battery 2

LVD-2 Driven open Low Voltage Detector 2 opened due to low output voltage (batteries disconnected from system)

LVD-1 Driven open Low Voltage Detector 1 opened due to low output voltage (batteries disconnected from system)

Aux Contact open Auxiliary input dry contact open

Aux Breaker open Auxiliary input circuit breaker open

Battery Breaker open Battery circuit breaker open (batteries disconnected from system - no system backup or charging)

Load Breaker open Load circuit breaker open (load disconnected from system)

Inv/Conv fault Fault in Inverter/Converter module (if installed)

Rectifier Fail Rectifier is not OK

Over Temperature Battery temperature high

3.4.1 Alarm LOG

Each event is recorded in an event LOG which contains the history of up to 192 power

system faults along with information describing each event and when it occurred.



22

3.4.2 Alarm Dry Contacts

Three dry contacts are used for direct alarm activation. The user can connect a dry

contact to any (or none) of the 16 listed alarms. An alarm can be connected to more

than one dry contact and a dry contact can be connected to more than one alarm.

When an alarm assigned to a dry contact is activated, the dry contact is also activated.

The default (set by the manufacturer) connections between alarms and dry contacts are

indicated by the darkened squares in Figure 7.

Figure 7: Default Dry Contacts-Alarms Connections



23

4. MONITORING AND SETUP OF THE POWER

SYSTEM

When the SC1006 controller is in Monitoring mode, the user can monitor any of five

system measurements or parameters. These system parameters are represented by the

five LEDs immediately under the 7-Segment Display (see Table 1 on page 6). To

monitor a specific parameter, press an arrow button until the LED for the desired

parameter is lit. (See section 3.1, Modifying Nominal Values, on page 16.)

The other system parameters can be monitored in Editing Mode. See 4.1 below.

The user can use SC1006 to control the power system by:

1. Changing the battery charge mode.

2. Testing power system components.

3. Setting up the nominal value of power system parameters.

4. Setting up the alarm thresholds of power system parameters.

5. Recalibrating the power system's measurements.

6. Setting the Real-Time Clock.

7. Resetting the Controller.

4.1 Setting-Up Parameters in Edit Mode

To set up the controller, you must enter Edit mode. You also need to know the “field

code” of the parameter you want to change. Table 7 which begins on page 32 lists the

field code for each of the system’s parameters.

1. Press and hold . You will hear a beep, and the screen displays “888”.





3. Use the arrow buttons to move forward (or backward) through the field codes until

the desired field code is shown on the 7-Segment Display .

(The arrow buttons change the display each time an arrow they are pressed).

4. Press ENT to enable editing of the parameter.

5. Use the arrow buttons to modify the value of the parameter as needed.

6. Press ENT to save the changes.

7. Press ESC to end the Edit mode and return to Monitoring mode.



24

4.2 Changing the Battery Charge Mode

There are two battery charge modes, each of which has different settings and output

voltages:

• Floating - Normal battery charging mode

• Equalizing - Forced, accelerated battery charging mode

If the automatic equalizing mode is enabled, the system automatically goes into

equalizing mode after:

• the passage of a set period of time.

• a power failure or controller startup (after a delay of ten minutes).

• the batteries are discharged.

The equalizing session is terminated when either a pre-set time limit is reached or the

charge current becomes low (1/10 of the battery’s capacity in amperes).

Note: In the event of a power failure an equalizing mode session is aborted.

The user can manually switch to either of these modes at any time.

To manually switch to Equalizing mode: Press the EQ button when the system is

in Floating mode.

To manually switch to Floating mode: Press the EQ button when the system is in

Equalizing mode.

4.2.1 Floating Voltage Setup

To change the floating voltage value, see 3.1.1.1 “Output / Floating Voltage Setup” on

page 16.

4.2.2 Equalizing Voltage Setup

To set the equalizing voltage:




2. In Edit mode, the screen flashes continuously. Every four or five flashes, the

current field code is displayed. The first field code to be displayed is A01.

In addition to the field code A01, the screen also shows the equalizing voltage.

3. Press ENT.

4. Use the arrow buttons to adjust the value of the equalizing voltage.

5. Press ENT to save the new equalizing voltage.

6. Press ESC to exit Edit mode and return to Monitoring mode.



25

4.3 Testing Power System Components

The user can test three power system components to verify they are working properly:

• Batteries.

• 7-Segment Display/Alarm buzzer/LEDs.

• Relays.

4.3.1 Battery Test

The system automatically tests up to 2 batteries periodically. The user can set the

length of time between battery tests and the battery test’s duration. If the battery tests

exceed the time specified, it is automatically aborted.

There are 2 possible methods of testing the batteries:

1. When setting up 1 set of batteries, while connected to the rectifier the voltage

should decrease to 45V (for 48VDC applications) or to 22.5V (for 24VDC

applications).

If while testing the voltage drops below 46v (for 48VCD applications) or below

23VDC (for 24VDC applications), the battery is faulty.

2. When setting up 2 sets of batteries, the controller disconnects one set and checks

the other as above.

At controller setup, the battery capacity should total the battery capacity string.

To manually start a battery test: Press the Batt Test button.

To manually abort an ongoing battery test: Press the Batt Test button while the

batteries are being tested.

4.3.2 7-Segment Display/Alarm Buzzer/LEDs

The control panel's 7-Segment Display, alarm buzzer and LEDs are automatically

tested to check if they are all working properly whenever the controller is turned on.

To manually test them: Press the button when the alarm is silent.



26

4.3.3 Relays

There are three relays for alarms out (dry contacts). A technician can test any of them

in Edit Mode at any time to check if it is working normally.

To test the dry contact relays:






3. Use the arrow buttons to move through the field codes until C01 is shown on the

7-Segment Display .

(The arrow buttons change the display each time an arrow they are pressed).

4. Press ENT to enable editing.

5. Use the UP arrow button to change the value of the field from 0 to the number of

the relay to be tested (1, 2, or 3).

6. Press ENT to save the changes made in the field; that relay is now disabled.

7. Perform an electrical check of the relay with an ohmmeter.

8. Repeat steps 2-6 until all the relays have been tested.

9. Presssing ESC causes you to exit from Editing Mode and returns you to

Monitoring mode.

Note: Only one relay can be disabled at a time. Disabling a second relay

automatically enables the first one. Pressing ESC to exit Editing Mode automatically

enables all disabled relays.



27

4.4 Setting up the Nominal Values of Parameters

There are three system parameters whose values can be modified in Setup mode: (See

section 3.1 “Modifying Nominal Values” on page 16.)

• VDC (DC Output Voltage).

• Abatt (LVD opening and battery disconnect voltage).

• Temp (Temperature Compensation Coefficient).

Each of these three parameters is represented by an LED under the 7-segment display.

To enter Setup Mode for a parameter:

1. Press an arrow button until the screen displays either VDC, Abatt or Temp.

2. Press ENT to enter Setup mode for that parameter; the screen and the LED for that

parameter’s start blinking.

To increase the value of a parameter in Setup mode:

1. Press the Up arrow button repeatedly until the desired value is reached.

2. Press ENT to save the value in the non-volatile memory of the controller.

To decrease the value of a parameter in Setup mode:

1. Press the Down arrow button repeatedly until the desired value is reached.

2. Press ENT to save the value in the non-volatile memory of the controller.

4.4.1 Saving and Restoring Nominal Values

The user can use Edit Mode to:

1. Save the new, user-defined nominal values (field code C12).

2. Reset the nominal values to their factory-defined default values (field code C10).

3. Reset the nominal values to their user-defined default values (field code C11).

To save or restore nominal values:

Refer to Table 7 on page 32 to interpret the field codes.



This puts you into Edit mode.



3. Use the arrow buttons to move through the field codes until the field code you

want is displayed on the screen.

4. Press ENT to permit editing.

5. Use the UP arrow button to change the field's value from 0 to 1 and press ENT.




28

4.5 Setting up Alarm Thresholds

The user can go into Editing Mode to set up the acceptable range of values for system

parameters. A value that is out of range triggers an alarm. These alarm thresholds can

be set up for the following parameters:

1. Low AC input voltage - Field Code A06.

2. High AC input voltage - Field Code A07.

3. Low DC Output voltage (Floating Mode) - Field Code A09.

4. LowLow DC Output voltage that opens LVD (Floating Mode) - Field Code A08.

5. High DC Output voltage (Floating Mode) - Field Code A10.

6. Low DC Output voltage (Equalizing Mode) - Field Code A12.

7. LowLow DC Output voltage (Equalizing Mode) - Field Code A11.

8. High DC Output voltage (Equalizing Mode) - Field Code A13.

9. Battery Test Alarm Voltage - Field Code A05.

10. High Battery Temperature - Field Code C13.

To set alarm thresholds:






3. Use the arrow buttons to move forward (or backward) through the field codes until

the field code you want is displayed.

4. Press ENT to display the current value of that field code.

5. Use the arrow buttons to change the parameter’s value.

6. Press ENT to save the new value of that parameter.

7. Pressing ESC causes you to exit Editing mode and returns you to Monitoring

mode.

Note: See Special Codes for System Monitoring/Setup, page 32 for a complete list of

field codes.



29

4.6 Recalibrating the Power System's Measurements

The power system is calibrated before it leaves the factory to guarantee precise voltage

and current measurements by removing measurement inaccuracies on the hardware

path. However, if it becomes necessary to recalibrate it again, an authorized

technician can easily recalibrate the system's two measured voltages and two

measured currents at any time remotely via software or directly via the controller.

Before the system can be recalibrated the real value of the measurements must be

determined with an accurate, 3-digit Digital Multi Meter (DMM) such as Fluke model

87. These values are then used to recalibrate the system (see below).

To determine the real value of system measurements:

1. Disconnect the system's batteries (so that Load Current = Rectifier Current).

2. Use a DMM to measure the real value of the measurements as described in Figure

8 and the table below.

SHUNT

mV

DMM

Vac

DMM

Vdc

DMM

LINE

PS1006 system

LOADS

under calibration

PH

N (-)

(+)INPUT OUTPUT

Figure 8: Measuring Calibration Values with a DMM

Table 6: Measuring Calibration Values with a DMM

MEASUREMENT CONTROLLER

CALIBRATION

CODE

WHAT TO SET

THE DMM TO

MEASURE

WHERE TO

CONNECT THE

DMM

LOAD WHEN

MEASURING

DC Voltage A16 Volts DC output (Vdc) Half Load

AC Voltage A17 Volts AC input (Vac) Half Load

Load Current A14 Amperes Shunt (mV) Full Load

Rectifier Current A15 Amperes Shunt (mV) Full Load

To calibrate system measurements:






3. Press the arrow buttons until the controller calibration code is displayed and press

ENT. (Table 7 on page 32 lists the meaning of each field code.)



30

A field appears that already contains the logical value for that code (i.e. 220 for

AC Voltage) to make calibration easier.

4. Press the UP/DOWN arrow buttons until the field's value is the same as the real

value measured by the DMM and press ENT.


The logical value of the A14-17 field codes remains the same even after recalibration.

The recalibrated value cannot be viewed by accessing these codes. The only way to

find out if these parameters were recalibrated correctly is to observe the effect of the

recalibration on the system's measurements. Once recalibration is complete its effect

should be checked immediately to verify that it was done correctly.

To observe the effect of recalibration do the following:

• DC Voltage - Use the arrow buttons to select the VDC LED.

• AC Voltage - Go to Field Code F01 by pressing the ESC button for 5 seconds.

• Load Current - Use the arrow buttons to select the Aload LED.

• Rectifier Current - Use the arrow buttons to select the Arect LED.

At the beginning of the recalibration the batteries were disconnected from the power

system. The batteries should now be reconnected.

4.7 Real Time Clock (RTC) The real time clock is active during the entire controller operation time and will

continue to run for 14 days even if there is no voltage supply to the controller. The

main function of the real time clock is to provide the time for the timestamp that

forms part of each entry in the event log.

There are six field codes for setting the parameters of the RTC:

1. B13 – Second.

2. B14 – Minute.

3. B15 – Hour.

4. B16 – Day of the week.

5. B17 – Day of the month (date).

6. B18 – Month.

7. B19 – Year.

To set the RTC of the controller via its front penal:








31

3. Use the arrow buttons to display the RTC field code to be changed and press ENT.

4. Use the arrow buttons to change the value and press ENT.

5. Repeat step 2 until the contents of all the RTC fields have been changed.


4.8 Resetting the Controller

Resetting the controller causes the controller to initialize itself. This causes an

interruption in the power supply to the load devices and should therefore be avoided

whenever possible.

To reset the controller: Press the Reset button.

Note: resetting the controller alone and not the PS1006 units has no effect on

the calibration of the PS1006 units, nor on any of their parameter settings or

features.

During the few seconds that the reset is taking place, the system is not under

the control of the controller.

When the controller is switched on LEDs light up and the alarm buzzer sounds. This

process continues for a few seconds after which the controller is stabilized and the 7-

Segment Display shows the power system's DC voltage value.

It is possible to perform a remote reset from an application to restart the controller.

The affects are the same as if the Reset button on the panel was pressed.

Note: Avoid resetting the controller if possible. The Reset button is recessed to

prevent inadvertently resetting the controller and must be accessed with a thin pin.

4.9 Indications and Measurements 1. Press ESC button for 5 seconds.

The display shows field code F01 (Input AC Voltage).

2. Use the arrow buttons to change the field codes and to display each field’s value.

(Refer to pages 35 and 36 of Table 7.)




32

4.10 Special Codes for System Monitoring/Setup

The SC1006 display allows the user to monitor the system in “Monitoring Mode” or

to use the setup features in “Editing Mode. (See 4.1 on page 23 for details.)

Table 7 below provides explanations on the codes presented on the display.

Table 7: System Monitoring and Setup

TYPE OF INDICATION/SETTING DESCRIPTION ID

INDICATE_VEQUALIZING DC output voltage when battery is in equalizing mode

A01

INDICATE_LVD1_TRIP Threshold voltage for opening LVD1 A02

INDICATE_LVD2_TRIP Threshold voltage for opening LVD2 A03

INDICATE_BATT_TEST_VOLTAGE Output voltage of rectifiers drops to this level during battery test

A04

INDICATE_BATT_TEST_ALARM_VOLTAGE

Threshold voltage for indicating a fault during battery test

A05

INDICATE_AC_LO_ALARM_VOLTAGE Alarm triggered by AC input voltage ≤ this number

A06

INDICATE_AC_HI_ALARM_VOLTAGE Alarm triggered by AC input voltage ≥ this number

A07

INDICATE_LO_LO_ALARM_FL Alarm triggered by DC output voltage ≤ this number in floating mode

A08

INDICATE_LO_ALARM_FL Alarm triggered by DC output voltage ≤ this number in floating mode

A09

INDICATE_HI_ALARM_FL Alarm triggered by DC output voltage ≥ this number in floating mode

A10

INDICATE_LO_LO_ALARM_EQ Alarm triggered by DC output voltage ≤ this number in equalizing mode

A11

INDICATE_LO_ALARM_EQ Alarm triggered by DC output voltage ≤ this number in equalizing mode

A12

INDICATE_HI_ALARM_EQ Alarm triggered by DC output voltage ≥ this number in equalizing mode

A13

INDICATE_CURRENT_1_CALIB Calibration of rectifier current measurement A14

INDICATE_CURRENT_2_CALIB Calibration of load current measurement A15

INDICATE_DC_IN_CALIB Calibration of DC voltage measurement A16

INDICATE_AC_IN_CALIB Calibration of AC voltage measurement A17

Reserved for future calibrations Reserved A18



INDICATE_IP_MSB IP address segment A (where the full address is A.B.C.D)

B01

INDICATE_IP_2ND IP address segment B B02

INDICATE_IP_3RD IP address segment C B03

INDICATE_IP_LSB IP address segment D B04

INDICATE_GATEWAY_MSB Gateway address segment A (where the full address is A.B.C.D)

B05



33


INDICATE_GATEWAY_2ND Gateway address segment B B06

INDICATE_GATEWAY_3RD Gateway address segment C B07

INDICATE_GATEWAY_LSB Gateway address segment D B08

INDICATE_MASK_MSB Mask address segment A (where the full address is A.B.C.D)

B09

INDICATE_MASK_2ND Mask address segment B B10

INDICATE_MASK_3RD Mask address segment C B11

INDICATE_MASK_LSB Mask address segment D B12

INDICATE_RTC_SEC Real Time Clock - Seconds B13

INDICATE_RTC_MIN Real Time Clock - Minutes B14

INDICATE_RTC_HOUR Real Time Clock - Hours B15

INDICATE_RTC_DAY Real Time Clock - Day B16 Res.

INDICATE_RTC_DATE Real Time Clock - Date B17

INDICATE_RTC_MONTH Real Time Clock - Month B18

INDICATE_RTC_YEAR Real Time Clock - Year B19

INDICATE_DRY_OUT_TEST Relay Test No effect = 0 Flipped = 1, 2, 3, or 4

C01

INDICATE_USER_ID_1 Show/Set 6 User ID numbers C02






INDICATE_SOFT_ID Show/Set Soft part of the User ID C08

INDICATE_CLEAR_LOG Delete contents of Event Log No Effect = 0 Clear = 1

C09

INDICATE_RESTORE_FACTORY_DEF Restores factory default nominal values No effect = 0 Restore=1

C10

INDICATE_RESTORE_USER_DEF Restores user defined nominal values No effect = 0 Restore=1

C11

INDICATE_SAVE_USER_DEF Saves user defined nominal values C12

INDICATE_OVER_TEMP_ALARM Battery temp. > this number triggers alarm C13

INDICATE_GO_AUTO_BOOST Switch to Equalizing mode No effect = 0 Go = 1

C14

INDICATE_ENABLE_AUTO_EQ Enable/Disable Automatic Equalizing Disabled = 0 Enabled = 1

C15

INDICATE_ENABLE_TEMP_COMP Modifies charge voltage for batteries to compensate for high or low battery temperature Disabled = 0 Enabled = 1

C16

INDICATE_ENABLE_CURRENT_LIMIT Battery charge current limit: prevents too high current destroying battery Disabled = 0 Enabled = 1

C17

INDICATE_ENABLE_AUTO_BATT_TEST Enable/Disable Automatic Battery Test Disabled = 0 Enabled = 1

C18



34


Disabled = 0 Enabled = 1

INDICATE_ENABLE_MODEM_DIAL Enable/Disable Modem Dialing Disabled = 0 Enabled = 1

C19

INDICATE_NUM_OF_LVDS Sets number of LVDs. Options: 1, 2 C20

INDICATE_LVD_HYSTERESIS Gap between the opening and closing voltage of an LVD

D01

INDICATE_INTENSITY Brightness of 7-segment display Options 1 (dim) to 7 (bright)

D02

INDICATE_CURRENT_OFFSET Current Offset. No effect = 0 Do it = 1 D03

INDICATE_RESET_NUM_OF_BOOTS Clears Reboot Counter. No effect = 0 Do it = 1

D04

INDICATE_FORCE_LVD1_OFF Opens LVD1. Normal = 0 Open = 1 D05

INDICATE_FORCE_LVD2_OFF Opens LVD2. Normal = 0 Open = 1 D06

INDICATE_SET_BATT_CAPACITY Show/set battery capacity, in Amp/hrs. The values permitted in this field are influenced by the High Capacity Battery flag (D15).

When value in D15 is 1, the Ah value in field D07 can be from 10 to 990, and must be a multiple of 10.

When value in D15 is 0, the Ah value in field D07 can be any value from 1 to 255.

D07

INDICATE_DIAL_MODEM Go dial modem = 1 D08

INDICATE_GO_AUTO_BATT_TEST Initiates an automatic battery test D09

INDICATE_CURRENT_LIMIT_VALUE Sets the value of battery current limit D10

INDICATE_EQUALIZING_PERIOD Number of days between automatic accelerated battery charging

D11

INDICATE_EQUALIZING_TOP_TIME Absolute max. time limit for performance of accelerated battery charging (hours) - charging aborts if time limit exceeded

D12

INDICATE_BATT_TEST_PERIOD Number of days between auto. battery tests D13

INDICATE_BATT_TEST_TOP_TIME Absolute maximum time limit for battery test (minutes) - test aborts if time limit exceeded

D14

HIGH CAPACITY BATTERY High capacity battery flag 1=high cap. batt. 0=low cap. batt.

When value is 1, the Ah value in field D07 can be from 10 to 990, and must be a multiple of 10.

When value is 0, the Ah value in field D07 can be any value from 1 to 255.

D15

Reserved for future use Reserved D16

OVERLOAD ALARM THRESHOLD Current reading that turns on the overload alarm, in Amperes.

D17

ENAB/DISAB OVERLOAD ALARM Enable/disable the overload alarm. 1=Enabled, 0=disabled

D18





35


Reserved for future use Reserved E01
















Reserved for future use E17




INDICATIONS ONLY Press ESC button for 5 seconds.

SHOW_AC_VOLTAGE Input voltage F01

SHOW_AC_FREQ Input frequency F02

SHOW_DRY_OUT_1_STATUS Off = 0 On = 1 F03



SHOW_CONFIG_A DIP switch A F07

SHOW_CONFIG_B DIP switch B F08

SHOW_CONFIG_BACKPLANE Backplane config. Bit F09

SHOW_INDIVIDUAL_TEMPER_1 Temperature sensor #1 F10

SHOW_INDIVIDUAL_TEMPER_2 Temperature sensor #2 F11

SHOW_FAULT_L_STATUS_0 AC HIGH F12

SHOW_FAULT_L_STATUS_1 DC LOW F13

SHOW_FAULT_L_STATUS_2 DC HIGH F14

SHOW_FAULT_L_STATUS_3 INV/CONV FAULT F15

SHOW_FAULT_L_STATUS_4 OVER TEMPERATURE F16

SHOW_FAULT_L_STATUS_5 RECTIFIER FAIL F17

SHOW_FAULT_L_STATUS_6 DC LOWLOW F18

SHOW_FAULT_L_STATUS_7 LOAD BREAKER OPEN F19

SHOW_FAULT_H_STATUS_0 BATTERY CIRCUIT BREAKER OPEN F20

SHOW_FAULT_H_STATUS_1 AUX BREAKER OPEN F21

SHOW_FAULT_H_STATUS_2 AUX CONTACT OPEN F22



36


SHOW_FAULT_H_STATUS_3 LVD1 DRIVEN OPEN F23

SHOW_FAULT_H_STATUS_4 LVD2 DRIVEN OPEN F24

SHOW_FAULT_H_STATUS_5 BATT1 TEST FAULT F25

SHOW_FAULT_H_STATUS_6 BATT2 TEST FAULT F26

SHOW_FAULT_H_STATUS_7 AC LOW F27

SHOW_GENERAL_STATUS_0 Battery Test in Progress F28

SHOW_GENERAL_STATUS_1 BATTERY CURRENT SIGN 1 = negative = discharging

F29

SHOW_GENERAL_STATUS_2 FLOATING/EQUALIZING Floating = 1 Equalizing = 0

F30

SHOW_GENERAL_STATUS_3 TEMPERATURE SIGN. Negative = 1 F31

SHOW_GENERAL_STATUS_4 Reserved F32

SHOW_GENERAL_STATUS_5 COMMAND REFUSED (as if an NOP has been received + flag set)

F33

SHOW_GENERAL_STATUS_6 BAD CHECKSUM RECEIVED (as if an NOP has been received + flag set)

F34

SHOW_GENERAL_STATUS_7 General Fault F35

SHOW_SPARE_STATUS_0 Battery #1 under test F36

SHOW_SPARE_STATUS_1 Reserved F37







SHOW_NUM_OF_BOOTS Number of reboots since reboot counter was last cleared

F44

SHOW_BATT_TEST_ELAPSED_TIME Time elapsed since start of battery test F45

SHOW_BATT_TEST_TIME_LEFT Time remaining until end of battery test F46

SHOW_EQUALIZING_ELAPSED_TIME Time elapsed since equalizing started F47

SHOW_EQUALIZING_MAX_TIME_LEFT Maximum time remaining in Equalizing Mode

F48

SHOW_RECTS_POWER Rectifier Watts F49

SHOW_LOAD_POWER Load Watts F50

SHOW_HARD_ID_0 Show 3 bytes of the Hard ID F51



SHOW_SPARE_ Reserved F54









37

Figure 9: Main screen, PSM-DC 1006 monitoring software (48V syst.)



38

Figure 10: Set Values tab, PSM DC 1006 monitoring software (48V syst.)

Figure 11: Set Alarms tab, PSM DC 1006 monitoring software (48V syst.)

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