All rights reserved. It is prohibited to reproduce this documentation, or any part thereof, without
the prior written authorisation of KROHNE Messtechnik GmbH.
Figure 152 Add user window ....................................................................... 142
Figure 153 Edit user window ....................................................................... 143
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Table 1 Location of fuses on PSU .............................................................................................................................................39
Table 2 Boards with available Inputs & Outputs ......................................................................................................................41
Table 3 Digital I/O board 1 link settings ...................................................................................................................................44
Table 4 HART loop settings on digital I/O board 1 ....................................................................................................................44
Table 5 Serial settings on digital I/O board 1 ...........................................................................................................................44
Table 6 Digital I/O board 2 settings ..........................................................................................................................................46
Table 7 HART loop settings on digital I/O board 2 ....................................................................................................................46
Table 8 Serial settings on digital I/O board 2 ...........................................................................................................................47
Table 9 Digital input link settings on analog board ..................................................................................................................49
Table 10 HART and I/O functions settings on analog board ....................................................................................................49
Table 11 Serial settings on analog I/O board ...........................................................................................................................50
Table 12 Switch I/O digital input settings .................................................................................................................................52
Table 13 Switch I/O board digital settings ................................................................................................................................52
Table 14 Serial settings on switch I/O board ............................................................................................................................53
Table 15 Switch I/O board digital settings ................................................................................................................................53
Table 16 Communication board configuration .........................................................................................................................53
Table 17 Dual Ethernet serial settings .....................................................................................................................................55
Table 18 Dual Ethernet port LED indicators ............................................................................................................................55
Table 19 Single Ethernet serial settings ..................................................................................................................................56
Table 20 Single Ethernet port LED indicators ..........................................................................................................................56
Table 21 Digital transmitter reference voltage and resistance ...............................................................................................61
TABLES
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SUMMIT 8800ABOUT THIS HANDBOOK01
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IMPORTANT INFORMATION
KROHNE Oil & Gas pursues a policy of continuous development and product improvement. The
Information contained in this document is, therefore subject to change without notice. Some
display descriptions and menus may not be exactly as described in this handbook. However, due
the straight forward nature of the display this should not cause any problem in use.
To the best of our knowledge, the information contained in this document is deemed accurate
at time of publication. KROHNE Oil & Gas cannot be held responsible for any errors, omissions,
inaccuracies or any losses incurred as a result.
In the design and construction of this equipment and instructions contained in this handbook,
due consideration has been given to safety requirements in respect of statutory industrial regulations.
ABOUT THIS HANDBOOK
01
Users are reminded that these regulations similarly apply to installation, operation and maintenance, safety being mainly dependent upon the skill of the operator and strict supervisory
control.
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1. About this book
1.1 Volumes
This is Volume 1 of 3 of the SUMMIT 8800 Handbook:
Volume 1
Volume 1 is targeted to the electrical, instrumentation and maintenance engineer
This is an introduction to the SUMMIT 8800 flow computer, explaining its architect and layout providing the user with familiarity and the basic principles of build. The volume describes the
Installation and hardware details, its connection to field devices and the calibration.
The manual describes the operation via its display, its web site and the configuration software.
Also the operational functional of the Windows software tools are described, including the configurator, the Firmware wizard and the display monitor.
Volume 2
Volume 2 is targeted to the metering software configuration by a metering engineer.
The aim of this volume is to provide information on how to configure a stream and the associated hardware.
The handbook explains the configuration for the different metering technologies, including meters, provers, samplers, valves, redundancy etc.. A step by step handbook using the Configurator
software, on the general and basic setup to successfully implement flow measurement based on
all the applications and meters selections within the flow computer.
SUMMIT 8800ABOUT THIS HANDBOOK01
Volume 3
Volume 3 is targeted to the software configuration of the communication.
The manual covers all advance functionality of the SUMMIT 8800 including display configuration,
reports, communication protocols, remote access and many more advance options.
1.2 Content Volume 1
Volume 1 concentrates on the daily use of the flow computer
• Chapter 2: Basic functions of the flow computer
• Chapter 3: General information on the flow computer
• Chapter 4: Installation and replacement of the flow computer
• Chapter 5: Hardware details on the computer, its components and boards
• Chapter 6: Connecting to Field Devices
• Chapter 7: Normal operation via the touch screen
• Chapter 8: How to calibration the unit
• Chapter 9: Operation via the optional web site
• Chapter 10: Operational functions of the configuration software, more details in volume 2
• Chapter 11: How to update the firmware
• Chapter 12: Display monitor software to replicate the SUMMIT 8800 screen on a PC and make
screen shots
1.3 Content Volume 2
Volume 2 concentrates on the software for the flow computer.
• Chapter 2: General information on the software aspects of the flow computer
• Chapter 3: Details on metering principles
• Chapter 4: Basic functions of configurator
• Chapter 5: Configuration of the hardware of the boards
• Chapter 6: Stream configuration
• Chapter 7: Run switching
• Chapter 8: Watchdog
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• Chapter 9: Configure a station
• Chapter 10: Configure a prover or master meter
• Chapter 11: Configure valves
• Chapter 12: Configure a sampler
• Chapter 13: Set-up batching
• Chapter 14: Set two flow computers in redundant configuration
1.4 Content Volume 3
Volume 3 concentrates on the configuration of the SUMMIT 8800
• Chapter 3; Configurator software
• Chapter 4: Date & Time
• Chapter 5: Data Logging
• Chapter 6: Display and web access
• Chapter 7: Reporting
• Chapter 8: Communication
• Chapter 9: General Information
1.5 Information in this handbook
ABOUT THIS HANDBOOK
01
The information in this handbook is intended for the integrator who is responsible to setup and
configure the SUMMIT 8800 flow computer for Liquid and or Gas and or Steam application:
Integrators (hereafter designated user) with information of how to install, configure, operate and
undertake more complicated service tasks.
This handbook does not cover any devices or peripheral components that are to be installed and
connected to the SUMMIT 8800 it is assumed that such devices are installed in accordance with
the operating instructions supplied with them.
Disclaimer
KROHNE Oil & Gas take no responsibility for any loss or damages and disclaims all liability for
any instructions provided in this handbook. All installations including hazardous area installations are the responsibility of the user, or integrator for all field instrumentation connected to
and from the SUMMIT 8800 Flow computer.
Trademarks
SUMMIT 8800 is a trade mark of KROHNE Oil & Gas.
Notifications
KROHNE Oil & Gas reserve the right to modify parts and/or all of the handbook and any other
documentation and/ or material without any notification and will not be held liable for any damages or loss that may result in making any such amendments.
Copyright
This document is copyright protected.
KROHNE Oil & Gas does not permit any use of parts, or this entire document in the creation of
any documentation, material or any other production. Prior written permission must be obtained
directly from KROHNE Oil & Gas for usage of contents. All rights reserved.
Who should use this handbook?
This handbook is intended for the integrator or engineer who is required to configure the flow
computer for a stream including devices connected to it.
Versions covered in this handbook
All Versions
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2. General Information
2.1 Software versions used for this guide
This handbook is based on the software versions as mentioned in Appendix 1: software versions
2.2 Terminology and Abbreviations
AGAAmerican Gas Association
APIAmerican Petroleum Institute
Communication board Single or dual Ethernet network board
Configurator Windows software tool to configure and communicate to the SUMMIT 8800
CPControl Panel
CPU Central Processing Unit
CRC32Cyclic Redundancy Check 32 bits. Checksum to ensure validity of information
FATFactory Acceptance Test
FDS Functional Design Specification
HMIHuman-Machine Interface
HOVHand Operated Valve
I/O Input / Output
ISO International Standards Organization
KOGKROHNE Oil and Gas
KVMKeyboard / Video / Mouse
MOVMotor Operated Valve
MSCMetering Supervisory Computer
MUTMeter Under Test
Navigator360 optical rotary dial
PCPersonal Computer
PRTPlatinum Resistance Thermometers
PSUPower Supply Unit
PTPressure Transmitter
Re-tryMethod to repeat communication a number of times before giving an alarm
RTD:Resistance Temperature Device
Run: Stream/Meter Run
SATSite Acceptance Test
SUMMIT 8800 Flow computer
TimestampTime and date at which data is logged
Time-outCount-down timer to generate an alarm if software stopped running
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3. Description
3.1 SUMMIT 8800 Hardware
3.1.1 SUMMIT 8800 Flow Computer
The SUMMIT 8800 is an advanced hydrocarbon computing precision instrument for measuring
and calculating flow of gases and liquids, using various connected metering devices, including
transmitters, transducers with internal algorithms to International standards.
The SUMMIT 8800 is configured using the supplied configurator running on a PC or laptop.
Initially there are a number of basic decisions that need to be made in order to configure the device. The configurator will guide the operator through the various choices that need to be made.
Primary important objectives are defined by types:
Device typeStandard run and/or liquid prover or gas prover
Measurement type Gas turbine, rotary or other pulse meter type
Gas ultrasonic Meter
Gas differential pressure orifice or Venturi type
Gas Coriolis
Liquid turbine or other pulse meter type
Liquid ultrasonic meter
Liquid Coriolis meter
Steam ultrasonic meter
DESCRIPTION
03
Number of streams 1, 2, 3, 4 or 5 plus prover
Secondary transducer
types
Secondary transducer
connections
Pressure
Temperature
Density
Relative Density
Differential Pressure
Gas Component
BS&W
HART
4-20mA
PRT/RTD
Digital – pulse/frequency Input
Serial Connection.
3.1.2 SUMMIT 8800 basic functions
The SUMMIT 8800 flow computer comprises a standard size half width 19 inch rack which contains plug-in printed circuit boards connected to a mother board. The power supply is +24 VDC.
It is designed to calculate the total energy, volume and instantaneous flow rates of gas and alternatively liquids. Calculation is carried out using inputs from pulse generating turbine meters,
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SUMMIT 8800DESCRIPTION03
ultrasonic gas meters or from differential pressure measurement across orifice plates together
with temperature sensors and transmitters for line pressure.
The SUMMIT 8800 uses pre-set or active input values of relative density, gas composition data
and heating value, active values can be received directly from a gas chromatograph or can be
written serially from a supervisory system.
The flow of gas is calculated using gas compressibility (Z factor) methods selected from a list
of which includes AGA 8, ISO 12213 and AGA 3 NX19 as well as fixed factors for certain applications. As an alternative, the flow of gas can be calculated using a transducer input for line
density.
The flow of liquid is calculated using fixed or measured factors for density and relative density
and correction based upon measured temperature and pressure of the liquid in accordance with
API standard chapters 11.1, 11.2.1M, 11.2.2M & 12.
The flow computer has the facility of both high and low alarms on all active input signals, the
alarms can be selected to enable a default value to be used in flow calculation for the parameter
in the alarm condition. Indication is given of the time of occurrence and clearance of the alarm
state, alarm output signals are also provided. It uses digital communication to the differential
pressure, pressure and temperature transmitters using the HART protocol eliminating the need
for calibration of the flow computer. This feature also eliminates the errors in flow measurement due to ambient temperature effects on the flow computer, only the temperature coefficient
of the transmitters contribute to the error.
Alternatively the SUMMIT 8800 can be operated from transmitters that supply a 4–20mA current output and also direct from a 100 ohm platinum resistance thermometer for temperature
measurement, these types of input are measured using analogue inputs and a high resolution
A-D converter. The analogue inputs are calibrated using software.
The SUMMIT 8800 has 3 optional RS232/RS485 serial data ports which can provide Modbus RTU
or ASCII communication protocols for operation with system devices and a serial ASCII protocol
compatible with most printers.
The SUMMIT 8800 has 2 optional Ethernet port which can provide TCP/IP or Modbus over TCP/
IP protocols for supervisory system communication, and includes 5 programmable solid state
pulse/alarm outputs and 2 analogue output signals for process monitoring and status control.
3.1.3 SUMMIT 8800 front panel layout
Figure 1 Front view of Summit 8800
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3.1.4 Rear Panel Layout
DESCRIPTION
03
Figure 2 Rear view of SUMMIT 8800
3.1.5 Alarms & LED’s
Figure 3 LED indicators
Power ON
This indicates that the SUMMIT 8800 is receiving an input power and is operating.
Accountable Alarm
These are alarms that need direct action because they could have effect on the result of the
calculations.
Accountable alarms are red and can be defined via the Configurator under stream n.
These are user defined values set within variable parameters such as temperature, pressure,
density. Within each run, the user can configure the minimum and maximum value for the
variable operating range. This alarm typically indicates that the full operating range has been
reached.
Non-accountable Alarm
These are user defined values set within variable parameters such as temperature, pressure,
density. Within each run, the user can configure the high and low value for the variable operating range which typically is always less than the maximum and minimum values entered. This
alarm typically indicates that the desirable operating range is being exceeded.
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SUMMIT 8800DESCRIPTION03
NOTE: These values (Max, Min, Hi and Lo) can be placed into a security display, where they can
be accessed by the “Edit” mode on the SUMMIT 8800.
Fault
Operational self-checking status.
In normal operation the self-checking routine, tests all memory components for data corruption. The watchdog circuit is also provided to detect a failure on the processor.
Faults will also be indicated for each board slot that contains a board that is either faulty, missing a critical board or the wrong type of board.
In case of a fault the LED will illuminate and all calculations will stop – an indication that a hardware error has been detected, that has affected the operation of the flow computer.
Flow Limits
An alarm that indicates that the user-defined low and high flow limits have been reached. These
limits are expressed as a percentage of the maximum and minimum flow rate, and are typically
lower than the maximum and minimum values.
Flow alarm will come on when the uncorrected flow is above the HiQ value (% of the max flow
rate) or below LoQ (% of the maximum flow rate).
When an alarm occurs, the yellow LED will illuminate.
The HiQ is an accountable alarm and the LoQ is a non-accountable alarm.
Further details on how to set these parameters are explained in Volume 2.
3.1.6 Description of Hardware memory devices
The SUMMIT 8800 contains the following types of hardware memory storage devices which are
integrated on the board and cannot be removed from the unit.
Flash Memory
• Used to store the operating program (legally relevant software) of the device
• Non-volatile memory requires no power source to maintain integrity of data.
• Can only be externally accessed (Read or Write) when the unit is in the boot mode for programming. This mode can only be accessed when a hardware switch seal is broken and
removed.
• Requires unique software tool to download and upload the program file via the USB port.
• Cannot be accessed using any common software tools.
• Integrity of program is maintained by the use of a CRC32 checksum.
Data Flash Memory (Configuration Data)
• Used to store all configuration and set-up parameters (legally relevant parameters).
• Non-volatile memory requires no power source to maintain integrity of data.
• Can only be externally written to when in open security mode. This mode can only be entered
when a hardware switch seal is broken and removed.
• Requires unique software tool to download and write the program file via the USB or ethernet
port
• Cannot be accessed using any common software tools.
• Integrity of data is maintained by the use of a CRC32 checksum.
Data Flash Memory (Recorded Data)
• Used to store all data log parameters
• Used to store all audit trail data and parameters
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• Used to store all alarm record data and parameters
• Non-volatile memory requires no power source to maintain integrity of data.
• Cannot be written to from any external source: it is read only memory.
• Requires unique software tool to upload the data files via the USB or ethernet port
• Cannot be accessed using any common software tools.
• Integrity of each individual data, audit or alarm record is maintained by the use of a recorded
time stamp and an individual CRC32 checksum for each individual record.
Static RAM Memory (Recorded Data)
• Used to store calculation results. Data that can change on every calculation cycle, e.g. flow
measurement totals and parameter averages.
• Non-volatile memory that requires internal lithium back-up battery to maintain integrity of
data.
• Backup battery is integrated inside the unit and cannot be switched off or removed without
breaking a hardware seal and removing the rear panel of the unit.
• Backup battery capacity is sufficient to maintain data for at least 5 years of normal operation.
• Backup battery condition is continuously monitored and indication is given when replacement
is due.
• Cannot be written to from any external source: it is read only memory.
• Requires a unique software tool to upload the data files via the USB port or ethernet port
• Cannot be accessed using any common software tools.
• Integrity of the data is maintained by the use of duplicate records for each value which are
verified against individual CRC32 checksums for each individual record block.
DESCRIPTION
03
The SUMMIT 8800 also contains the following types of optional hardware memory storage devices which are integrated in the design of the SUMMIT 8800 but can be removed from the unit.
SD memory Card
• Used to store data log parameters (separate from data logs stored in data flash memory)
• Up to 4GB of data storage or typically lifetime storage.
• Used to store all audit trail data and parameters (duplicate copy of audit trail data stored in
data flash memory)
• Non-volatile memory requires no power source to maintain integrity of data.
• Cannot be written to from any external source: it has an internal coding.
• Requires a unique software tool to upload the data files via the USB or ethernet port or via a
SD slot in a PC
• Cannot be accessed using any common software tools.
• Integrity of each individual data, audit or alarm record is maintained by the use of a recorded
time stamp and an individual CRC32 checksum for each individual record.
• Can be removed from the unit at any time.
3.2 Features SUMMIT 8800
3.2.1 Key Features
• Touch screen
• VGA colour graphics & Navigator dial.
• Multi-processing makes the unit 10-50x faster than traditional flow computers
• 50-2000 times more memory
• Years of data storage
• More accuracy due to more frequent calculations
• Modular design hard- and software, Pay only for what is needed
• Up to 6+ runs, Affordable for allocation metering
• Supervisory like functions, More capabilities for lower price
• Audit trail up to person
• Network capabilities, Metering info available centrally
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• Pulse handling: API5.5 level A, B, C, D, E, Dual chronometry, pulse interpolation
• Calibration up to 20 points linear, meter factor or K-curve, 5 products (future at present 1)
Chapter 5.6 (Measurement of Liquid Hydrocarbons by Coriolis Meters)
Chapters 11.1, 11.2, 21.1 & 21.2 etc
Chapters 12.2.5.1 & 2
Chapter 12.2.5.3 Table 54, 54A, 54B, 54D
SUMMIT 8800DESCRIPTION03
... and more to come
3.3 Integration possibilities
3.3.1 System Integration
The SUMMIT 8800 can be integrated as a component within a fully automated system.
When within a system, the SUMMIT 8800 is usually an intermediate device interacting with all
field devices and supervisory systems.
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DESCRIPTION
03
Figure 4 SUMMIT 8800 system integration overview
3.3.2 Application integration
Figure 5 Stream application integration
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4. Installation and Replacement
Please read these instructions carefully before assembling or installing this product to avoid
danger to people, pets and damage to connecting devices and the SUMMIT 8800. Installation of
this product may only be performed by qualified personnel.
The SUMMIT 8800 comes with all links and internal switches set to factory default see Chapter
Hardware Details: Rear panel Mode Switches.
Before any power or signal connections are applied to the SUMMIT 8800 the qualified personnel
should ensure that all links are set at the correct position for the appropriate and intended use.
Failure to do so may result in damage to the SUMMIT 8800 and any associated equipment.
The flow computer device is powered with +24VDC.
Do not touch any of the internal components whilst the unit is powered.
Turn off the power to the SUMMIT 8800 before opening the device or installing the product.
Only energize the device when it is wired, installed and all covers are securely in place.
SUMMIT 8800INSTALLATION AND REPLACEMENT04
4.1 Mechanical Specifications
4.1.1 Mechanical Installation
All installation tasks should be performed by qualified personnel. The external chassis dimensions (for panel or rack mounting) are given in the figure below. Ensure that the ventilation
slots on the upper and lower surfaces on the SUMMIT 8800 are kept clear from any obstruction.
Ensure that ventilation and shading is provided when the SUMMIT 8800 is subjected to high
ambient temperatures (such as being near heat producing apparatus) or to direct sunlight. The
operating environment must be clean, dry and free from corrosive elements.
NOTE: When used as part of MID approval which states the use of the SUMMIT 8800 to be
indoors and in a controlled environment where it is subject to the requirements of EN 12405,
the SUMMIT 8800 must be mounted in an enclosure with an ingress protection rating of IP65 or
better.
Front
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Side
Panel cut-out
04
Figure 6 Dimensions & Outlines
4.1.2 Panel Mounting
Figure 7 Panel mounted installations
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The SUMMIT 8800 can be mounted in a panel. For this, use the dimensions for the panel cut-out
as described in the previous paragraph. Please note that the SUMMIT 8800 is fixed to the panel
using the bolts on top and bottom of the SUMMIT 8800.
4.1.3 Rack mounting options
For the SUMMIT 8800 optional rack mounting kits are available to ease cabinet, rack or panel
installation. Please consult your local KROHNE sales department or major suppliers such as
Farnell and Rittal.
For rack mounted installations, a 2.5m rail mounted terminal cable loom assembly is available
for the SUMMIT 8800 flow computer.
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Figure 10 Cable assembly
4.2 Electrical Specifications
4.2.1 Electrical Installation
04
The SUMMIT 8800 is certified to be in compliance with IEC 61010-1:2001 provided it is installed
in accordance with the instructions supplied.
The SUMMIT 8800 must be powered by:
A Class 2 power supply is defined by article 725.41 of the National Electrical Code (NEC Code
book) and has limited output power.
In addition the wiring between the SUMMIT 8800 and its power supply must be sufficiently rated
(10A) with a minimum cross section area of 1.5mm2 and PVC insulation. A suitable rated switch
or circuit breaker must be included to allow isolation of power supply to the SUMMIT 8800. The
device should be mounted as near to the equipment as practically possible.
No routine maintenance is required to ensure continuous operation; however, should a system
failure occur during operations, then the most likely cause of malfunction is that of a requirement not being fully or correctly implemented. If a fault or warning occurs, the cause should be
determined in a logical and systematic manner following the guide given below. All maintenance
tasks should be carried out by qualified personnel only.
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SUMMIT 8800INSTALLATION AND REPLACEMENT04
Some parts of the instrument such as circuit boards may be damaged by static electricity. When
handling internal parts of the instruments, ensure that anti-static precautions are taken. It is
therefore essential when carrying out any maintenance or installation work that an earthed
wrist strap be worn, or other such precautions, whenever internal parts of the instrument are
handled.
4.2.2 Earthing Requirements
The SUMMIT 8800 must be connected to a suitable ground or earth connection via the M4 earth
stud located at the rear of the chassis. See below for details.
4.2.3 Fuses and Battery
The SUMMIT 8800 has an internal fuse F1 and an externally accessible fuse F2 on the rear
panel. Fuse F1 protects the DC input circuits and can only be replaced by qualified personnel.
Isolate the main power to the SUMMIT 8800. Remove the rear panel as specified under Hardware Details. Withdraw the PSU board and identify F1 as detailed in the figure below. Replace
fuse F1 only with a replacement fuse type:
Fuse F2 protects the DC output and can be replaced by all personnel. Isolate the main power
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to the Flow Computer SUMMIT 8800. Rotate the cap of fuse holder F2 counter clockwise and
replace fuse F2 only with a replacement fuse type:
04
Figure 11 Fuse F1 (left) en F2 (right)
4.2.4 Power Supply Terminals
POWER SUPPLY INPUT CONNECTOR TER 1
TerminalFUNCTION
1+24V DC+24V DC positive power supply Terminal
2EEarth connection terminal
30VPower Supply 0V terminal
AUXILIARY POWER SUPPLY OUTPUT CONNECTOR TER 2
TerminalFUNCTION
1+24V DC+24V DC Auxiliary output supply
2+24V DC+24V DC Auxiliary output supply
3+24V DC+24V DC Auxiliary output supply I max = 200mA
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40V0V Auxiliary output supply
50V0V Auxiliary output supply
60V0V Auxiliary output supply
CHASSIS EARTH SCREW TERMINAL
Earth stud terminal M4
SUMMIT 8800INSTALLATION AND REPLACEMENT04
Figure 12 Power & M4 earth connections
4.2.5 Back Up Battery
The SUMMIT 8800 contains a backup battery on the auxiliary card, this battery keeps the real
time clock and internal totals when DC power to the unit is disconnected. Replacement of this
battery should only be carried out by qualified personnel.
If the SUMMIT 8800 is kept continuously powered, the back-up battery estimated life is 10 years.
If the SUMMIT 8800 is powered down for periods exceeding 30 days, the battery should be removed and stored separately. The battery needs to be replaced when its service life exceeds 10
years or when it has been left in an un-powered unit for a time period of greater than 2 months.
A “BAD” battery condition is indicated via the Windows software.
When a “BAD” battery condition is indicated via the Windows software or on the front panel:
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