All rights reserved.
No part of this document may be copied, reproduced in
any form or by any means or used to make any transformation/adaptation without the prior written consent
of DFI, Inc.
DFI, Inc. makes no warranties with respect to this
documentation and disclaims any implied warranties of
merchantability, quality, or fitness for any particular
purpose. The information in this document is subject to
change without notice. DFI, Inc. reserves the right to
make revisions to this publication and to make changes
to any and/or all parts of its content, at any time,
without obligation to notify any person or entity of such
changes. Further, DFI, Inc. assumes no responsibility
for any errors that may appear in this document.
DFI is a registered trademark, and G586OPC is a
trademark of Diamond Flower, Inc. All other product
names mentioned are trademarks or registered trademarks of their respective companies.
Page 3
vFCC Statement on Class B
This equipment has been tested and found to comply
with the limits for a Class B digital device, pursuant to
Part 15 of the FCC rules. These limits are designed to
provide reasonable protection against harmful interference when the equipment is operated in a residential
installation. This equipment generates, uses and can
radiate radio frequency energy and, if not installed and
used in accordance with the instruction manual, may
cause harmful interference to radio communications.
However, there is no guarantee that interference will
not occur in a particular installation. If this equipment
does cause harmful interference to radio or television
reception, which can be determined by turning the
equipment off and on, the user is encouraged to try to
correct the interference by one or more of the following
measures:
•Reorient or relocate the receiving antenna.
•Increase the separation between the equipment and
the receiver.
•Connect the equipment into an outlet on a circuit
different from that to which the receiver is
connected.
•Consult the dealer or an experienced radio TV
technician for help.
Notice:
1. The changes or modifications not expressly
approved by the party responsible for compliance
could void the user's authority to operate the
equipment.
2. Shielded interface cables must be used in order to
comply with the emission limits.
The G586OPC system board offers several advanced
features integrated into the system board. Its design is
based on the new Peripheral Component Interconnect
(PCI) local bus and Industry Standard Architecture
(ISA) standards.
The G586OPC provides a 321-pin Zero Insertion Force
(ZIF) CPU socket for PentiumTM processors running at
75MHz, 90MHz, 100MHz, 120MHz, 133MHz or
150MHz frequency. This ZIF socket allows users to
easily upgrade their CPUs. It also provides a VRM
(Voltage Regulation Module) header allowing you to
upgrade to future low-voltage CPUs.
The G586OPC is equipped with three PCI slots, three
ISA slots and one shared PCI/ISA slot.
The G586OPC board has two bus master PCI IDE
connectors. Bus mastering reduces CPU use during disk
transfer. The system board is also equipped with two
NS16C550A-compatible serial ports, an SPP/EPP/ECP
parallel port, a floppy disk drive controller, one PS/2
mouse port and one PS/2 keyboard connector.
The G586OPC can support 2MB to 128MB of memory
using 256Kx36, 512Kx36, 1Mx36, 2Mx36, 4Mx36 and
8Mx36 72-pin SIM modules.
1
Page 7
Features and Specifications
Processor
• Intel PentiumTM 75/90/100/120/133/150MHz
• Future Pentium Processor and Pentium OverDrive
Processor
Chipset
• OPTI Viper-M chipset
Energy Efficient Design
• Supports System Power Management
• CPU stopped clock control
• Hardware supports SMI green mode
• Microsoft/Intel APM 1.1 compliant
Two Bus Master PCI IDE Connectors
• PIO Modes 3 & 4 Enhanced IDE (data transfer rate
up to 16.6MB/sec)
• DMA Mode 2 Bus Master IDE (data transfer rate
up to 22.2MB/sec)
• Bus mastering reduces CPU use during disk
transfer
• ATAPI IDE CD-ROM supported
G586OPC
Integrated I/O
• Super I/O controller: SMC FDC37C665GT,
SMC FDC37C669GT or
UMC8669
• Two NS16C550A-compatible high speed UARTs
• One SPP/EPP/ECP parallel port
• One 720KB/1.2MB/1.44MB/2.88MB floppy
controller
• PS/2 mouse port
• PS/2 keyboard connector or AT keyboard
connector
2
Page 8
PCI/ISA System Board
BIOS
• Award Plug & Play BIOS
• Supports Enhanced IDE devices
• Supports Enhanced IDE HDDs larger than 528MB
(LBA mode only)
Architecture
• PCI/ISA
Cache
• 256KB, 512KB or 1MB direct map write-back or
write-through cache
• 32Kx8, 64Kx8 or 128Kx8 asynchronous SRAM
(supports 5V/3.3V mixed voltage SRAM)
• One 25-pin printer port cable for chassis mounting
• One card-edge bracket with serial and mouse port
cables
If any of these items is missing or damaged, please
contact your dealer or sales representative for assistance.
5
Page 11
vInstallation Overview
This chapter summarizes the steps in installing the
G586OPC system board into your system unit. It also
includes a description of the area in which you must
work and directions for memory installation. Before
installing the system board, obtain the memory you plan
to install. Please refer to the memory chart, on pages 8
and 9, for the number and type of SIM modules
needed for the amount of memory you require.
Preparing the Area
Before unpacking the system board, make sure the
location you have selected is relatively free of dust and
static electricity. Excessive exposure to dust, static
electricity, direct sunlight, excessive humidity, extreme
cold, and water can damage the operational capabilities
of your system board. Avoid placing the unit on surfaces
such as carpeted floors. These areas attract static electricity which can damage some circuits on your system
board.
G586OPC
Make sure the power source has a properly grounded,
three-pronged socket. It is essential that the power
connection be properly grounded for correct functioning
of your system board. For further protection, we recommend that you use a surge suppressor. This will protect
the system board from damage that may result from a
power surge on the electrical line.
Move items that generate magnetic fields away from
your system board, since magnetic fields can also
damage your system board. Once you have selected the
6
Page 12
PCI/ISA System Board
ideal location, unpack the G586OPC system board
carefully.
Handling the System Board
It is quite easy to inadvertently damage your system
board even before installing it to your system unit.
Static electrical discharge can damage computer components without causing any signs of physical damage.
You must take extra care in handling the system board
to ensure against electrostatic build-up.
Tips in Handling the System Board
1. To prevent electrostatic build-up, leave the board in
its anti-static bag until you are ready to install it.
2. Wear an antistatic wriststrap.
3. Do all preparation work on a static-free surface with
components facing up.
4. Hold the system board by its edges only. Be careful
not to touch any of the components, contacts or
connections, especially gold contacts on the board.
5. Avoid touching the pins or contacts on all modules
and connectors. Hold modules and connectors by
their ends.
Warning:
Electrostatic discharge (ESD) can damage your upgrade
processor, disk drives, add-in boards, and other
components. Perform the upgrade instruction
procedures described at an ESD workstation only. If
such a station is not available, you can provide some
7
Page 13
ESD protection by wearing an antistatic wrist strap and
attaching it to a metal part of the system chassis. If a
wrist strap is unavailable, establish and maintain
contact with the system chassis throughout any
procedures requiring ESD protection.
Hardware Installation
Memory Installation
The G586OPC system board can support 2MB to
128MB of memory using 72-pin SIMMs (Single In-Line
Memory Module).
The SIMM sockets are divided into two banks on the
system board. The G586OPC system board uses
256Kx36, 512Kx36, 1Mx36, 2Mx36, 4Mx36 and
8Mx36 SIMMs. Non-parity (x32) SIMMs can also be
used if parity checking is turned off in CMOS setup.
You will need 2 or 4 pieces of SIMMs, depending on
the amount of memory you intend to install.
G586OPC
To install the SIM modules, first populate Bank 0 and
then Bank 1, or the system will not work.
The table on the next page summarizes the bank locations and modules needed for the corresponding memory
sizes. Each bank consists of 2 SIMM sockets.
A SIMM simply snaps into a socket on the system
board. Pin 1 of the SIMM must correspond with Pin 1
of the socket.
1. Position the SIMM above the socket with the
“notch” in the module aligned with the “key” on the
socket.
2. Seat the module at a 45o angle into the bank. Make
sure it is completely seated. Tilt the module upright
until it locks in place in the socket.
11
Page 17
Board Configuration
The G586OPC has jumpers and connectors onboard.
Make sure the jumpers are set correctly before installing
the system board into your system unit.
G586OPC
HJ1
J2
12
Page 18
PCI/ISA System Board
Jumper Settings
Jumper Settings for Display Type and CMOS Clean
13
Locations of Jumpers JP1 and JP11 on the
G586OPC System Board
Page 19
G586OPC
Jumper JP1
Display Type Select
Jumper JP1 sets the display adapter to color or mono.
This jumper must match the type of display adapter
installed. If you change your video adapter, make sure
this jumper is changed accordingly.
JP1 Off: Color
JP1 On: Mono
(Default)
Jumper JP11
CMOS Clean Select
If, for some reason, the CMOS becomes corrupted, the
system can be reconfigured with the default values
stored in the ROM BIOS. To load the default values,
switch off your computer and remove the cover. Touch
the power supply box to discharge any static electric
buildup in your body. Set JP11 to On for approximately
5 seconds, then return to the default position (Off). Put
the cover back and power up your system.
JP11 Off: Normal
(Default)
JP11 On: CMOS
Clean
14
Page 20
PCI/ISA System Board
Jumper Settings for Super I/O Setting
15
Locations of Jumpers JP5 and JP6
on the G586OPC System Board
Page 21
G586OPC
Jumper JP5
ECP DRQ Select
The G586OPC system board supports an ECP parallel
port that allows you to use DMA Request (DRQ) Channel 1 or 3. Set Jumper JP5 so the ECP port does not
conflict with an add-on card's DMA channel.
1
2
3
1
2
3
2-3 On: ECP DRQ 11-2 On: ECP DRQ 3
(Default)
Jumper JP6
ECP DACK Select
The G586OPC system board supports an ECP parallel
port that allows you to use DMA Acknowledge (DACK)
Channel 1 or 3. Set Jumper JP6 so the ECP port does
not conflict with an add-on card's DMA channel.
1
2
3
2-3 On: ECP DACK 3
1-2 On: ECP DACK 1
1
2
3
(Default)
16
Page 22
PCI/ISA System Board
Cache Configuration
The G586OPC system board can support either asynchronous cache SRAM or synchronous (pipelined
burst) cache SRAM. Three cache sizes are supported:
256KB, 512KB and 1MB. 256KB is the default size.
Installing Asynchronous Cache SRAM
The SRAM sockets allow you to install either 32Kx8,
64Kx8 or 128Kx8 SRAM. Regardless of the amount of
cache memory installed, one 32Kx8 (U23) is needed for
tag RAM to store the cacheable addresses. The locations
of the SRAM sockets on the system board are shown on
the next page.
17
SRAM Socket
Page 23
Pin 1 of the SRAM
socket
G586OPC
18
Page 24
PCI/ISA System Board
Jumper Settings for Cache Memory
19
Locations of Jumpers JP12, JP13, JP14, JP15, JP22 and
JP23 on the G586OPC System Board
Page 25
256KB Cache SRAM *
5V/3V Mixed Voltage SRAM
U23
(5V SRAM)
32Kx8 (TAG)
JP22
JP12
G586OPC
1
2
3
JP13
JP14
2
31
JP15
JP23
32Kx8
U35U34U33
* Default Setting
32Kx8
32Kx8
32Kx8
32Kx8
32Kx8
32Kx8
32Kx8
U32
U31U30U29U28
20
Page 26
PCI/ISA System Board
256KB Cache SRAM
3.3V SRAM
(5V SRAM)
32Kx8 (TAG)
JP22
U23
JP12
1
2
3
JP13
JP14
2
31
JP15
21
JP23
32Kx8
32Kx8
U35U34U33
32Kx8
32Kx8
32Kx8
32Kx8
U32
U31U30U29U28
32Kx8
32Kx8
Page 27
512KB Cache SRAM
5V/3.3V Mixed Voltage SRAM
U23
(5V SRAM)
32Kx8 (TAG)
JP22
JP12
G586OPC
1
2
3
JP13
JP14
2
31
JP15
JP23
64Kx8
64Kx8
64Kx8
64Kx8
64Kx8
64Kx8
64Kx8
64Kx8
U32U35U34U33U31U30U29U28
22
Page 28
PCI/ISA System Board
512KB Cache SRAM
3.3V SRAM
(5V SRAM)
32Kx8 (TAG)
JP22
U23
JP12
1
2
3
JP13
JP14
2
31
JP15
23
JP23
64Kx8
64Kx8
64Kx8
64Kx8
64Kx8
64Kx8
64Kx8
64Kx8
U32U35U34U33U31U30U29U28
Page 29
1MB Cache SRAM
5V/3.3V Mixed Voltage SRAM
U23
(5V SRAM)
32Kx8 (TAG)
JP22
JP12
G586OPC
1
2
3
JP13
JP14
2
31
JP15
JP23
128Kx8
128Kx8
128Kx8
128Kx8
128Kx8
128Kx8
128Kx8
128Kx8
U32U35U34U33U31U30U29U28
24
Page 30
PCI/ISA System Board
1MB Cache SRAM
3.3V SRAM
(5V SRAM)
32Kx8 (TAG)
JP22
U23
JP12
1
2
3
JP13
JP14
2
31
JP15
25
JP23
64Kx8
64Kx8
64Kx8
64Kx8
64Kx8
64Kx8
64Kx8
64Kx8
U32U35U34U33U31U30U29U28
Page 31
Installing the Synchronous Cache Module
Jumper Settings
G586OPC
JP12
1
2
3
JP13
JP14JP15
31 2
31 2
31 2
Note:
Jumpers JP22 and JP23 are used to select the Level 2
asynchronous cache size. These two jumpers can be
ignored when installing the optional synchronous cache
module.
26
Page 32
PCI/ISA System Board
Installation
1. Before installing the optional synchronous pipeline burst
cache module, make sure that:
- the cache chips have been removed from the
SRAM sockets U23 (Tag RAM) and U28-U35;
- Jumpers JP12-JP15 have been set properly (page
26).
2. Locate the 160-pin cache module slot on the system
board. Position the cache module above the slot. Make
sure pin 1 of the cache module is aligned with pin 1 of
the slot. Carefully slide the module into the slot. Press
firmly on the top of it to seat it properly.
Note:
With the optional synchronous pipeline burst cache
module installed in the cache module slot, the length of
the add-in card in PCI Slot 2 is limited to 124,65 mm.
27
Page 33
G586OPC
3. Once the synchronous cache module has been installed,
you should make the following modifications in the
“Chipset Features Setup” menu of the Award BIOS
CMOS Setup Utility.
1. SRAM Type:Sync
2. SYNC SRAM Support: Pipeline
3. Cache Read Burst:3-1-1-1
4. Cache Write Burst:3-1-1-1 or 4-1-1-1
28
Page 34
PCI/ISA System Board
VRM Header
Your G586OPC system board is equipped with a VRM
(Voltage Regulation Module) header shown below. It
allows you to upgrade to future low-voltage CPUs by
installing a Voltage Regulation Module.
VRM Header on the System Board
VRM Header and 3.3V Pentium Processor
When using a 3.3V Pentium processor, pins 4-5, 6-7,
19-20 and 21-22 of the VRM header must be set to On.
These settings are presented on the next page.
29
Page 35
Pins 4-5, 6-7, 19-20 and 21-22 are set to On
G586OPC
VRM Header and Future Low-Voltage CPUs
The types of VRM supported and installation procedures
will be described in a future edition of the G586OPC
manual.
30
Page 36
PCI/ISA System Board
CPU Installation
The G586OPC is equipped with a 321-pin Zero
Insertion Force (ZIF) socket at location U26 of the
system board. The ZIF socket allows for easy
installation of upgrade CPUs as your system needs
grow. Make sure all jumpers are set correctly before
applying power, or you may damage the CPU or system
board.
The following jumpers are for factory testing only and
should always be set to their default configurations.
Reconfiguring these jumpers will cause problems with
your system board.
JP3: Off
JP4, JP24: 1-2 On
JP9, JP10, JP18, JP19, JP20, JP21: On
Page 47
Installing Upgrade CPUs
The G586OPC is equipped with a 321-pin Zero
Insertion Force (ZIF) socket at location U26 of the
system board. This socket is designed for easy removal
of the old CPU and easy insertion of the upgrade CPU.
The socket allows you to carefully place the new CPU
into its position. If you need to apply excessive force to
insert the CPU, the installation is being done incorrectly.
Warning:
Open the socket only if actually installing a CPU. The
warranty on the original CPU will be voided if the S/N
seal is broken.
Do not change any factory CPU speed jumper settings.
You do not need to change any jumpers to properly
install the 3.3V Pentium Upgrade Processor.
Before proceeding with the upgrade, take note of the
following. The microprocessor and heat sink may be hot
if the system has been running. To avoid the possibility
of a burn, power the system off and let the processor
and heat sink cool for 10 minutes.
G586OPC
The 321-pin ZIF socket consists of the four rows of pin
holes on each side. To prevent improper OverDrive
Processor installation, the ZIF socket has a Plug/Keying
mechanism. Several holes in the socket are plugged so
OverDrive Processors will go in only one way. If you
cannot easily insert the OverDrive Processor, verify that
pin 1 of the CPU is aligned with pin 1 of the socket. A
warning note — be extremely careful to match pin 1 of
the CPU with pin 1 of the socket. Only Intel's
OverDrive Processor is keyed to prevent improper
placement in the ZIF socket. Other Intel CPUs, as well
42
Page 48
PCI/ISA System Board
as CPUs from other vendors, can be placed incorrectly
and will be permanently damaged.
To install an upgrade CPU, do the following.
Zero Insertion Force (ZIF) Socket
43
1. Make sure the handle on the side of the ZIF socket
is up. To raise the handle, push down, pull it out to
the side a little and raise it as far as it will go. The
top plate will slide back. Do not use screwdrivers or
other tools to open the socket, or damage may occur
to the system or socket. It may be necessary to
initially apply a small amount of sideways force to
free the handle from its retaining “tab.” Once clear
of the “tab,” the handle will open relatively easily.
Page 49
G586OPC
Lifting the Handle
2. Once the lever is completely up, remove the old
CPU by carefully lifting it straight out of the socket.
You are now ready to insert the new CPU.
Pin 1 of the ZIF Socket
44
Page 50
PCI/ISA System Board
3. Position the CPU above the ZIF socket. Make sure
pin 1 of the CPU is aligned with pin 1 of the socket.
Lower the chip until the pins are inserted properly in
their corresponding holes. Remember that very little
force is needed to install the CPU. If the CPU will
not insert easily, verify pin 1 of the CPU is aligned
with pin 1 of the socket. Applying too much
pressure can damage the CPU or the socket.
45
Positioning the CPU Above the ZIF Socket
4. Push the handle down until the handle locks into
place. The top plate will slide forward. You will feel
some resistance as the pressure starts to secure the
CPU in the socket. This is normal and will not
damage the CPU. However, if the handle is not
completely closed, damage to the CPU and/or
system board may result.
Page 51
Clearance Requirements
The 3.3V Pentium Upgrade Processor comes with a heat
sink mounted on top. To maintain proper airflow once
the upgrade is installed on the system board, the
processor and sink require certain space clearances.
The clearance above 3.3V Pentium Upgrade Processor's
fan/heat-sink must be at least 0.4 in. The clearance on at
least 3 of 4 sides of the processor must be at least 0.2
in. The cables (for floppy drive, hard drive, CD-ROM,
etc.) must be routed clear of the CPU and its airspace.
Fan Exhaust
The CPU must be kept cool by using a fan exhaust
configuration in connection with the heatsink. The
temperature of the air entering the fan/heatsink cannot
exceed 45°C. The ambient or room temperature must be
below 37°C (99°F) for a system installed with the 3.3V
Pentium Upgrade Processor.
G586OPC
In order to provide proper airflow to the CPU, all
movable obstructions (power supply cables, cards,
floppy disk cables) must be clear of the CPU heatsink/
fan component in accordance with the space clearance
discussed in the CPU installation section of this manual.
46
Page 52
PCI/ISA System Board
Built-in Ports
The G586OPC system board is equipped with two serial
ports, one SPP/EPP/ECP parallel printer port, one FDD
connector, one PS/2 mouse port and two IDE hard disk
shrouded headers.
47
Locations of the Built-in Ports on the System Board
Page 53
Serial Ports
The built-in serial ports are RS-232C asynchronous
communication ports with 16C550A-compatible UARTs
that can be used with modems, serial printers, remote
display terminals, and other serial devices. They use the
following system I/O addresses:
Port ConfigurationI/O Address
COM13F8h
COM22F8h
COM3/COM43E8h/2E8h
Connecting the Serial Ports
Two DB-9P serial port cables are provided with the
motherboard. They are mounted on a card-edge bracket
along with the PS/2 mouse cable. The upper serial port
cable should be used for the COM 1 primary serial port;
connect it to Connector COM 1 on the motherboard.
The lower serial port cable should be used for the COM
2 secondary serial port; connect it to Connector COM 2
on the motherboard. Make sure the colored stripes on
the ribbon cables align with pin 1 of Connectors COM 1
and COM 2. Mount the card-edge bracket to the system
chassis.
G586OPC
48
Page 54
PCI/ISA System Board
The Primary and Secondary Serial Ports
PS/2 Mouse Port
The PS/2 mouse port is a 6-pin connector on the
system board. Attach the 6-pin mouse port cable, which
came in the G586OPC box, to Connector J1. Make sure
the brown wire on the PS/2 mouse connector aligns with
pin 1 of connector J1.
on the G586OPC System Board
49
Page 55
The PS/2 Mouse Port on the G586OPC System Board
Parallel Port
The G586OPC system board has a standard connector
for interfacing your PC to a parallel printer. This port is
compatible with both IBM AT printer ports and the
new, high speed, bidirectional Extended Capabilities
Port standard. The parallel port on your system board
can be set to any of the following system I/O addresses:
G586OPC
I/O Address:3BC-3BE Hex
378-37A Hex *
278-27A Hex
* Default setting
50
Page 56
PCI/ISA System Board
Connecting the Parallel Printer Port
Attach the DB-25S printer port cable, which came with
the motherboard, to Connector J7 on the G586OPC
system board. Make sure the colored stripe on the
ribbon cable aligns with pin 1 of Connector J7. Use a
small nutdriver to mount the cable into a DB-25 cutout
in the system chassis.
The Parallel Printer Port on the G586OPC
System Board
Floppy Disk Drive Controller
The G586OPC system board has a built-in floppy disk
controller that supports two standard floppy disk drives.
You can install any 720KB/1.2MB/1.44MB/2.88MB
floppy disk drives.
51
Page 57
Connecting the Floppy Disk Cable
The Floppy Disk Connector on the
G586OPC System Board
G586OPC
Step 1
Install the 34-pin header connector into the floppy disk
connector (J8) on the system board. The colored edge of
the ribbon should be aligned to pin 1 of the J8 connector.
Step 2
Install the other 34-pin header connector(s) into the disk
drive(s) with the colored edge of the daisy chained
ribbon cable aligned to pin 1 of the drive edge
connector(s). The end-most connector should be attached to the drive you want to be Drive A.
52
Page 58
PCI/ISA System Board
IDE Hard Disk Interface
The G586OPC system board is equipped with two PCI
IDE shrouded headers that will interface four IDE
(Integrated Drive Electronics) hard disk drives.
Note:
Only IDE drives can be connected to the IDE interface.
Connecting the IDE Hard Disk Interface
To prevent improper IDE cable installation, each PCI
IDE shrouded header has a keying mechanism. The 40pin connector on the IDE cable can be placed into the
header only if pin 1 of the connector is aligned with pin
1 of the header.
53
Note:
The IDE cable with a standard 40-pin connector can be
installed in the PCI IDE shrouded header. Be extremely
careful to match the colored edge of the ribbon with pin
1 of the header.
Page 59
G586OPC
The IDE Hard Disk Connector on the System Board
Step 1
If you are connecting two hard drives, install the 40-pin
connector of the IDE cable into the primary IDE
shrouded header (1st IDE Connector). If you are adding
a third or fourth IDE device, install the 40-pin connector
of the other IDE cable into the secondary IDE shrouded
header (2nd IDE Connector).
Step 2
Install the other 40-pin header connector(s) into the
device with the colored edge of the ribbon cable aligned
to pin 1 of the drive edge connector(s).
Note:
Refer to your disk drive user's manual for information
about selecting proper drive switch settings.
54
Page 60
PCI/ISA System Board
Adding a Second IDE Hard Drive
When using two IDE drives, one must be set as the
master and the other as the slave. Follow the instructions provided by the drive manufacturer for setting the
jumpers and/or switches on the drives. No changes are
needed on the G586OPC system board when adding a
second hard drive.
We recommend that the IDE hard drives be from the
same manufacturer. In a few cases, drives from two
manufacturers will not function properly when used
together. The problem lies in the hard drives, not the
G586OPC system board.
Preparing an IDE Drive for Use
IDE disk drives are already low-level formatted, with
any bad-track errors entered, when shipped by the drive
manufacturer. Do not attempt to do a low-level format,
or you may cause serious damage to the drive.
55
To use an IDE drive, you need to enter the drive type
(this information is provided by the drive manufacturer)
into the system’s CMOS setup table. Then run FDISK
and FORMAT provided with DOS.
Note:
Do not run FDISK and FORMAT programs on a drive
that has already been formatted, or you will lose all
programs and data stored on the drive.
Page 61
Installing Expansion Cards
The G586OPC is equipped with three dedicated PCI and
three dedicated ISA slots. One PCI slot and one ISA slot
are shared. You can only install a card in one or the
other of the shared slots at a time; you cannot install
devices in both slots. Due to the size of the the optional
synchronous pipeline burst cache module installed in the
160-pin cache module upgrade slot, the length of the
card in PCI Slot 2 is limited. Refer to page 27 for limitations. The locations of the expansion slots are shown on
the next page.
Note:
The BIOS needs to be configured for the PCI add-on
cards installed in the PCI slots. Refer to the “PCI
Configuration Setup” chapter presented in the “Initial
Setup Program” section of the manual.
G586OPC
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PCI/ISA System Board
Master/Slave
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Expansion Slots on the G586OPC
System Board
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Installing the System Board
Before installing the system board into your system unit,
you should prepare the tools you will need:
You will need:
• one medium size, flat-bladed screwdriver
• one medium Phillips screwdriver
Step 1
Unlock your system unit. Turn off the power and disconnect all power cords and cables.
Step 2
Remove the system unit cover. Refer to the
manufacturer’s instructions if necessary.
Step 3
G586OPC
Step 4
Remove expansion cards seated in any of the expansion
slots and detach all connectors from the old system
board.
Loosen the screws holding the original system board and
remove the board from the system. Save the screws.
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PCI/ISA System Board
Step 5
Remove the G586OPC from its original packing box.
Be careful to avoid touching all connectors and pins on
the board. Please refer to the handling instructions on
pages 6-8 for proper handling techniques.
Step 6
Insert the SIMMs into the SIMM banks on the
G586OPC. The quantity and location of the SIMMs is
dependent upon the memory configuration and type of
modules you intend to use.
Step 7
Install the CPU. Be sure pin 1 of the CPU is aligned
with pin 1 of the socket.
Step 8
Step 9
Step 10
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Set the corresponding jumpers.
Install the prepared G586OPC system board into the
case and replace the screws.
Reinstall all cards and connectors and replace the system unit cover. Reconnect all power cords and cables.
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v IDE Device Drivers
To install the drivers supported by the system board,
please refer to the “Read Me” file contained on the
installation diskette.
G586OPC
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PCI/ISA System Board
vTroubleshooting Checklist
If you experience difficulty with the G586OPC system
board, please refer to the checklist below. If you still
cannot isolate the problem, please contact your dealer.
1) Check the jumper settings to ensure that the jumpers
are properly set. If in doubt, refer to the “Board
Configuration” section.
2) Verify that all SIM modules are seated securely into
the bank sockets.
3) Make sure the SIM modules are in the correct locations.
4) Check that all populated memory banks are filled
with valid size SIM modules.
5) If your board fails to function, place the board on a
flat surface and seat all socketed components (gently
press each component into the socket).
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6) If you made changes to the BIOS settings, re-enter
setup and load the BIOS defaults.