Casio MP-2000 Service Manual

Page 1
SERVICE MANUAL
(without price)
ELECTRONIC CASH REGISTER
MP-2000 (EX-970)
Nov. 1999
Page 2
CONTENTS
1. Explanation of Product ................................................................................................... 2
1-1. System Overview ................................................................................................... 2
1-2. Unpacking ................................................................................................... 3
1-3. Installation ................................................................................................... 4
1-4. Specification (MP-2000 CPU module)............................................................................. 6
1-5. I/O Outlet ................................................................................................... 7
2. Model List ................................................................................................... 8
3. Disassembly ................................................................................................... 8
4. System Installation ..................................................................................................11
5.Circut Explanation ................................................................................................. 28
5-1. Block diagram ................................................................................................. 28
5-2. Jumper setting ................................................................................................. 29
6. Diagnostic Operation ................................................................................................. 33
6-1. Diagnostic softwares ................................................................................................. 33
6-2. Customer display ................................................................................................. 33
6-3. Drawer test ................................................................................................. 37
7. Trouble Shooting ................................................................................................. 38
8. Data sheet ................................................................................................. 40
8-1. 65550 (HiQV32TM) ................................................................................................. 41
8-2. M5113: Enhanced Super I/O Controller with Plan & Play.............................................. 55
8-3. uM9008: ISA/Plug & Play Super Ethernet Controller .................................................... 61
8-4. VT82580 ................................................................................................. 65
8-5. Pentium Processor ................................................................................................. 81
8-6. MN04326TAE SIMM ................................................................................................. 83
8-7. Power supply ................................................................................................. 84
9. Circuit Diagram ................................................................................................. 85
10. Parts list ............................................................................................... 106
— 1 —
Page 3
1. Explanation of Product
1-1. System Overview
The MP-2000 series are Casio’s new PC based POS system. The MP-2000 equip 9.4 inch LCD display and 84 soft keyboard.
MP-2000 (CPU module)
COVER-2 (optional)
HD access LED Power LED
MP-2040KY (84 keys Keyboard module)
Accessories
1. FDD External cable 1 pc
2. Utility (Floppy disk) 4 pcs
3. User’s manual 1 pc
with accessories
(Separately provided)
— 2 —
Page 4
MP-2060DP
LCD display module
LCD – CPU interface cable
LCD power switch Contrast control Brightness control
Bios chip (Installed in the MP-2000)
Inner interface cable/LCD control board (installed in the MP-2000) with screws
(Separately provided)
1-2. Unpacking
The MP-2000 along with its accessories are packed in carton boxes. Make sure that all of the items listed in previous page are present. After unpacking the cartons, place the system on a raised surface and carefully inspect the system for any damage that might have occurred during shipment. If there are dam­aged or missing parts, contact your dealer immediately.
The MP-2040KY and the MP-2060DP are separate modules and packed along with accessories in each carton boxes. Please refer user’s manual for each module packed in each carton box in detail.
— 3 —
Page 5
1-3. Installation
For Installation for LCD display module (MODEL MP-2060DP), it is necessary to instal the BIOS chip and LCD control board to the CPU module as showing the following steps.
1. Open the upper cover of CPU module. 2. Release the 4 screws for the insulation sheet and the Alminum separator.
3. Fix the connector cable for LCD display. 4. Mount the LCD control board and connect the LCD display cable.
— 4 —
Page 6
5. Mount the insullation sheet and the Alminum 6. Mount the LCD control board and connect the
separator by 4 screws. LCD display cable.
Replace to New Bios chip.
7. Close the upper cover to the CPU module.
NOTES:
1. The MP-2000 CPU module do not equip any operating system. An operating system must be loaded first before installing any software into the MP-2000 CPU module.
2. Be sure to ground yourself to keep from any static charge when you install the internal components. Use a grounding wrist strap and place all electronic components in any static-shielded devices. Most electronic components are sensitive to the static electric charge.
3. Disconnect the power cord from the MP-2000 before any installation. Make sure both the system and the external devices are turned off and the MP-2000 is properly grounded. The sudden surge of power could ruin any sensitive components.
4. The brightness of the LCD panel display will decrease with use. However, hours of use will vary de­pending on the application environment.
— 5 —
Page 7
1-4. Specification (MP-2000 CPU module)
Processor; INTEL Pentium MMX 233MHz Memory: 2 x 16MB SIMM(expandible to 128MB)
512KB cache
Expansion slots: 1 x 16 bit ISA, 2 x PCI RS-232C ports: 4 external ports (with power 5V, 12V, 24V)
Parallel ports: 1 External Floppy disk: 1 port Hard disk: 1 enhanced IDE Operator display: 2MB video memory
External Mouse: 1 X PS/2 mouse port External Keyboard: 1 x PS/2 keyboard port Cash drawers: 2 ports with individual sensing Software utilities: Ethernet setup /VGA Communications: Ethernet control 10base-T
IEEE802.3 Ethernet standard Operation system: Supports Windows 95,Windows NT 4.00 and MS-DOS V6.22 Power supply: 100VAC / 240VAC Environmental
temperature: 5°C to 35°C Dimensions
(main body size): 310mm(W) x 99mm(H) X 305mm(D) Net weight: 4.2kg (CPU module)
Note:
1) Some functions or features that are newly implemented in the Windows98 can not be sup­ported by the MP-2000 system, for instance, Dual Display function, ACPI green function and so on.
2) The system Bios that is installed in the standard MP-2000 does not support the MP-2060DP LCD display. Please change the chip that is packed in the MP-2060DP in case to use the MP­2060DP together with the MP-2000.
— 6 —
Page 8
1-5. I/O Outlet
< Bottom Panel >
165432
FDD MOUSE K/B
LCD
DRW 2 DRW 1
R
N COM 4 COM 3 COM 2 COM 1V
P
7890AB
1 External FDD 7 Parallel port 2 2 x Cash drawers 8 4 x COM ports( COM 1, 2, 3 and 4 )
G
AN E T
3 External PS/2 mouse 9 VGA port <*1> 4 LCD interface port (Not installed) 0 Ethernet 10 base-T 5 External PS/2 Keyboard A AC inlet 6 Expansion outlet B AC Power switch
NOTE *1: Automatic frequency detective type CRT only.
Do not connect telephone line to cash drawer ports or Ethernet connector.
Telefon Linie Stromkreis nicht mit “Cash Drawer Ports” oder “Ethernet Connection” verbinden.
< LCD Unit Rear Panel >
1 4 2 3
1 LCD power switch 2 Contrast control 3 Brightness control 4 PC interface port
— 7 —
Page 9
2. Model List
No. Model Name Description Note 1 MP-2000 CPU module For USA, Canada, UK, and Germany 2 MP-2000S CPU module For countries other than above 3 MP-2040KY Keyboard 84 Key module 4 MP-2041KY Large Keyboard Large Key module 5 MP-2060DP LCD module Mono-LCD unit 6 COVER-2 Cable Cover Cable cover for CPU module 7 QT-7060D Customer Display 8 QT-7062D Customer Display With Pole (20cm) 9 QT-7063D Customer Display With Stand 10 DL-3615 Drawer L size (6coins/5bills) 11 DL-2765 Drawer M size (8coins/4bills) 12 DL-2909 Drawer M size (8coins/5bills) 13 UP-350 1ST T ermal printer Option Printer 14 SA-3075 2.5ST Printer Option Printer
3. Disassembly
To open the case
1. Place the machine up side down.
2. Release the 2 screws of the cable cover.
Cable cover (COVER-2) Cable cover is option item.
3. Then, slide the cable cover to the right side to remove it.
Slide the cable cover (COVER-2).
Note: Cable cover is option item.
— 8 —
Page 10
4. Release the screw. Then, remove the upper cover from front side.
5. Release the 2 screws of the Riser card. Then, remove the Riser card from the mother board.
Release 2 screws.
6. Release the 4 screws of the Aluminum separator. Then, remove the insulation sheet and Aluminum separator.
Release 4 screws.
— 9 —
Page 11
7. Release the 4 screws of the LCD control board (Option item). Then, remove the LCD control board.
Release 4 screws.
LCD control board is option item.
8. Release the 4 screws of the HDD fixing plate. Then, remove the HDD fixing plate with HDD.
Release 4 screws.
9. Release the 9 screws of the Mother board. Then, remove the Mother board.
Note: The view of FAN may be changed.
1 2
7
3 4
— 10 —
5
6
8
9
Page 12
4. System Installation
This Chapter describes the installation and the cable connection to the system connectors. Sections of this chapter includes
* CPU * DRAM * HDD * 4 X Serial Ports * Parallel Port * VGA * Ethernet * Drawer interface * Keyboard * PS/2Mouse * External FDD * Expansion Slot
* System O/S and Software Installation The MP-2000 has a Pentium little board with a free PCI/ISA slot inside. It already builds in a Pentium CPU, 16MB of DRAM and a 2.5" HDD. These are all standard and the system is ready to play. Variety of the I/O ports located at the back side of the chassis are available for customers to connect external peripheral devices, such as a monitor , serial devices, parallel printer.. .etc. However, the interface specification of the peripherals are vary depend on the manufactures and may not applicable to the MP-2000 POS system. Please confirm list of the peripheral devices which are test by Casio as the MP-2000 POS system before you choose the peripherals. Note: Since all specification and quality of the system are assured by Casio as the MP-2000 POS system, any local modification of the CPU, DRAM, HDD, jumper setting on the motherboard or system components by cus­tomer will not be applicable for Casio’s guarantee or warranty unless modification are assured by Casio.
CPU
The MP-2000 system already builds in a designated CPU in the socked on the motherboard.
MP-2000: Intel MMX Pentium 233MHz on the motherboard SBC8352
To maintain the CPU, follow the instructions below.
1. To remove the existing CPU requires the use of a chip removing tool.
2. Locate pin 1 at the corner of the CPU socket and align the CPU’s pin 1. Then place the CPU in the socket. Check the notch on the corner of the CPU and the socket are properly aligned.
3. When a CPU is installed, the jumber settings on the motherboard are properly installed as factory default for the MP-2000.
DRAM
The MP-2000 provides 2 x 72-pin SIMM sockets and 32 (16x2 ) MB of DRAM as standard. Maximum system memory up to 128MB, respectively. To install the memory module, follow the instructions below and check the list of DRAM memories tested as MP-2000.
1. Insert the memory module from the opening of the metal front compartment.
2. The memory module can only fit into the socket one way. Holding the memory module with the notch on the upper right corner, then insert the memory module at a 45 degree angle and push the
module upright until it clicks into place. The system is able to auto detect the new memory size automatically and it is not necessary to change the system configuration after installation.
— 11 —
Page 13
HDD
The standard MP-2000 already builds in a 2.5" hard disk drive. To maintain the HDD, follow the installation instructions below and check the list of HDD tested as the MP-2000.
1. Take out the screws, the IDE cable and remove the HDD.
2. Reinstall the new HDD on the mounting. The four rubber stands act as cushions to lessen the vibration
which usually causes damage to a mechanical device like a HDD.
3. Connect the IDE cable to the HDD. Match pin 1 of the HDD and the pin 1 of the cable.
Serial Ports
MP-2000 has four onboard serial ports. For the MP-2000, COM1 and COM3 and COM4 are RS-232,and COM2 are RS-232/422/485, selected by jumpers. Each serial port is with +5V/+12V/24V power capabilities on both pin 1 and pin 9, ready to accommodate a wide array of serial devices. COM1 to COM4 are all D-SUB 9-pin connec­tors. In this case the COM2 for the MP-2000 is to set to RS-422/485, the related jumpers have to be set correctly.
The RS-485 pin assignment is listed as follows;
Pin Description Pin Description
1 TXD- 5 X 2 TXD+ 6 X 3 RXD+ 7 X 4 RXD- 8 X
Parallel Port
The printer interface is a 25-pin D-SUB connector located on the bottom side. To connect any parallel device, just plug in the device connector to the 25pin D-SUB. There are variety of parallel port peripherals in the market and interface specification vary depending on the peripherals. The peripherals which have been confirmed with the MP-2000 terminals are listed in the Appendix and others may not be supported. Please confirm connectivity of each peripherals before install to the customer site.
VGA
The MP-2000 has an analog RGB interface connector installed on the bottom side. It is able to connect to an expansion CRT monitor, and the system can disply on both the LCD display and the CRT simultaneously. How­ever, the BIOS mounted as standard MP-2000 supports CRT display only. Resolution and color can be con­trolled by video system setup to meet the connected CRT. In case to use the LCD display MP-2060D, change the BIOS packed with the MP-2060DP. It can support both LCD and CRT display, however, resolution is fixed VGA 640 x 480 only and can not be controlled by user due to specification of the MP-2060DP LCD display. Also, since horizontal frequency for the CRT display is designed as 34KHz, an automatic horizontal frequency detective type CRT is only approved for the MP-2000 system.
— 12 —
Page 14
Ethernet
The MP-2000 provide an NE2000 compatible Ethernet (RJ-45) interface. For network connection, just plug in one end of cable of a 10-Base-T hub to the standard Ethernet phone jack. The pin assignment of the RJ-45 is listed below;
RJ-45 Connector Pin Assignment
Pin Description
1 Tx+ (Data transmission positive) 2 Tx- (Data transmission negative) 3 Rx+(Data reception positive) 6 Rx- (Data reception negative)
others Not use
Cash Drawer
The MP-2000 provides two Cash Drawer interface. Cash Drawers are assigned as one of I/O in this system and controlled by the Digital I/O port on the motherboard (SBC8352). The pin assignment for the Cash Drawer connector is as follows.
Cash Drawer connector Pin Assignment
Pin Description
FG
1
Out Switch
2
Read Switch
3
+24V
4
NC
5
6 GND
1 2 3 4 5 6
Cash Drawer control Software Programming
The Cash Drawer is assigned as one of I/O device in the system. The I/O address assigned for the Cash Drawers 220h. The MP-2000 can support two Cash Drawers and each Cash Drawers can be controlled respectively by output or input data to this I/O address. The open/close status of drawers also can be read by reading this I/O address. Following is software programming method for Casio standard Cash Drawer model DL-2765, DL-2909, and DL-3615.
I/O Address Bit Output Data to Open Input data for status Drawer A 220 0 01h FEh (open) Drawer B 220 1 02h FDh (open)
Example program; < Drawer A open >
Out 220h, 01h : Drawer A open signal on
< 100 ms timer > : Open signal on 100 ms
Out 220h,00h : Drawer open signal off
— 13 —
Page 15
Example program; < Read Drawer open status >
Input 220h : Read Drawer open status
If data is FFh: Drawer A , B closed If data is FEh: Drawer A is open, Drawer B is closed. If data is FDh: Drawer A is closed, Drawer B is open. If data is FCh: Drawer A is open, Drawer B is open.
Note: 1) Drawer open signal on time is 100 ms.
2) Do not open Drawer A and B at same time ( Output data 03 ). If two drawers were open at same time, it may cause damage on system power supply.
Keyboard interface
The MP-2000 provides a standard PS/2 keyboard connector located at the interface panel. Connect the POS keyboard module MP-2040KY to this port.
PS/2 Mouse interface
The MP-2000 has one PS/2 mouse connector located at the right side. A simple plug-in will make the connec­tion.
External FDD
The MP-2000 does not build in any floppy disk drive into the main system. Rather, it provides a FDD interface located at the side panel. An external FDD cable is provided to connect a standard 3.5" FDD to the system for system O/S and application software installation. Its pin position and pin assignment is listed as follows;
External FDD Pin Assignment
P 1 GND P 14 GND P 27 MOTE1­P 2 GND P 15 GND P 28 DIR­P 3 GND P 16 GND P 29 STEP­P 4 GND P 17 GND P 30 WDATA­P 5 GND P 18 GND P 31 WGATE­P 6 GND P 19 +12V P 32 TRKO­P 7 GND P 20 REDWC- P 33 WPT­P 8 GND P 21 NC P 34 RDATA-
P 9 GND P 22 NC P 35 SIDE1­P 10 GND P 23 INDEX- P 36 DSKCHG­P 11 GND P 24 MOTE0- P 37 Vcc P 12 GND P 25 DRVS1­P 13 GND P 26 DRVS0-
— 14 —
Page 16
Expansion Slot
The MP-2000 provides a free PCI/ISA + PCI expansion slot to accommodate either an ISA or PCI device at a given time. The expansion card can be plugged into the riser card which is plugged in the onboard PCI/ISA slot as standard. Due to the compact space design, a half-size expansion card can be adapted. To use the ISA or PCI expansion, follow the installation instructions below;
1. Unscrew the metal slip located inside the expansion outlet.
2. Plug either an ISA or PCI card into the ISA or PCI slot on the riser card and fix the expansion card by screwing it to the metal front compartment. All the connectors of the expansion card will come out from the expansion outlet on the bottom side of the chassis for further cable connection.
System O/S and Software Installation
The MP-2000 is not equipped with any operating system. It builds in a 2.5" HDD as memory storage device. As the device is built in the system chassis, to load any O/S or application software into the computer, an external device is needed to act as a bridge. There are three major ways to load software into the system.
1. Use an external FDD: Attach a 3.5" FDD to the external FDD port via the provided external FDD cable.
The 37-pin FDD connector is to be plugged in to the system FDD connector; the 34-pin standard 3.5" FDD signal connector and the 4-pin FDD power connector are to connect to the standard 3.5" FDD. Then, configure the system BIOS setup and insert a 3.5" disk containing necessary software and start the installation.
2. Use ethernet: After install the O/S and necessary network utilities, download application
software from the network.
3. Use External CD-ROM/HDD: To use an external CD-ROM or HDD for software installation, an optional P-IDE
device is needed. The P-IDE device is a converter to convert the parallel port to the IDE interface.
— 15 —
Page 17
BIOS Setup
AMI BIOS Setup
Starting AMI BIOS Setup
As POST executes, the following appears:
Hit <DEL> if you want to run SETUP
Press <Del> to run AMI BIOS Setup.
AMI BIOS Setup Main Menu
When you enter the AMI BIOS Setup Utility, the main menu will appear on the screen as follows. Use the arrow keys to move among the items and press <Enter> to accept and enter into the sub-menu.
— 16 —
Page 18
Setup The AMI BIOS Setup options described in this section are selected by choosing the appropriate high-level icon from the AMI BIOS Setup main menu selection screen. Default setting for the QT-7100 is described in < > next to each option. ( i.e.
<AUTO>
)
[Standard CMOS Setup]
When entering this item, the following screen will be shown;
Date, Day and Time Configuration
Select the Standard option. Select the Date and Time icon. The current values for each category are displayed. Enter new values through the keyboard.
Pri Master Pri Slave
< AUTO >
< AUTO >
Select one of these hard disk drive icons to configure the drive named in the option. A scrollable screen that lists all valid disk drive types is displayed. Select the correct type and press <Enter>. The AMIBIOS is able to detect the IDE drive parameters automatically and report them on this screen. To enable this auto-detect function, just select the drive type
Floppy Drive A Floppy Drive B
Auto
.
< Not Installed > < Not Installed >
Move the cursor to these fields via and select the floppy type. The settings are 360KB 5.25 inch, 1.2 MB 5.25 inch, 720KB 3.5 inch, 1.44 MB 3.5 inch, or 2.88 MB 3.5 inch.
— 17 —
Page 19
[Advanced CMOS Setup]
Boot Device
This option sets the sequence of boot drives either floppy drive A or hard disk drive C or CDROM that AMI BIOS attempts to boot from after POST completes.
Floppy Drive Swap
This option enables the floppy swap function. The setting is
Floppy Drive Seek
This option enables AMI BIOS seek on floppy drive A before booting the system. The settings is
Disabled
System Keyboard
This option permits to configure workstations without keyboards. The setting is
Primary Display
Select this icon to configure the type of monitor attached to the system. The setting is
< 1st: FLOPPY, 2nd:IDE-0, 3rd:CDROM, 4th:Disabled >
< Disabled >
< Disabled >
.
< Absent >
< VGA/EGA >
Enable
or
Disable
.
Absent or Present.
Monochrome, Color 40x25,
Enabled
or
Color 80x25, VGA/PGA/EGA, or Not Installed.
Parity Check
This option enables or disables NMI. If the watchdog function selects NMI trigger, this option must be enabled.
< Disabled >
— 18 —
Page 20
Wait for <F1> If Any Error
< Enable >
AMI BIOS POST runs system diagnostic tests that can generate a message followed by
Press <F1> to continue Enable : AMI BIOS waits for the user to press <F1> before continuing. Disabled : AMI BIOS continues the boot process without waiting for <F1> to be pressed.
External Cache
< Enabled >
If the onboard cache memory is to be enabled, there are two setting options, it is set to
Disabled
.
[Advanced Chipset Setup]
Write Thru
or
Write Back
; otherwise,
Memory Parity Check
This option enables or disables parity error checking for system RAM. The setting is parity is checked ) or
Disabled
.
Watchdog Time out Select
The option selects the watchdog function on time-out trigger set, the settings is 0.5 sec, 1 sec, 5 sec, 10 sec, 20 sec, 50 sec, 100 sec, 150 sec, 200 sec, 250 sec, 300 sec, 350 sec, 400 sec, 450 sec, 500 sec, or 1000 sec.
— 19 —
Enabled
( all system RAM
Page 21
[Peripheral Setup]
Onboard FDC
This option enables the use of the built-in floppy drive controller. The setting is
OnBoard Serial Port 1 <3F8h, IRQ4>
NOTE: Do not change this setting, since COM1 is assigned for the touch screen. It may cause system problem.
OnBoard Serial Port 2
IRQ3 is used for the second serial port COM2. This option selects the onboard serial port 2 Address set. The setting is
OnBoard Serial Port 3
This option selects the serial port 3. The setting is
OnBoard Serial Port 4
This option selects the serial port 4. The setting is
OnBoard Parallel Port
This option selects onboard parallel port. The settings is
Parallel Port Mode
This option specifies the parallel port Mode. The setting is
The setting is
Auto, Disabled, 3F8h IRQ4
< 2F8h, IRQ3 >
Auto, Disabled, 2F8h IRQ3
< 3E8h, IRQ10 >
< 2E8h, IRQ11 >
< 378h >
< Normal >
or 2E
8h IRQ3.
, or
3E8h IRQ4.
Auto, Disabled, 3E8h IRQ10
Auto, Disabled, 2F8h IRQ11
Auto, 3BCh, 378h, 278h
Normal, Di-Dir, EPP
Auto, Enabled
or 3F
8h IRQ10.
or 2E
8h IRQ11
or
Disabled
or
ECP.
or
Disabled
.
.
— 20 —
Page 22
PCI/Plug and Play Setup
POWER MANAGEMENT Setup
— 21 —
Page 23
[Watchdog Function]
The MP-2000 features a system protective device, watchdog timer which can generate a CPU reset when the system comes to a halt or failure. This function is to ensure the system’ s reliability during unattended operation. The trigger sources for the watchdog contain both temperature over range and system failure. The system failure may be caused by thunder, power glitch, radio interference, software bug or whatever reason.
To activate the watchdog timer, some program code similar to the following code has to be written to the system running loops:
:
Loop:
read (0x121) ; enable and trigger WDT
: ; interval time between triggers if (END) GOTO END ; must be smaller than time-out GOTO Loop ; period
END:
read (0x120) ; disable WDT
:
The time-out period ranges from 0.5 to 1000 seconds. If special settings for temperature or time-out are needed, please refer to the utility diskette.
How to Use Watchdog Function
The user can read I/O Port 121H to enable Watchdog or disable it by reading I/O Port 120H.
Reset Watchdog - Read I/O Port 121H Time_A - Read I/O Port 121K Time_B - Read I/O Port 121H
Disable Watchdog - Read I/O Port 120H
** Time_B Time_A<Time Out Setting **
In system Run_Time, you must still have to read I/O Port 121H to reset the Watchdog timer.
If the system fails, the TSR should be stopped and Watchdog reset action will be activated.
— 22 —
Page 24
LCD display
LCD display (MP-2060) Specification
Model MP-2060DP
Display T ype MonoLCDdisplay
Panel Size 9.4"
Max Resolution 640x480
Colors 32 Gray scale
S/W Drivers
Before you begin the driver software installation, be sure to make backup copies of the Display Driver Diskettes. Make sure you know the version of the application for wich you are installing drivers. Your Display Driver Dis­kettes contain drivers for several versions certain applications. For your driver to operate properly, you must install the driver for your version of the application program.
Windows NT
These drivers are designed to work with Microsoft Windows NT.
Driver installation
Step 1
: Install Windows NT as you normally would do for a VGA display. Run Windows NT Control Panel from
the Main Group. Choose the Display
Display Type
the Select Device dialog box.
. Click on
Change
from the Adapter Type in the Display Type dialog box. Click on
option
. In the Display Settings dialog box, click on
Change
Other
in
Step 2
. Place the
Chips and Technologies Video Controller
STALL
and restarted.
Step 3
: Upon restart, at the Invalid Display Selection message, click on OK and select the desired display
settings from the Display Settings dialog box. The system must be shut down and restarted for the new settings to take effect.
Windows NT Display Driver Diskette
to install the selected driver. Once the installation is complete, the system must be shut down
in drive A. Press <ENTER> and the name of the driver,
will appear highlighted in the Models list box. Click on
IN-
— 23 —
Page 25
VGA Software Utilities DOS Utility
These utility programs are designed to work with MS-DOS.
MODETEST
MODETEST is a DOS based diagnostic tool to set and display information for each video mode. To execute the MODETEST utility program, type the following command:
MODETEST All the VGA modes will be sequentially displayed by pressing <ENTER>. To display a specific mode, type the following optional field after the command, where “xx” defines the desired VGA mode:
MODETEST [-m xx] Press any key (expect <Esc>) to display the next screen. This will cycle through each video mode and display the following information:
Mode number
Resolution (in characters if text mode; in pixels if graphics mode)
Number of available colors
Vertical scanning frequency
Horizontal scanning frequency
Dot Clock (pixel) frequency This utility will also display a set of color bars to show the range of colors and put a border of changing colors around the screen. To execute the HELP file, type the following command:
MODETEST -? Press <Esc> at any time to exit the program and return to DOS.
Windows 95 Utility
These utility programs are designed to work with Microsoft Windows 95.
CHIPSDSP.DLL
CHIPSDSP.DLL is located on the CHIPS Windows 95 driver disk. This file is a Windows 95 based utility for selecting display type and refresh rate. It is a Display Properties Refresh window that is automatically installed when installing CHIPS Windows 95 display drivers. The Display icon is in the Control Panel group. To invoke the Display icon, simply click on the Start button, go to Settings, click on Control Panel and then double click on the Display icon. Click on the property sheet with the heading Refresh.
How to use the utility
DISPLAY DEVICE allows you to select the display type from the following:
CRT only <ALT C> LCD (LCD display) only <ALT L> Both CRT and LCD (LCD display) <ALT B>
REFRESH RATE allows you to select the refresh rate from the following:
Interlaced 56 Hz 60 Hz 70 Hz 72 Hz
— 24 —
Page 26
75 Hz 85 Hz NOTE: 1. The refresh rates that are supported by the selected monitor are the only refresh rates
that will show and be selectable.
2. The above Refresh Rates may not be supported by all CHIPS products.
WINDOWS DEFAULT allows you to return to the default refresh rate setting for the selected monitor in Windows
95.
Setup Programs
The following setup programs were developed for the installation of CHIPS Display Drivers through Windows or DOS. The driver files have been compressed wit the Microsoft Corporation (“MS”) COMPRESS.EXE utility. Please note that we do not support driver installation through the MS Windows Setup due to the limitations of their COMPRESS.EXE and EXPAND.EXE utilities. The setup programs contain video chip detection and video memory detection at the time of installation. These programs will automatically detect the CHIPS VGA controller and the amount of video memory present in the system, then read the appropriate script file, and then install the appropriate drives. For example, when setup identifies the VGA controller and 512Kb video memory, the setup program will read the script files identified by the characters “5K”, and then install only the drivers that function with 512Kb of video memory.
English Environment
WINSETUP.EXE
WINSETUP.EXE is a setup program that allows the user to install driver files through Windows. This setup program will expand driver files, and then install the drivers in the appropriate sub-directories. To install the drivers, go to the Run command from the File menu in the Program Manager, and type A:\WINSETUP.
W*.INF
The W*.INF files are the script files for installation of the display drivers using WINSETUP.EXE. These files are located in the root directory of Disk 3 and are required to be in the same directory as WINSETUP.EXE. The W*.INF files may be edited by the OEM to tailor the WINSETUP.EXE program to install specific drivers. These files may be modified by using any ASCII text editor. For example, if the OEM does not wish to install the 24bpp driver, W*.INF must be modified as follows:
Enter the W*.INF file into an ASCII text editor. Go to the [Files] section of the W*.INF file. Delete the line that contains the name of the file for the 24bpp driver. Save the file and exit the text editor .
The W*.INF files may also be edited to install the drivers to another destination sub-directory. The default destination sub-directory is \WINDOWS\SYSTEM. To change the destination sub-directory, replace “SYSTEM” in the [Files] section of W*.INF with the destination sub-directory of your choice. NOTE: Modifying other fields in the W*.INF file may cause WINSETUP .EXE to not function properly.
SETUP.EXE
SETUP.EXE is a setup program that allows the user to install driver files in DOS. This setup program will expand driver files, and then install the drivers in the appropriate sub-directories. To install the drivers, type “SETUP” at the DOS prompt.
— 25 —
Page 27
[Ethernet]
Introduction
The MP-2000 is equipped with an NE2000 compatible high performance Ethernet interface.
Setup and Diagnostic Test
Following software are provided in the floppy disk (Disk 4) for setup and test the Ethernet system.
The Setup Program
The MP-2000’s Ethernet can be either set to PnP or non-PnP modes. In non-PnP mode, the configuration is accompanied by the execution of the setup program, “SETUP.EXE”. After passed a series of tests, the following screen will appear:
UM9008 PnP Ethernet Controller Configuration & Diagnostic Program
Copyright (c) reserved by UMC, 1996. V1.03 (03/2196)
Install drivers Configuration Diagnostics Program Find UM9008 PnP NIC’s Status AutoDetect Accept & Exit CARD 1(48 54 33 01 34 C1): IOBase-300, IRQ-2
Test Result ....................... Success
To change mode or configurations, please follow the instructions on the screen.
Install drivers
This menu is not available for the MP-2000. Please refer Installing Network Driver in this manual.
Configuration
Highlight
Configuration”
“Configuration”
and
“Quit”
option and press <ENTER>, a list of options including
will appear.
“Hardware configuration”
,
“Modify
Hardware configuration
The IRQ and I/O Base Address will appear after selecting this option. You can view the settings and modify select the IRQ and I/O Base Address by “
Modify configuration
”.
Modify configuration
Highlight this option, and press <ENTER>, you can configure the settings of the onboard Ethernet. A range of options is offered for IRQ, I/O and Boot ROM settings.
Diagnostic Test
The Diagnostic Test is a sub-function of SETUP.EXE. This diagnostic program tests all functions of MP-2000 Ethernet module and verifies its communication with another system on the network.
— 26 —
Page 28
Automatic Detection
This function is used to change different modes, including Jumper-less, Automatic detect and PnP modes and automatically configure the onboard Ethernet with available IRQ and I/O settings. To modify these settings, the “Modify configuration” has to be selected.
Installing Network Driver
( Windows 95, Windows 98 or W indows NT)
1) select Add new hardware.
2) select net work card (adapter). Recommended setup:
Manufacture : Novell/Anthem Model : NE2000 compatible
3) select Novell NE2000 compatible Driver.
4) restart Windows 95, Windows 98 or Windows NT.
(MS-DOS)
1) Install IPX.COM and NETX.EXE. 2 files from Novell Server.
2) Run IPX.COM and NETX.EXE to connect Server.
— 27 —
Page 29
5. Circuit Explanation 5-1. Block diagram
(1) MP-2000 System Diagram
To LCD unit
LCD control PCB (Option Item)
(2) MP-2000 system block diagram
COM1: Touch Screen
— 28 —
Page 30
5-2. Jumper setting (1) Mother Board for MP-2000
The default setting of the mother board for MP-2000 is as follows:
JP No. Pin setting Check JP1 1-3 JP2 2-3 JP3 OPEN JP5 OPEN JP6 OPEN JP7 OPEN JP8 1-3,2-4 JP9 3-5,4-6 JP10 OPEN JP1 1 1-2 JP12 3-4 JP13 1-2 JP14 1-2 JP15 7-9,8-10 JP16 3-5,4-6
9-11,10-12 JP17 7-9,8-10 JP18 7-9,8-10 JP19 5-6 JP20 7-9,8-10 JP22 1-2,
7-8
JP1
2 4 6 8 10
1 3 5 7 9
JP10
1 2
JP16
2 4 6 8 10 12
1 3 5 7 9 11
JP6
JP11
1 2 3
JP1 JP3
JP22
JP2
1 2 3
JP12
3 1
JP2
JP19
JP5
2 4 6
1 3 5
JP5
4 2
1 2 3
JP13
1 2
JP8,9
JP11
JP10
JP6
JP14
JP22
1 3 5 7
JP15
JP12,13
2 4 6
1 3 5
2 4 6 8
1 3 5 7
JP16
2 4 6 8
JP14
JP7 JP17 JP18
JP8
1 3 5
JP15,17,18,20
2 4 6 8 10
1 3 5 7 9
JP20
JP19
JP9
1
2 4 6
2
3
4
5
6
(2) Multi I/O Board (MP-2000)
The default setting of the Multi I/O Board for MP-2000 are as follows:
Multi I/O Board Jumper Setting (Default)
JP1,3
JP No. Pin setting Check JP1 1-2 JP3 1-2 JP4 3-5,4-6 JP5 3-5,4-6 JP6 3-5,4-6
JP1 JP3
1 2 3
The top of view for Multi I/O board
JP7 3-5,4-6
(3) Riser Card Jumper switch (MP-2000)
The default setting of the Riser Card for MP-2000 are as follows:
PCI1
PCI2
JP1
JP2
JP7
JP1: 3-4
JP2: 1-2
JP4,5,6,7
2 4 6
JP4
JP6 JP5
2 4 6 8 10 12 14 16 18 20
1 3 5 7 9 11 13 15 17 19
2 4 6 8 10 12 14 16 18 20
1 3 5 7 9 11 13 15 17 19
1 3 5
— 29 —
Page 31
5-2-1. Jumper Settings
The SBC8352 is configured to match the needs of your application by proper jumper settings. The following tables show the specification of the jumper settings. < * : Default / X : Don’t Care > Note: All specification and quality of the system are assured by Casio as the MP-2000, any local modification of the jumper setting by customer will not be applicable for Casio’s guarantee or warranty.
1. Setting pin 35 of LCD display (J4): JP2, JP4
JP2: Setting pin 35 of LCD display connector (J4)
JP2
Pin 35 of J4 is –SHFCLK 1-2 Pin 35 of J4 is SHFCLK 2-3*
2. Setting Watchdog Timer Timeout: JP5
The watchdog timer is an indispensable feature of the SBC8352. It has a sensitive error detection function and a report function. When the CPU processing comes to a halt, the watchdog can generate an NMI or resets the CPU.
JP5 Watchdog Function
1-2 Activate NMI when Watchdog triggered 2-3 Reset system when Watchdog triggered OPEN* Disable
3. LCD display Power Level Setting (V
5V Panel Power Setting 3-5,4-6*
3.3V Panel Power Setting 1-3,2-4
4. CPU Settings: JP6, JP8, JP12, JP22 Jumper Description
JP6 Set CPU clock ratio JP8 Set Single/Dual power of CPU JP12 Set CPU bus clock JP22 Set CPU Core voltage level
CPU JP12 JP6 JP22 JP8 P55C-233 3-4* OPEN* 1-2, 7-8* 1-3,2-4*
5. CMOS SRAM Jumper: JP10
Clear CMOS SRAM data Short Normal Operation Open*
6. System Flash BIOS Type: JP11 Flash BIOS Type JP11
5V Flash BIOS Short(1-2)* 12V Flash BIOS Open
) - Pins 5, 6, 43, 44 of J4: JP9
CCM
JP9
JP10
— 30 —
Page 32
7. LCD display Type Selection: JP14
LCD display type JP14 NOTE
640x480 Monochrome Short 1-2 (for MP-2060DP)
8. Serial Ports Settings: JP15 ~ JP20
The SBC8352 provides four onboard serial ports, 3 x RS-232 and 1 x RS-232/422/485. Each serial port is with +5V/+12V/+24V power capabilities on both Pin 1 and Pin 8, ready to accommodate a wide array of serial devices. The corresponding jumper settings are shown below.
< SBC8352 means the motherboard and MTIO means the Multi I/O board in the MP-2000. >
COM1:Pin 1
SBC8352 MTIO JP20 JP1 JP3 JP4
Normal COM 7-9* 1-2* 1-2* 3-5* +5V 1-3 1-2 1-2 3-5 +12V 3-5 1-2 1-2 3-5 +24V X 1-2 1-2 1-3
COM1:Pin 9
SBC8352 MTIO JP20 JP1 JP3 JP4
Normal COM 8-10* 1-2* 1-2* 4-6* +5V 2-4 1-2 1-2 4-6 +12V 4-6 1-2 1-2 4-6 +24V x 1-2 1-2 2-4
COM2:Pin 1
SBC8352 MTIO
JP15 JP16 JP19 JP1 JP3 JP5
Normal COM/RS232 7-9* (3-5,4-6,9-11,10-12)* 5-6* 1-2* 1-2* 3-5* Normal COM/RS422 7-9 (1-3,2-4,7-9,8-10) 3-4 1-2 1-2 3-5 Normal COM/RS485 7-9 (1-3,2-4,7-9,8-10) 1-2 1-2 1-2 3-5
+5V 1-3 (3-5,4-6,9-11,10-12) 5-6 1-2 1-2 3-5 +12V 3-5 (3-5,4-6,9-11,10-12) 5-6 1-2 1-2 3-5 +24V x (3-5,4-6,9-11,10-12) 5-6 1-2 1-2 1-3
— 31 —
Page 33
COM2:Pin 9
SBC8352 MTIO
JP15 JP16 JP19 JP1 JP3 JP5
Normal COM/RS232 8-10* (3-5,4-6,9-11,10-12)* 5-6* 1-2* 1-2* 4-6* Normal COM/RS422 8-10 (1-3,2-4,7-9,8-10) 3-4 1-2 1-2 4-6 Normal COM/RS485 8-10 (1-3,2-4,7-9,8-10) 1-2 1-2 1-2 4-6
+5V 2-4 (3-5,4-6,9-11,10-12) 5-6 1-2 1-2 4-6 +12V 4-6 (3-5,4-6,9-11,10-12) 5-6 1-2 1-2 4-6 +24V x (3-5,4-6,9-11,10-12) 5-6 1-2 1-2 2-4
COM3:Pin 1
SBC8352 MTIO JP18 JP1 JP3 JP6
Normal COM 7-9* 1-2* 1-2* 3-5* +5V 1-3 1-2 1-2 3-5 +12V 3-5 1-2 1-2 3-5 +24V X 1-2 1-2 1-3
COM3:Pin 9
SBC8352 MTIO JP18 JP1 JP3 JP6
Normal COM 8-10* 1-2* 1-2* 4-6* +5V 2-4 1-2 1-2 4-6 +12V 4-6 1-2 1-2 4-6 +24V X 1-2 1-2 2-4
COM4:Pin 1
SBC8352 MTIO JP17 JP1 JP3 JP7
Normal COM 7-9* 1-2* 1-2* 3-5* +5V 1-3 1-2 1-2 3-5 +12V 3-5 1-2 1-2 3-5 +24V X 1-2 1-2 1-3
COM4:Pin 9
SBC8352 MTIO JP17 JP1 JP3 JP7
Normal COM 8-10* 1-2* 1-2* 4-6* +5V 2-4 1-2 1-2 4-6 +12V 4-6 1-2 1-2 4-6 +24V x 1-2 1-2 2-4
9. CPU Hardware Reset/Turbo Switch/Turbo LED/IDE LED connector: JP3
Pin Description Pin Description
1 H/W Reset 2 GND 3 TUBSW 4 GND 5 TUBLED(-) 6 TUBLED(+) 7 IDE LED(-) 8 IDE LED(+)
— 32 —
Page 34
6. Diagnostic Operation
6-1. Diagnositc softwares
Use the following softwares for checking each block.
Mother board ......................................AMI Diag.5.42 (available in the market)
Customer display ................................Diagnostic program built in the QT-7060D,7062D,7063D.
Drawer ................................................drw.exe (available from Casio)
6-2. Customer display
Necessary tools
Loop back connector
Stabilized power supply
Preparations
In case of QT-7060D or QT-7062D
1 Connect a loop back connector (male type) to customer display’s D-SUB connector. 2 Apply +24 V to pin 1 and GND to pin 5 of the loop back connector. 3 Short circuit pins 2 and 3 (DSR-RXD), and pins 4 and 6 (TXD-DTR).
+ 24V
Short circuited
1
6
+ 24V (pin 1)
GND (pin 5)
QT-7060D or QT-7062D
GND
5
9
Short circuited
Loop back connector
— 33 —
Page 35
In case of QT-7063D
PCB
Loop back connector
AC adaptor jack
Display signal connector
1 Connect a loop back connector on Customer display stand unit. 2 Connect a testing customer display to Display signal connector. 3 Apply +24V DC to the AC adaptor jack.
CN3
5 9
TXD
DSR
RXD
DTR
4
8 3
7 2 6 1
PRINTER
5 9
4
8
3
7 2 6 1
HOST
Female
Male
5
9
4
8 3
7 2 6
1
5
9
4
8 3
7 2 6 1
Loop back connector
Sub PCB
Loop back connector circuit diagram
— 34 —
Page 36
Precautions
1 For checking QT-7063D, use customer display stand unit. 2 Turn the power off before connecting the customer display. 3 After the check, be sure to set the DIP switch correctly. 4 Also check rotating mechanism of the customer display.
Diagnose
Screws
1 Unscrew four screws and remove display panel.
Reset switch
OFF
Initial position of DIP switch
ON 1 2 3 4 5 6 7 8
DIP switch
Display tube
2 Apply power supply (AC adaptor).
3 T urn all the DIP switches on.
4 Push the reset switch. Diagnostic program starts and display shows;
— 35 —
Page 37
All dots off
All dots on
A vertical line moves from right to left.
1 2 3 4 5 6 7 8 1 1 1 1 1 1 1 1
— 36 —
Page 38
5 Turn DIP switch 1~ 6 off.
1 2 3 4 5 6 7 8 0 0 0 0 0 0 1 0
1 2 3 4 5 6 7 8 0 0 0 0 0 0 0 0
6 Turn DIP switch 7 off.
7 Set the DIP switchi in the initial position (SW1 and SW5 on,
others off).
8 Turn the power off.
9 Set the display panel by four screws.
6-3. Drawer test
After 1 second, display turns off.
Execute drw.exe.
drw 1 ENTER
Drawer 1 Open Drawer 2 Open
Switch#1 ' 0 ' Swtitch#2 ' 0 '
Switch#1 ' 1 ' Swtitch#2 ' 0 '
Switch#1 ' 1 ' Swtitch#2 ' 1 '
Drawer 1 opens then after a while, Drawer 2 opens)
Drawer switch 1 status '0' is shown when Drawer 1 opens.
)
Drawer switch 2 status '0' is shown when Drawer 2 opens.
Drawer switch 1 status '1' is shown when Drawer 1 is closed.
)
Drawer switch 2 status '1' is shown when Drawer 2 is closed.
)
— 37 —
Page 39
7. T roubleshooting
This portion of the service manual lists all possible malfunctions that may occur when operating the MP-2000 system. To assist you in fully analyzing the problem, the following table also includes an up-to-date list of symp­toms and probable cause(s). In case you encounter problems or discover causes not included in this section, we highly recommend you to consult CASIO engineers.
Symptoms Probable Causes
– Loose power cable connection at the bottom of the front panel
Turn OFF system power then disconnect the power cord. Insert the power cord back into the inlet connector then turn ON the system power.
The power LED – The connection of female jacks to the power supply inlet connector is indicator on the front loose. panel does not light Remove the back cover of the system and check each connection to the up. power supply inlet connector.
– Loose connection on the bronze and blue copper wires of the power switch
Check each connection.
– Power supply unit is out-of-order,
Replace the power supply unit.
– Monitor cable is not properly installed to connector VGA of the system.
– Loose connection between the multi-I/O (VGA) expansion card and the Abnormal VGA screen CPU card. display Pull out the multi-I/O expansion card from the CPU card then re-install
it back. If symptoms persist, replace the multi-I/O expansion card.
– Defective CPU card
Replace the CPU card of the System.
– The brightness control is not properly adjusted.
Adjust the brightness control to a satisfactory level.
– Inverted connection (from LCD converter board to CPU card) of the 44-pin
LCD converter cable
Adjust and install the LCD converter cable properly.
– Loose connection between the LCD converter board and the LCD panel
Pull out the LCD converter board from the LCD panel then re-install it Abnormal LCD screen back. display
If symptoms still persist at this stage, replace the LCD converter board and/or the LCD converter cable
– Defective LCD panel and/or inverter
Replace the LCD panel and/or inverter.
– Defective CPU card
Replace the CPU card of the system.
– Incorrect BIOS version
Upgrade the BIOS version. Consult CASIO engineers for the latest
version.
– Loose connection between the multi-I/O (COMx) expansion card and the
CPU card. COM Port is not Pull out the multi-I/O expansion card from the CPU card then re-install it functioning back. If symptoms persist, replace the multi-I/O expansion card.
– Defective CPU card
Replace the CPU card of the System.
— 38 —
Page 40
Symptoms Probable Causes
– Improper connection of the network cable
Check the RJ-45 connector installed on the NET port of the multi-I/O expansion card.
Network function is not – Loose connection between the multi-I/O (NET) expansion card and the working CPU card.
Pull out the multi-I/O expansion card from the CPU card then re-install it back. If symptoms persist, replace the multi-I/O expansion card.
– Defective CPU card
Replace the CPU card of the System.
– Loose connection between the cash drawer connector board and multi-
I/O expansion card
Pull out the cash drawer connector board from the multi-I/O expansion
Cash drawer ports not card then re-install it back. If symptoms persist, replace the cash drawer functioning connector board.
– Defective multi-I/O expansion card
Replace the multi-I/O expansion card of the system.
– Defective CPU card
Replace the CPU card of the System.
– Loose connection between the multi-I/O (PRN) expansion card and the
CPU card. Printer port is not Pull out the multi-I/O expansion card from the CPU card then re-install it working back. If symptoms persist, replace the multi-I/O expansion card.
– Defective CPU card
Replace the CPU card of the System.
– Loose connection between the keyboard /mouse/FDD expansion card
and the CPU card. Keyboard/Mouse/FDD Pull out the keyboard/mouse/FDD expansion card from the CPU card are not functioning then re-install it back. If symptoms persist, replace the keyboard/mouse/
FDD expansion card.
– Defective CPU card
Replace the CPU card of the System.
– Inverted connection (from HDD to CPU card) of the 44-pin HDD cable
Adjust and install the HDD cable properly.
HDD is not working – Defective hard drive
Replace the hard disk drive of the system.
– Defective CPU card
Replace the CPU card of the System.
– Improper connection (from CN1 of touchscreen control board to COM3 of
the multi-I/O expansion card) of the 10-pin touchscreen control cable Touchscreen feature is Adjust and install the touchscreen control cable property. not functioning – Loose power connection on CN2 of the touchscreen control board. properly Pull out the power cable on CN2 then re-install it back. If symptoms
persist, consult CASIO engineers.
– Defective touchscreen control board
Replace the touchscreen control board of the system.
— 39 —
Page 41
8. Data Sheet
8-1 65550 (HiQV32TM)
High Performance MultiMedia Flat Panel/CRT GUI Accelerator
8-2 M5113
Enhanced Super I/O Controller with plug & play
8-3 UM9008
ISA/plug & play super Ethernet Controller
8-4 VT82580
Geen Pentium/P54C/M1/K5 PCI/ISA System with unified memory architecture, Universal serial Bus and Master mode PCI-IDE Controller
1. VT82C585VP
System Controller
2. VT82C586VP
PCI to ISA Bridge
3. VT82C587VP
Data Buffer
8-5 PENTIUM® PROCESSOR with MMX Technology
8-6 MN04326TAE SIMM (Single Inline Memory Module)
8-7 POWER SUPPLY (100W)
— 40 —
Page 42
8-1 65550 (HiQV32TM)
High Performance MultiMedia Flat Panel / CRT GUI Accelerator’
Highly integrated design Flat Panel and CRT GUI Accel­erator & Multimedia Engine, Palette/DAC, and Clock Syn­thesizer
Hardware Windows Acceleration
• 64-bit Graphics Engine
- System-to-Screen and Screen-to-Screen BitBLT
- 3-Operand Raster-Ops
- 8/16/24 Color Expansion
• Transparent BLT
- Optimized for Windows
TM
BitBLT format
PCI Bus with Burst Mode capability and BIOS ROM sup­port.
VL-Bus and 486 Local Bus support
Flexible Memory Configurations
• 32-Bit memory interface
• Two or four 256Kx 16 DRAMS
(IMB or 2MB)
• One 512Kx32 DRAMS (2MB)
• Two 128Kx32 DRAMS (lMB)
• Four 128Kx16 DRAMS (lMB)
High Performance:
• Deep write buffers
• EDO DRAM Support
- 40MHz@3.3v
Hardware Multimedia Support
• Zoom Video port
• YUV input from System Bus or Video Port
• YUV-RGB Conversion
• Capture / Scaling
• Zoom up to 8x
• Interpolation
• Double Buffered Video
Game Acceleration
• Source Transparent BLT
• Destination Transparent BLT
• Double buffer-support for YUV and 15/16bpp Overlay Engine
• Instant Full Screen Page Flip
• Read back of CRT Scan line counters.
Optimized for High-Performance Flat Panel Display at 3.3V
• 640x480 x 24bpp
• 800x600 X 24bpp
• 1024x768 x 16bpp
CRT Support
• 8OMHz@3.3v
• 110 MHz@ 5.0v
Direct interface to Color and Monochrome, Single Drive (SS), and Dual Drive (DD), STN & TFT panels
Flexible On-chip Activity Timer facilitates ordered shut-down of the display system
Advanced Power Management feature minimizes power usage in:
• Normal operation
• Standby (Sleep) modes
• Panel-Off Power-Saving Mode
VESA Standards supported
• VAFC Port for display of “Live” Video
• DPMS for CRT power-down (required for support of EPA
Energy-Star program)
• DDC for CRT Plug-Play & Display Control
Composite NTSC / PAL Support
Power Sequencing control outputs regulate application of
Bias voltage, +5V to the panel and +12V to the inverter for backlight operation
Display centering and stretching features for optimal fit of VGA graphics and text on 800x600 and 1024x768 panels
Simultaneous Hardware Cursor and Pop-up Window
• 64x64 pixels by 4 colors
• 128x128 pixels by 2 colors
— 41 —
Mixed 3.3V and 5.0V Operation
®
Fully Compatible with IBM
VGA
Page 43
CPU Direct / VL-Bus Interface
Pin names in parentheses (...) indicate alternate functions.
Pin # Pin Name Type Active Description
207 RESET In Low Reset For VL-Bus interfaces, connet to RESET For
direct CPU local bus interfaces, connect to the system reset generated by the motherboard system logic for all periph­erals (not the RESET# pin of the processor). This input is ignored during Standby mode (STNDBY# pin low) so that the remainder of the system (and the system bus) may be safely powered down during Standby mode if desired.
22 ADS# In Low Address Strobe. In VL-Bus and CPU local bus interfaces
ADS# indicates valid address and control signal information is present. It is used for all decodes and to indicate the start of a bus cycle.
31 M/IO# In Both Memory / IO. In VL-Bus and CPU local bus interfaces
M/I0# indicates either a memory or an I/O cycle: I = memory, O = I/O.
11 W/R# In Both Write / Read. This control signal indicates a write (high) or
read (low) operation. It is sampled on the rising edge of the (internal) 1x CPU clock when ADS# is active.
23 RDYRTN# for 1x Clock In Low Ready Return. Handshaking signal in VL-Bus interface
config High indicating synchronization of RDY# by the local bus master CRESET for 2X clock config / controller to the processor. Upon receipt of this LCLK-
synchronous signal the chip will stop driving the bus (if a read cycle was active) and terminate the current cycle.
24 LRDY# Out/ Low Local Ready. Driven low during VL-Bus and CPU local
OC bus cycles to indicate the current cycle should be completed.
This signal is driven high at the end of the cycle, then tri­stated. This pin is tri-stated during Standby mode (as are all other bus interface outputs).
25 LDEV# Out Low Local Device. In VL-Bus and CPU local bus interfaces, this
pin indicates that the chip owns the current cycle based on the memory or I/O address which has been broadcast. For VL-Bus, it is a direct output reflecting a straight address decode. This pin is tri-stated during Standby mode (as are all other bus interface outputs).
27 LCLK In Both Local Clock. In VL-Bus this pin is connected to the CPU
1x clock. In CPU local bus interfaces it is connected to the CPU 1x or 2x clock. If the input is a 2x clock, the processor reset signal must be connected to CRESET (pin 23) for synchronization of the clock phase
43 BE0# (BLE#) In Low Byte Enable 0. Indicates data transfer on D7:D0 for the
current cycle.
32 BE1# In Low Byte Enable 1. Indicates data transfer on D15:D8 for the
currant cycle.
21 BE2# In Low Byte Enable 2. Indicates data transfer on D23:D16 for the
current cycle.
10 BE3# In Low Byte Enable 3. BE3# indicates that data will transfer over
the data bus on D31:24 during the current access.
— 42 —
Page 44
Pin # Pin Name Type Active Description
179 A2 In High System Address Bus. In VL-Bus, and direct CPU inter­180 A3 In High faces, the address pins are connected directly to the bus. 182 A4 In High In internal clock synthesizer test mode (TS# = 0 at Reset). 183 A5 In High A24 becomes VCLK out and A25 becomes MCLK out. 185 A6 In High A26 and A27 may be alternately be used as General Purpose 186 A7 In High I/O pins or as Activity indicator and Enable Backlight 187 A8 In High respectively (see panel interface pin descriptions and FR0F 188 A9 In High and FR0C for more details). If A26 and A27 are used as 189 A10 In High GPIO pins, they may be programmed as a 2-pin CRT 190 A11 In High Monitor DDC interface (VESATM “Display Data Channel” 191 A12 In High also referred to as the “Monitor Plug-n-Play” interface). 192 A13 In High Either A26 or A27 may also be used to output Composite 193 A14 In High Sync for support of an external NTSC / PAL encoder chip. 194 A15 In High 195 A16 In High 196 A17 In High 197 A18 In High 189 A19 In Nigh 199 A20 In High 200 A21 In High 201 A22 In High
28 A23 In High 29 A24 In High 30 A25 In High 53 A26 In High 54 A27 In High
51 D00 I/O High System Data Bus. 50 D01 I/O High In 32-bit CPU Local Bus designs these data lines connect 49 D02 I/O High directly to the processor data lines. On the VL-Bus they 48 D03 I/O High connect to the corresponding buffered or unbuffered data 47 D04 I/O High signal. 46 D05 I/O High These pins are tri-stated during Standby mode (as are all 45 D06 I/O High other bus interface outputs). 44 D07 I/O High 41 D08 I/O High 40 D09 I/O High 38 D10 I/O High 37 D11 I/O High 36 D12 I/O High 35 D13 I/O High 34 D14 I/O High 33 D15 I/O High 20 D16 I/O High 19 D17 I/O High 18 D18 I/O High 17 D19 I/O High 16 D20 I/O High 15 D21 I/O High 14 D22 I/O High 13 D23 I/O High
8 D24 I/O High 7 D25 I/O High 6 D26 I/O High 5 D27 I/O High 4 D28 I/O High 3 D29 I/O High 2 D30 I/O High 1 D31 I/O High
— 43 —
Page 45
Bus Output Signal Status During Standby Mode
65550 Pin# Signal Name Signal Status
53 ACTI / A26 Driven Low
54 ENABKL / A27 Driven Low
24 LRDY# / RDY Tri-Stated
25 LDEV# Tri-Stated
51-44, 41-40, 38-33 D0 - 15 Tri-Stated
20 -13, 8 -1 D16 -31 Tri-Stated
PCI Bus Interface
Pin # Pin Name Type Active Description
207 RESET# In Low Reset. This input sets all signals and registers in the chip to
a known state. All outputs from the chip arc tri-stated or driven to an inactive state. This pin is ignored during Standby mode (STNDBY# pin low). The remainder of the system (therefore the system bus) may be powered down if desired (all bus output pins are tri-stated in Standby mode).
201 CLK In High Bus Clock. This input provides the timing reference for all
bus transactions. All bus inputs except RESET# and INTA# are sampled on the rising edge of CLK. CLK may be any frequency from DC to 33MHz.
31 PAR I/O High Parity. This signal is used to maintain even parity across
AD0-31 and C/BE0-3#. PAR is stable and valid one clock after the address phase. For data phases PAR is stable and valid one clock after either IRDY# is asserted on a write transaction or TRDY# is asserted on a read transaction. Once PAR is valid, it remains valid until one clock after the completion of the current data phase (i.e., PAR has the same timing as AD0-31 but delayed by one clock). The bus master drives PAR for address and write data phases; the target drives PAR for read data phases.
22 FRAME# In Low Cycle Frame. Driven by the current master to indicate the
beginning and duration of an access. Assertion indicates a bus transaction is beginning (while asserted, data transfers continue); de-assertion indicates the transaction is in the final data phase
23 IRDY# In Low Initiator Ready. Indicates the bus master’s ability to
complete the current data phase or the transaction. During a write, IRDY# indicates valid data is present on AD0-31; during a read it indicates the master is prepared lo accept data. A data phase is completed on any clock when both IRDY) and TRDY# are sampled then asserted (wait cycles are inserted until this occurs).
24 TRDY# S/TS Low Target Ready. Indicates the target’s ability to complete the
current data phase or the transaction. During a read, TRDY# indicates that valid data is present on AD0-31; during a write it indicates the target is prepared to accept data A data phase is completed on any clock when both IRDY# and TRDY# are sampled then asserted (wait cycles are inserted until this occurs).
— 44 —
Page 46
Pin # Pin Name Type Active Description
27 STOP# S/TS Low Stop. Indicates the current target is requesting the master to
stop the current transaction
25 DEVSEL# S/TS Low Device Select. Indicates the current target has decoded its
address as the target of the current access
29 PERR# (VCLKOUT) S/TS Low Parity Error. This signal reports data parity errors (except
for Special Cycles where SERR is used). The PERR# pin is Sustained Tri-state. The receiving agent will drive PERR# active two clocks after detecting a data parity error. PERR# will be driven high for one clock before being tri­stated as with all sustained tri-state signals. PERR# will not report status until the chip has claimed the access by asserting DEVSEL# and completing the data phase.
30 SERR# (MCLKOUT) OD Low System Error. Used to report system errors where the result
will be catastrophic (address parity error, data parity errors for Special Cycle commands, etc.). This output is actively driven for a single PCI clock cycle synchronous to CLK and meets the same setup and hold time requirements as all other bused signals. SERR# is not driven high by the chip after being asserted, but is pulled high only by a weak pull-up provided by the system. Thus, SERR# on the PCI Bus may take two or three clock periods to fully return to an inactive state.
179 ROMA0 Out High BIOS ROM address outputs. See MAD8-I5 (pins 170-177) 180 ROMA1 (GPIO3) Out High for BIOS ROM data inputs. 182 ROMA2 (GPIO4) Out High 183 ROMA3 (GPIO5) Out High BIOS ROMS are not normally required in portable computer 185 ROMA4 (GPIO6) Out High designs (Graphics System BIOS code is normally included 187 ROMA5 Out High in the System BIOS ROM). However, the 65550 provides 189 ROMA6 Out High BIOS ROM interface capability for development systems 191 ROMA7 Out High and add-in card Flat Panel Graphics Controllers. 192 ROMA8 Out High 190 ROMA9 Out High Since the PCI Bus specifications require only one load on 186 ROMA10 (GPIO7) Out High the bus for the entire graphics subsystem, the BIOS ROM 188 ROMA11 Out High interface is “through the chip”. In the VL-Bus mode, the 193 ROMA12 Out High BIOS ROM interface can be an external circuit on the ISA 194 ROMA 13 Out High Bus connector that does not require pins on the chip (see the 196 ROMA 14 Out High Application Schematics section for details). 195 ROMA15 Out High 197 ROMA 16 Out High For programming GPI03-7, see registers XR62-63 198 ROMA 17 Out High
200 ROMOE# Out Low BIOS ROM Output Enable.
199 Reserved In n/a This pin is always an input (A20 for VL-Bus, reserved for
28 Reserved In n/a This pin is always all input (A23 for VL-BUS, reserved for
future use on PCI Bus). To avoid abnormal Vcc current due to a floating input for a PCI Bus, use a 10K resistor to ground to pull this pin low
future use on PCI Bus). To avoid abnormal Vcc current due to a floating input for a PCI Bus, use a 10K resistor to ground to pull this pin low.
— 45 —
Page 47
Pin # Pin Name Type Active Description
51 AD00 I/O High PCI Address / Data Bus 30 AD01 I/O High Address and data are multiplexed the same pins. A bus 49 AD02 I/O High transaction consists or an address phase followed by one or 48 AD03 I/O High more data phases (both read and write bursts are allowed by 47 AD04 I/O High the bus definition). 46 AD05 i/O High The address phase is the clock cycle in which FRAME# is 45 AD06 I/O High asserted (AD0-31 contain a 32-bit physical address). For 44 AD07 I/O High I/O, the address is a byte address, for memory and configu­41 AD08 I/O High ration the address is a DWORD address. During data 40 AD09 I/O High phases AD0-7 contain the LSB and 24-3 1 contain the MSB. 38 AD10 I/O High Write data is stable and valid when IRDY# is asserted; read 37 AD11 I/O High data is stable and valid when TRDY# is asserted. Data 36 AD12 I/O High transfers only during those clocks when both IRDY and 35 AD13 I/O High TRDY# are asserted. 34 AD14 I/O High 33 AD15 I/O High 20 AD16 I/O High 19 AD17 I/O High 18 AD18 I/O High 17 AD19 I/O High 16 AD20 I/O High 15 AD21 I/O High 14 AD22 I/O High 13 AD23 I/O High
8 AD24 I/O High 7 AD25 I/O High 6 AD26 I/O High 5 AD27 I/O High 4 AD28 I/O High 3 AD29 I/O High 2 AD30 I/O High 1 AD31 I/O High
CBE3-0 Command TypE 65550
0000 Interrupt Acknowledge 0001 Specie Cycle 0010 I/O Read Y 0011 I/O Write Y 0100 -reserved­0101 -reserved­0110 Memory Read Y
0111 Memory Write Y 1000 -reserved­1001 -reserved­1010 Configuration Read Y 1011 Configuration Write Y 1100 Memory Read Multiple 1101 Dual Address Cycle
1110 Memory Read Line
1111 Memory Read & Invalidate
43 C/BE0# In Low Bus Command / Byte Enables. During the address phase of 32 C/BE1# In Low a bus transaction, these pins define the bus command (see 21 C/BE2# In Low list above) . During the data phase, these pins are byte 10 C/BE3# In Low enables that determine which byte lanes carry meaningful
data:
byte 0 corresponds to AD0-7. byte 1 corresponds to 8-15. byte 2 corresponds to 16-23. byte 3 corresponds to 24-31
11 IDSEL In High Initialization Device Select. Used as a chip select during
cofiguration read and write transactions
145 AA0 (LB#) (CFG0) I/O Low Address bus for DRAMS A and B 146 AA1 (Reserved) (CFG1) I/O High See the configuration table in the Extended Register 147 AA2 (2X#) (CFG2) I/O High description section for complete details on the configuration 148 AA3 (Reserved) (CFG3) I/O High options for CFG0-8 (XR70-71). See MAD2-7 (pins 164-169) 149 AA4 (Reserved) (CFG4) I/O High and XR71 for additional configuration inputs (CFG10- 15). 150 AA5 (OS#) (CFG5) I/O High 151 AA6 (AD#) (CFG6) I/O High 152 AA7 (TS#) (CFG7) I/O High 153 AA8 (LV#) (CFG8) I/O High
AA0 PCI Bus VL-Bus AA2 2x Clock 1x Clock AA5 Ext. Clock (14.3Mhz) Not supported AA6 A26-A27 ENABL/ACTI AA7 Clock Test Mode Clock Test mode disable AA8 IVcc/CVcc = 3.3V IVcc/CVcc = 5.0V
Since the 65550 does not support the “internal oscillator” option, pin CFG5 (AA5) must be pulled down on reset.
Low (=0) High (=1)
— 46 —
Page 48
Pine Pin Name Type Active Description
90 CA0 (P16) Out High Address bus for DRAM C 91 CAI (P17) Out High 92 CA2 (P18) Out High 93 CA3 (P19) Out High 94 CA4 (P20) Out High 95 CA5 (P21) Out High 96 CA6 (P22) Out High 97 CA7 (P23) Out High 98 CA8 (BLANK) I/O Hi/Lo CA8 may be configured as VAFC BLANK# out or vertical
reference input (VREF) for video capture.
99 HREF In High Horizontal reference input for video capture.
156 RASA# (RASAB0#) Out Low RAS for DRAM A (or bank 0 in 2MB configurations) 123 RASB# (RASAB1#) Out Low RAS for DRAM B (or bank 1 in 2MB configurations) 101 RASC#) (VRDY) Out Low RAS for DRAM C or color key input from external PC-
(KEY) In High Video source (or VAFC “Video System Ready” input)
160 CASAL# (WEAL#) Out Low CAS for the DRAM A lower byte
159 CASAH# (CASA#) Out Low CAS for the DRAM A upper byte
126 CASBL# (WEBL#) Out Low CAS for the DRAM B lower byte
125 CASB# (CASB#) Out Low CAS for the DRAM B upper byte
104 CASCL# (WECL#) I/O Both DRAM C low byte CAS, video in red-6 or VAFC VP14
(VR6/VP14)
103 CASCH# (CASC#) I/O Both DRAM C high byte CAS, video in red-7 or VAFC VP15
(VR7/VP15)
157 WEA# (WEAH#) Out Low Write enable for DRAM A (or bank 0 in 2MB)
(WEAB0#)
124 WEB# (WEBH#) Out Low Write enable for DRAM B (or bank 1 in 2MB)
(WEAB1#) Out High
102 WEC# (WECH#) Out Both Write enable for DRAM C or video in port PCLK out
(PCLK)
155 OEAB0# Out Low Output enable for DRAMs A and B, bank 0,1 of 2MB
100 OEC# Out Low Output enable for DRAM C or VAFC “Video Input Clock”
(VCLK) In High in DRAM C not used
162 MAD0 (TSENA#) I/O High Memory data bus for DRAM A (lower 512KB of display 163 MAD1 (ICTENA#) I/O High memory) 164 MAD2 (CFG10) EDO/FPM I/O High MAD2-7 are latched into XR71 on reset for use as 165 MAD3 (CFG11) (PID0) I/O High additional configuration inputs (CFG 10 -12 are reserved by 166 MAD4 (CFG12) (PID1) I/O High software for input of panel ID). These bits have no other 167 MAD5 (CFG13) (PID2) I/O High internal hardware configuration function. 168 MAD6 (CFG14) (PID3) I/O High 169 MAD7 (CFG15) (Reserved) I/O High PCI Bus: MAD8-15 are used as BIOS ROM Data inputs 170 MAD8 (PCI ROMD0) I/O High during system startup (i.e., before the system enables the 171 MAD9 (PCI ROMD1) I/O High graphics controller memory interface). See also pins 179. 172 MAD10 (PCI ROMD2) I/O High 199 (in PCI Bus interface pin descriptions section) for BIOS 173 MAD11 (PCI ROMD3) I/O High ROM address and ROM Chip Select outputs. In the VL­174 MAD12 (PCI ROMD4) I/O High Bus mode, the BIOS ROM interface can be an external 173 MAD13 (PCI ROMD5) I/O High circuit on the ISA Bus connector (see Application 176 MAD14 (PCI ROMD6) I/O High Schematics). 177 MAD15 (PCI ROMD7) I/O High
— 47 —
Page 49
Pine Pin Name Type Active Description
127 MBD0 I/O High Memory data bus for DRAM B (upper 5I2KB) 128 MBDI I/O High 129 MBD2 I/O High 130 MBD3 I/O High 131 MBD4 I/O High 132 MBD5 I/O High 133 MBD6 I/O High 134 MBD7 I/O High 135 MBD8 I/O High 136 MBD9 I/O High 137 MBD10 I/O High 138 MBD11 I/O High 140 MBD12 I/O High 141 MBD13 I/O High 143 MBD14 I/O High 144 MBD14 I/O High
106 MCD0 (VB2) (EVID#) I/O High Memory data bus for DRAM C (Frame Buffer) 107 MCD1 (VB3) (VP0) I/O High 109 MCD2 (VB4) (VP1) I/O High When a frame buffer DRAM is not required, this bus may 110 MCD3 (VB5) (VP2) I/O High be used to input up to 18 bits of RGB data from all external 111 MCD4 (VB6) (VP3) I/O High PC-Video subsystem or 16 bits of RGB from an external 112 MCD5 (VB7) (VP4) I/O High VAFC interface. Note that this configuration also provides 113 MCD6 (VG2) (VP3) I/O High additional panel outputs so that a video input port may be 114 MCD7 (VG3) (VP6) I/O High implemented along with a 24-bit true-color TFT panel (TFT 115 MCD8 (VG4) (VP7) I/O High panels never need DRAM C). In VAFC interface mode, pin 116 MCD9 (VG5) (VP8) I/O High 106 is the VAFC “Enable Video” input. The external 117 MCD10 (VG6) (VP9) I/O High VAFC interface drives this pin low to indicate data input on 118 MCD11 (VG7) (VP10) I/O High the VPO-15 EVID# is ignored (essentially reserved) in the 119 MCD12 (VR2) (GRDY) I/O High 65550 (VAFC data is always expected as inputs). In VAFC 120 MCD13 (VR3) (VP11) I/O High mode, pin 119 is “Graphics System Ready” out and is 121 MCD14 (VR4) (VP12) I/O High always driven high. 122 MCD15 (VR5) (VP13) I/O High
Note: S/TS stands for “Sustained Tri-state”. These signals are driven by only one device at a time, are driven high for
one clock before released, and are not driven for at least one cycle after being released by the previous device. A pull-up provided by the bus controller is used to maintain an inactive level between transactions.
Pin names in parenthesis (...) indicate alternate functions. If ICTENA# is low with RESET# low, a rising edge on XTALI will put the chip into “In circuit Test” (ICT) mode. In ICT mode, all digital signal pins become inputs which are apart of a long path stating at ENAVDD (pin
62) and proceeding to lower pin numbers around the chip to pin 1 then to pin 208 and ending at VSYNC (pin 64). If all pins in the path are high the VSYNC output will be high. If any pin is low, the VSYNC output will be low. Thus the chip can be checked in circuit to determine if all pins are connected properly by toggling all pins one at a time and observing the effect on VSYNC. XTALI must be toggled last because rising edges on XLTAI with ICTENA# high or RESET# high will exit ICT mode. As a side effect, ICT mode effectively 3-states all pins except VSYNC. If TSENA# is low with RESET# low, a rising edge on XTLAI will 3-state all pins. An XTALI rising edge without enabling conditions exits 3-state.
For the ZV Port interface, Y0-7 correspond to VP0-7, and UV0-7 correspond to VP8-15
— 48 —
Page 50
Flat Panel Display Interface
Pin # Pin Name Type Active Description
71 P0 OUT High 8, 9, 12, or 16-bit flat panel data output. 18-bit and 24-bit 72 P1 OUT High panel interfaces may also be supported (see CA0-7 for P16. 73 P2 OUT High 23). 74 P3 OUT High 75 P4 OUT High Refer to the table on the next page for the configurations for 76 P5 OUT High various panel types. 78 P6 OUT High 79 P7 OUT High 81 P8 (SHFCLKU) OUT High 82 P9 OUT High 83 P10 OUT High 84 P11 OUT High 85 P12 OUT High 86 P13 OUT High 87 P14 OUT High 88 P15 OUT High
70 SHFCLK (CL2) (SHFCLKL) OUT High Shift Clock. Pixel clock for flat panel data.
67 FLM OUT High First Line Marker. Flat Panel equivalent of VSYNC.
68 LP OUT High Latch Pulse. Flat Panel equivalent of HYSYNC.
(CLI)(DE) (BLANK#)
69 M OUT High M signal for panel AC drive control (may also be called
(DE) (BLANK#) ACDCLK). May also be configured as BLANK# or as
Display Enable (DE) for TFT Panels.
62 ENAVDD I/O Power sequencing controls for panel driver electronics 61 ENAVEE (ENABKL) I/O voltage VDD and panel LCD bias voltage VEE
53 ACTI I/O Activity indicator and Enable Backlight outputs. May be
(A26/GPO/DDAT/CS) configured for other functions (see Extension Registers
54 ENBKL(A27/GPI/DCLD/CS) I/O FR0C and FR0F and pin descriptions of MCD 0-15 and
A26/A27 for more information).
— 49 —
Page 51
Mono Mono Mono Color Color Color
65550 SS DD DD TFT TFT TFT HR STN SS STN SS STN DD STN DD STN DD
Pin#
Pin
Name bit bit bit (X4bp) (4bp) (4bp) (4bp)
71 P0 UD3 UD7 B0 B0 B00 R1 R1 UR1 UR0 UR0 72 P1 UD2 UD6 B1 B1 B01 B1 G1 UG1 UG0 UG0
73 P2 UD1 UD5 B2 B2 B02 G2 B1 UB1 UB0 UB0 74 P3 UD0 UD4 B3 B3 B03 R3 R2 UR2 UR1 LR0 75 P4 LD3 UD3 B4 B4 B10 B3 G2 LR1 LR0 LG0 76 P5 LD2 UD2 G0 B5 B11 G4 B2 LG1 LG0 LB0 78 P6 LD1 UD1 G1 B6 B12 R5 R3 LB1 LB0 UR1 79 P7 LD0 UD0 G2 B7 B13 B5 G3 LR2 LR1 UG1 81 P8 P0 LD7 G3 G0 G00 SHFCLKU B3 UG1 UB1 82 P9 P1 LD6 G4 G1 G01 R4 UB1 LR1 83 P10 P2 LD5 G5 G2 G02 G4 UR2 LG1 84 P11 P3 LD4 R0 G3 G03 B4 UG2 LB1 85 P12 P4 LD3 R1 G4 G10 R5 LG1 UR2
8-bit 8-bit 16-bit
9/12/16 18/24 18/24 8-bit 16-bit 8-bit 16-bit
Color
STN
Color Color Color Color
24-bit
86 P13 P5 LD2 R2 G5 G11 G5 LB1 UG2 87 P14 P6 LD1 R3 G6 G12 B5 LR2 UB2 88 P15 P7 LD0 R4 G7 G13 R6 LG2 LR2 90P16––––R0R00––––LG2 91 P17 R1 R01 LB2 92 P18 R2 R02 UR3 93 P19 R3 R03 UG3 94P20––––R4R10––––UB3 95 P21 R5 R11 LR3 96P22––––R6R12––––LG3 97 P23 R7 R13 LB3 70 SHFCLK SHFCLK SHFCLK SHFCLK SHFCLK SHFCLK SHFCLK SHFCLK SHFCLK SHFCLK SHFCLK SHFCLK
Pixels/ 8 8 16 1 1 2 2-2/3 5-1/3 2-2/3 5-1/3 8 Clock:
Note: The 65550 also supports panel interfaces that transfer one pixel per word, but which use both edges or SHFCLK
to transfer one pixel on each edge. See FR12[0].
Note: The higher order output lines should be used when only 9 or 12 bits are needed from the 9/12/16-bit TFT
interface, or when only 18 bits are needed from the 18/24-bit TFT or TFT HR interfaces. The lower order bits should be left unconnected
— 50 —
Page 52
CRT & Clock Interface
Pin # Pin Name Type Active Description
65 HYSNC (CSYNC) OUT Both CRT Horizontal Sync (polarity is programmable) or
“Composite Sync” for support of various external NTSC/ PAL encoder chips. Note CSYNC can be set to output on the ACTI or ENABKL pins.
64 VSYNC (VISINT) OUT Both CRT Vertical Sync (polarity is programmable) or “VSync
Interval” for support of various external NTSC 1 PAL encoder chips.
60 RED OUT High CRT analog video outputs from the internal color palette 58 GREEN OUT High DAC. The DAC is designed for a 37.5 equivalent load on 57 BLUE OUT High each pin (e.g. 75 resistor on the board, in parallel with the
75 CRT load).
55 RSET In N/A Set point resistor for the internal color palette DAC. A 590
1% resistor is acquired between RSET and AGND.
59 AVCC VCC - Analog power and ground pins for noise isolation for the 56 AGND GND - internal color palette DAC. AVCC should be isolated from
digital VCC as described in the Functional Description of the internal color palette DAC. For proper DAC operation. AVCC should not be greater than IVCC. AGND should be common with digital ground but must be tightly decoupled to AVCC. See the Functional Description of the internal color palette DAC for further information.
203 XTALI (MCLK) In High Crystal In. This pin serves as the input for an extemal
reference oscillator (usually 14.31818 MHz). Note that in test mode for the internal clock synthesizer, MCLK is output on A25 (pin 30) and VCLK is output on A24 (pin
29).
204 (Reserved) Reserved. For compatibility with the 65545, this pin
(formerly “Crystal Out” or “XTLAO”) must be discon­nected. In addition, pin 150 must be pulled down on reset. The 65545 no longer supports the “internal oscillator” option.
205 CVCC0 VCC - Analog power and ground pins for noise isolation for the 202 CGND0 GND - internal clock synthesizer. Must be the same as VCC for
internal logic. VCC/GND pair 0 and VCC/GND pair 1 pins 206 CVCCI VCC - must be carefully decoupled individually. Refer also to the 208 CGND1 GND - section on clock ground layout in the Functional
Description. Note that the CVCC voltage must be the same
as the voltage for the internal logic (IVCC).
154 32KHz (GPIO2) (AA9) In High Clock input for refresh of non-self-refresh DRAMS and
panel power sequencing. This pin can be programmed as
GP102 instead of 32KHz input, or AA9 for 512Kx32
memory configurations.
— 51 —
Page 53
CRT/ PANEL Signal Status During Standby Mode
65550 Pin# Signal Name Signal Status
67 FLM Driven Low (weak) 68 LP Driven Low (weak) 70 SHFCLK Driven Low (weak) 69 M Driven Low (weak) 71 P0 Driven Low (weak) 72 P1 Driven Low (weak) 73 P2 Driven Low (weak) 74 P3 Driven Low (weak) 75 P4 Driven Low (weak) 76 P5 Driven Low (weak) 78 P6 Driven Low (weak) 79 P7 Driven Low (weak) 81 P8 Driven Low (weak) 82 P9 Driven Low (weak) 83 P10 Driven Low (weak) 84 P11 Driven Low (weak) 85 P12 Driven Low (weak) 86 P13 Driven Low (weak) 87 P14 Driven Low (weak) 88 P15 Driven Low (weak) 90 P16/CA0 Driven Low (weak) 91 P17/CA1 Driven Low (weak) 92 P18/CA2 Driven Low (weak) 93 P19/CA3 Driven Low (weak) 94 P20/CA4 Driven Low (weak) 95 P21/CA5 Driven Low (weak) 96 P22/CA6 Driven Low (weak) 97 P23/CA7 Driven Low (weak) 62 ENAVDD Driven Low 61 ENAVEE Driven Low 54 ENABKL/A27 Driven Low 65 HSYNC Driven low (weak) 64 VSYNC Driven High (weak) 53 ACTI/A26 Driven low
60,58,57 R.G.B Driven low
— 52 —
Page 54
Display Memory Output Signal Status During Standby Mode
65550 Pin# Signal Name Signal Status
136 RASA# Driven Low 123 RASB# Driven Low 101 RASC# Driven Low (see note below) 157 WEA# Driven High 124 WEB# Driven High 102 WEC# Driven High (see note below) 160 CASAL# Driven Low 159 CASAH# Driven Low 126 CASBL# Driven Low 125 CASBH# Driven Low 104 CASCL# Driven Low (see note below) 103 CASCH# Driven Low (see note below) 155 OEAB# Driven Low 100 OEC# Driven High (see note below)
154-145 AA9-0 Pulled low with weak resistor
99-90 CA9-0 Driven Low (weak)
177-162 MAD15-0 Pulled low with weak resistor 144-143, MBD15-0 Pulled low with weak resistor 141-140,
138-127 122-109. MCD15-0 Pulled low with weak resistor
107-66 (see note below)
Note: These pins are inputs when using the video input port. These pins are driven as outputs
when using an external STN-DD buffer (DRAM “C”).
— 53 —
Page 55
Power/ Ground and Standby Control
Pin # Pin Name Type Active Description
178 STNDBY# In Low Standby Control Pin. Pull this pin to place the chip in
Standby Mode.
80 IVCC VCC - Power / Ground (Internal Logic). 5V ±10% or 3.3V ±0.3V. 77 IGND GND - Note that this voltage must be the same as CVCC (voltage for
internal clock synthesizer). This voltage must also be equal 181 IVCC VCC - to or greater than, AVCC (voltage for DAC) 184 IGND GND
9 BVCC VCC - Power / Ground (Bus Interface). 5V ±10% or 3.3V ±0.3V 12 BNGD GND 26 BGND GND
42 BVCC VCC 39 BGND GND 52 BGND GND
66 BVCC VCC - Power / Ground (Bus Interface). 3V ±10% or 3.3V ±0.3V. 63 DGND GND 89 DGND GND
158 MVCCA Power/Ground (Bus Interface). 5V ±10% or 3.3V ±0.3V. 161 MGNDA
142 MVCCB Power / Ground (Bus Interface). 5V ±10% or 3.3V ±0.3V. 139 MGNDB
108 MVCCC Power / Ground (Bus Interface). 5V ±10% or 3.3V ±0.3V. 105 MGNDC
— 54 —
Page 56
8-2 M5113 : Enhanced Super I/O Controller with Plug & Play
Supports Windows 95 Plug and Play
Enhanced ESD/LATCH up to over 4KV/300 mA
Supports SPP, PS/2, EPP and ECP parallel port
Enhanced UART (16550)
Supports IR from UART1, UART2 and two additional IR pins
Single-chip Notebook/Desktop solution
Supports 2.88-MB/1.44-MB/1.2-MB/720-KB/360-KB FDD formats
Supports Windows 95 Plug and Play
Supports FDC through Parallel port pins
2.88MB Floppy Disk Controller
- Software compatible with 82077 and supports 16-byte data FIFOS
- High performance internal data separator (No­external filter components required)
- Supports standard 1 Mbps / 500 Kbps /300 Kbps/250 Kbps data rate
- Supports 3 modes of 3.5" FDD (720K/1.2M/1.44MB)
- Swappable drives A and B
- Secondary Address Option
Serial ports
- Two high performance 16550 compatible UARTs with send/receive 16-byte FIFOs
- Programmable Baud Rate Generator up to 230K and 460K baud
- Serial Infra Red (SIR) and Amplitude Shift Keyed IR (ASKIR) for wireless communications
- MIDI (Musical Instrument Digital Interface) compatible
- Supports IR from UART1 and UART2 or two additional IR pins (S/W controls these two directions)
- Supports serial ports Plug-n-Play minimum 4 IRQS to all IRQS (If connected systems Pnp SIRQI)
Multi-mode Parallel Port
- Standard mode
- IBM PC/XT, PC/AT and PS/2 compatible Bi­directional parallel port
- Enhanced mode
- Enhanced Parallel Port (EPP) compatible
- High speed mode
- Supports Parallel port PnP min 3 IRQS to all IRQS (If connected system’s PnP SIRQII)
- Microsoft and Hewlett Packard Extended Capabilities Port (ECP) compatible
- includes protection circuit against damage caused when printer is powered up, or operated at higher voltages
- Supports ECP Plug and Play for DRQ1/DACK1 or DRQ3/DACK3
- Supports PDIR for 1284 level 2 Compliance
High performance Power Management for FDC, UART and Parallel Port
100-pin PQFP package, 0.6 µ CMOS process
— 55 —
Page 57
Pin Description
The following table lists the functions of all M5113 pins. A low represents a logic 0 (0V nominal) and a high represents a logic 1 (+2.4v nominal).
Name Number Type Description
HOST Processor Interface
D0-D7 18-51, 53-56 I/O24 Data bus. This connection is used by the host microprocessor to transmit data
to and from the M5113. These pins are in a high Impedance state when not in the output mode.
IORJ 44 I I/O Read. This active low signal is issued by the host microprocessor to
indicate a read operation.
IOWJ 45 I I/O Write. This active low signal Is issued by the host microprocessor to
indicate a write operation.
AEN 46 I Address Enable. This active high signal indicates DMA operations on the host
data bus.
A0-A9 27, 29-34, I I/O Address. These bits determine the I/O address to be accessed during IORJ
41-43 and IOWJ cycles.
DACKA/ 28 I DMA Acknowledge. An active low input signal acknowledging the request for
a DMA transfer of data between the host and the printer port. This input enables the DMA read or write internally.
PADCF O4 This active high signal is read and latched during reset active.
FDRQ 52 O24 FDC DMA request. This active high output is the DMA request for byte
transfers of data to the host. This signal is cleared on the last byte of the data transfer by the DACKJ signal going low (or by IORJ going low if DACKJ was already low as in demand mode.
DACKJ 36 I DMA acknowledge. This active low Input acknowledging the request for a
DMA transfer of data. This input enables the DMA read or write internally.
TC 35 I Terminal Count. This signal indicates to the M5113 that data transfer is
complete. TC is only accepted when DACKJ or PDACKJ is low. In AT, TC is active high and in PS/2 mode, TC is active low.
UR1IRQA 38 O24 Primary Serial Port Interrupt. UR1IRQA is a source of PSP interrupt.
Externally, it should be connected to IRQ4 on PC/AT.
UR2IRQA 37 O24 Secondary Serial Port Interrupt. UR2IRQA is a source of SSP interrupt.
Externally, it should be connected to IRQ3 on PC/AT.
FINTR 40 O24 FDC Interrupt Request. This interrupt from the Floppy Disk Controller is
enabled/disabled via bit 3 of the Digital Output Register (DOR).
PINTR1 39 O24 Parallel Port Interrupt Request. This request from the Parallel Port is
enabled/disabled via bit 4 of the Parallel Port Control Register. If EPP or ECP mode is enabled, this output is pulsed low, then released to allow sharing of interrupts.
RESET 57 IS Reset. This active high signal resets the M5113 and must be valid for 500 ns
minimum. In M5113, the falling edge of reset latches the jumper configuration. The jumper select lines must be valid 50 ns prior to this edge.
RDATAJ 16 IS Read Disk Data. The active-low, raw data read from the disk is connected
WGATEJ 10 O36 Write Gate. This active-low, high drive output enables the write circuitry of the
here. Each falling edge represents a flux transition of the encoded data.
selected disk drive. This signal prevents glitches during power-up and power­down. This prevents writing to the disk when power is cycled.
— 56 —
Page 58
Name Number Type Description
Floppy Disk interface
WDATAJ 9 O36 Write Data. This active low output is a write- precompensated serial data to be
written onto the selected disk drive. Each falling edge causes a flux change on the media.
HDSELJ 11 O36 Head Select. This active low output determines which disk drive head is active.
Low=Head 0, high (open) = Head 1.
DIRJ 7 O36 Direction. This active low output determines the direction of the head
movement (low = step-in, high = step-out). During the write or read modes, this output is high.
STEPJ 8 O36 Step. This active low output produces a pulse at a software-programmable rate
to move the head during a seek operation.
DSKCHGJ 17 IS Disk Change. This disk interface input indicates when the disk drive door has
been opened. This active-low signal is read from bit D7 of address xx7h.
DSOJ, 4, 3 O36 Drive Select 0, 1. Active low, output select drives 0-1.
DSIJ
PDIR 99 O36 This bit is used to indicate the direction of the Parallel port data bus. 0=
output/write, 1= input/ read.
A10 97 I This pin is the A10 address input.
MTROJ, 2, 5 O35 Motor on 0, 1. These active low outputs select motor drives 0-1.
MTR1J
DACKB 96 I This signal is the Parallel port DMA acknowledge input.
DRQB 98 O36 In ECP mode, This is the Parallel Port DMA Request output active high signal.
DENSEL 1 O36 Density select. This signal indicates whether a low (250/300 kbps) or high
(500 kbps) data rate has been selected. This is determined by the DENSEL bits in Configuration register 5.
WRTPRTJ 14 IS Write Protected. This active-low Schmitt Trigger input senses from the disk
drive that a disk is write-protected. An write command is ignored.
TRK0J 13 IS Track 00. This active low Schmitt Trigger input senses from the disk drive that
the head is positioned over the outermost track.
INDEXJ 12 IS Index. This active low Schmitt Trigger input senses from the disk drive that the
head is positioned over the beginning of a track, as marked by an index hole.
UR1IRQB 18 I/O36 Serial Port Interrupt Request. Alternate IRQ output from UART1, refer to CRO
bit 6.
DRATE0 19 I/O36 Data Rate 0. This output reflects bit 0 of the Data Rate Register. At power on,
this output is in a high impedance state.
Serial Port Interface
RXD1, 78,88 I Receive Data. Receiver serial data input.
RXD2
TXD1, 79 O4 Transmit Data. Transmitter serial data output from Primary Serial Port.
PCF0 Parallel Port configuration control 0. During reset active, this input signal is
read and latched to define the address of the Parallel port.
— 57 —
Page 59
Name Number Type Description
RTS1J 81 O4 Request to send. Active low Request to send output for Primary Serial port.
Handshake output signal notifies modem that the UART is ready to transmit data. This signal can be programmed by writing to bit 1 of Modem Control Register (MCR). The hardware reset will clear the RTSJ signal to inactive mode (high). Forced inactive during loop mode operation.
PCF I Parallel port configuration control 1. During reset active, this input is read
and latched to define the address of the Parallel port.
RTS2J 91 O4 Request to send. This active low output for Secondary Serial Port.
Handshake output signal notifies modem that the UART is ready to transmit data. This signal can be programmed by writing to bit 1 of Modem Control Register (MCR). The hardware reset will clear the RTSJ signal to inactive mode (high). Forced inactive during loop mode operation.
S2CFO Secondary serial port configuration control 0. During reset active, this input
is read and latched to define the address of the Secondary serial port.
DTR1J 83 O4 Data Terminal Ready. This is an active low output for primary serial port.
Handshake output signal signifies modem that the UART is ready to establish data communication link. This signal can be programmed by writing to bit 0 of Modem Control Register (MCR). The hardware reset will clear the DTRJ signal to inactive during loop mode operation.
IDECF I IDE Configuration control. When active, this input is read and latched to
enable, disable the IDE
DTR2J 9 O4 Data Terminal Ready. This active low output is for secondary serial port.
Handshake output signal notifies modem that the UART is ready to establish data communication link. This signal can be programmed by writing to bit 0 of Modem Control Register (MCR). The hardware reset will clear the DTRJ signal to inactive mode (high). Forced inactive during loop mode operation.
S2GF1 I Secondary serial port configuration control 1. When active, this input is
read and latched to define the address of the Secondary Serial port.
TXD2 89 O4 Transmitter Serial Data output from Secondary Serial Port.
FDCCF I Floppy Disk Configuration. This input is read and latched during Reset to
enable/disable the Floppy Disk Controller.
CTS1J 82, 92 I Clear to Send. This active low input for primary and secondary serial ports. CTS2J Handshake signal which notifies the UART that the modem is ready to receive
data. The CPU can monitor the status of CTSJ signal by reading bit 4 Modem status Register (MSR). A CTSJ signal state change from low to high after the last MSR read will set MSR bit 0 to a 1. If bit 3 of Interrupt Enable Register is set, the Interrupt is generated when CTSJ changes state. The CTSJ signal has no effect on the transmitter. Note: Bit 4 of MSR is the complement of CTSJ.
DSR1J 80, 90 I Data Set Ready. This active low input is for primary and secondary serial DSR2J ports. Handshake signal which notifies the UART that the modem is ready to
establish the communication link. The CPU can monitor the status of DSRJ signal by reading bit5 of Modem Status Register (MSR). A DSRJ signal state change from low to high after the last MSR read will set MSR bit 1 to a 1. If bit 3 of Interrupt Enable Register is set, the interrupt is generated when DSRJ changes state. Note: Bit 5 of MSR is the complement of DSRJ.
DCD1J, 85, 87 I Data Carrier Detect. This active low input is for primary and secondary serial
DCD2J ports. Handshake signal which notifies the UART that carrier signal is detected
by the modem. The CPU can monitor the status of DCDJ signal by reading bit 7 of Modem Status Register (MSR). A DCDJ signal state changes from low to high after the last MSR read will set MSR bit 3 to a 1. If bit 3 of Interrupt Enable Register is set, the interrupt is generated when DCDJ changes state. Note : bit 7 of MSR is the complement of DCDJ.
— 58 —
Page 60
Name Number Type Description
RI1J, RI2J 84, 86 I Ring Indicator. This active low input is for primary and secondary serial ports.
Handshake signal which notifies the UART that the telephone ring signal is detected by the modem. The CPU can monitor the status of RIJ signal by reading bit 6 of Modem Status Register (MSR). An RIJ signal state change from low to high after the last MSR read will set MSR bit 2 to a 1. If bit 3 of Interrupt Enable Register is set, the interrupt is generated when RIJ changes state. Note: bit 6 of MSR is the complement of RIJ.
DRV2 94 I Drive 2. In PS/2 mode, this input indicates whether a second drive is
connected; this signal should be low if a second drive is connected. This status is reflected in a read of Status Register A.
ADRxJ O24 Optional I/O port address decode output. Defaults to tri-state after power-
up. This pin has 30 µA internal pull-up. This interrupt from the parallel port enabled/disabled via bit 4 of the Parallel
PINTR2 O24 Port Control Register. Refer to Configuration Registers CRC for more
Information.
ECPEN l Enhanced parallel port mode select. Read and latched during reset active.
SLCTINJ 73 O20 Printer select input. This active low signal selects the printer. This is the
complement of bit 3 or the Printer Control Register.
INITJ 74 O20 Initiate Output. This active low signal is bit 2 of the printer control register.
This is used to initiate the printer when low.
AUTOFDJ 76 O20 Autofeed Output. This active low output causes the printer to automatically
feed one line after each line is printed. This signal is the complement of bit 1 of the Printer Control Register.
STROBEJ 77 O20 Strobe Output. This active low pulse is used to strobe the printer data into the
printer. This output signal is the complement of bit 0 of the Printer Control Register.
BUSY 61 I Busy. This signal indicates the status of the printer. A high indicates the
printer is busy and not ready to receive new data. Bit 7 of the Printer Status Register is the complement of the BUSY input.
ACKJ 62 I Acknowledge. This active low output from the printer indicates it has received
the data and is ready to accept new data. Bit 6 of the Printer Status Register reads the ACKJ input.
PE 60 I Paper End. This signal indicates that the printer is out of paper. Bit 5 of the
Printer Status Register reads the PE input.
SLCT 59 I Printer Selected Status. This active high output from the printer indicates that
it has power on. Bit4 of the Printer Status Register reads the SLCT input. .
ERRORJ 75 I Error. This active low signal indicates an error condition at the printer.
PD0-PD7 71, 68, 66, 63 I/O20 Port Data. Thls bi-directional parallel data bus is used to transfer information
between CPU and peripherals.
IOCHRDY 100 OD24 IOCHRDY. In EPP mode, this pin is pulled low to extend the read/write
command.
DRQA/ 23 O24 DMA Request. Alternate DMA request output for parallel port. Refer to CR5 bit
3
SICF1 I Primary Serial Configuration 1. Read and latched during reset active to select
the address of the Primary Serial Port.
PINTR3/ 24 O24 Parallel Port Interrupt Request. Alternate IRQ output from Parallel Port.
SICF0 Refer to CR0 bit 4 for more information.
I Primary Serial Configuration 0. Read and latched during reset active to
define the address of the Primary Serial Port.
— 59 —
Page 61
Name Number Type Description
IRTX2 25 O16 Alternate IR Transmit output.
IRRX2 26 O16 Alternate IR Receive input.
FACF Floppy Disk Address Control. This signal is read and latched during reset
active.
UR21RQB 22 I/O24 Serial Port Interrupt Request. Alternate IRQ output from UART2, refer to CR0
bit 5.
Miscellaneous
PWRGD 58 I Power Good. This input signal indicates that the power is valid. For device
operation, PWRGD must be active.
X1/CLK1 20 ICLK Clock 1. This external connection for a parallel resonant 24 MHz crystal. A
CMOS compatible oscillator is required if crystal is not used.
X2/CLK2 21 OCLK Clock 2. This is a 24 MHz crystal. If an external clock is used, this pin should
not be connected. This pin should not be used to drive an other drivers.
Vcc 15, 72 P Power. +5 Volt supply pin.
Vss 6, 47, 67, 95 Ground pins.
Type Descriptions:
I Input TTL compatible
IS Input with Schmitt trigger I/O20 Input/Output with 20 mA sink @ 0.4 V, source 8 mA @ 2.4 V I/O24 Input/Output with 24 mA sink @ 0.4 V, source 8 mA @ 2.4 V I/O36 Input/Output with 36 mA sink @ 0.4 V, source 8 mA @ 2.4 V
ICLK CLK input at 24 MHz
OCLK CLK output at 24 MHz
O4 Output with 4 mA sink @ 0.4 V, source 4 mA @ 2.4 V. O16 Output with 16 mA sink @ 0.4 V, source 8 mA @ 2.4 V. O20 Output with 14 mA sink @ 0.4 V, source 14 mA @ 2.4 v, O24 Output with 24 mA sink @ 0.4 V, source 12 mA @ 2.4 V. O36 Output with 36 mA sink @ 0.4 V, source 8 mA @ 2.4 V.
OD24 Open drain outputs, sinks 24 mA @ 0.4 V. OD36 Open drain outputs, sinks 36 mA @ 0.4 V.
— 60 —
Page 62
8-3 UM9008: ISA/Plug & Play SuperEthernet Controller
Features
Single chip solution for IEEE 802.3. 10BASE-T, 10BASE2 and 10BASE5
Integrated ISA interface, 8Kx16 SRAM, Media Access Control. ENDEC, and 10BASE-T transceiver
Support ISA Plug and Play configuration function
Software compatible with NOVELL NE2000
Support PnP and Non-PnP Auto-Switch function
PnP, Non-PnP, and Auto switch mode selectable by
software settings
6 interrupt lines selectable
Auto-Polarity detection and correction
8 or 16-bit slot mode selectable
General Description
The UM9008 Ethernet controller is a super integrated design to provide all Medial Access Control (MAC) and the Encode-Decode (ENDEC) functions in accordance with the IEEE 802.3 standard. The UM9008 provides the network interfaces include 10BASE5 or 10BASE2 Ethernet via the AUI port and 10BASE-T via the Twisted-pair. The UM9008 Ethernet controller can also interface directly to PC-AT ISA bus without any external device. The interface to PC-AT ISA bus is fully compatible with NE2000 Ethernet adapter
Provide 10BASE-T transceiver and Attachment Unit Interface (AUI) auto detect and auto-Switch function
External EEPROM programmable
Support BOOT ROM page mode
Loopback capability for diagnostics
Receiver and collision squeich circuit to reject
noise
Low-power CMOS process with single 5V power supply
Built-in predistortion resisters in 10BASE-T
application
100-pin OFP package
cards, so all software programs designed for NE2000 can run on the UM9008 card without any modification. The UM9006 Support both Microsoft’s Plug and Play and the jumperless software configuration function. The capability of the PnP and Non-PnP mode auto-Switch function allows users to configure network card, truly PnP. No any jumper or Switch is needed IO setting, either the PC with PnP function or not. The integrated 8 x 16 SRAM and 10BASE-T transceiver make UM9008 more cost-effectively.
— 61 —
Page 63
Pin Description
Pin No. Symbol I/O Description
PC ISA BUS INTERFACE PINS
96-99 SA0-SA3 I SYSTEM ADDRESS: These signals are connected to the address
3-5 SA4-SA6 bus of the PC I/O slot. They are used to select the UM9008
7 SA7 I/O ports or the boot ROM address
9 SA8 11-13 SA9-SA11 15-18 SA14-SA17
21, 22 SA18, SA19
26-33 SDO-SD7 I/O, Z SYSTEM DATA: These Signals are connected to the data bus of 88-81 SD8-SD15 the PC I/O bus slot. They are used to transfer data between
the PC and the UM9008
2 BALE I ADDRESS LATCH ENABLE: PC ISA bus BALE Signal; used only
to define the timing of IOCHRDY in Remote DMA
14 SYSCLK I SYSTEM CLOCK: PC ISA bus system clock
19 IOR I I/O READ: An active low signal used to read data from the
UM9008
21 IOW I I/O WRITE: An active low signal used to write data to the
UM9008
23 SMEMR I MEMORY READ: An active low signal used to read boot ROM data
35 RST I RESET: An active high signal used to power-on reset the UM9008
24 AEN I ADDRESS ENABLE: This is an active low signal used to enable the
system address for the UM9008
25 IOCHRDY O,Z I/O CHANNEL READY: The UM9008 sets this signal low to insert
wait states into the PC ISA bus
89 MEMW I MEMORY WRITE: PC ISA bus memory write Signal
90 MEMR I MEMORY READ: PC ISA bus memory read signal
95 IO16 O, Z 16-BIT I/O: This signal goes low when the data transfer between
the UM9008 and the PC ISA bus is word wide
6 IRQ3 O, Z INTERRUPT REQUESTS: These are 8 interrupt request pins. Only
8 IRQ4 one pin, which is decoded from Configuration Register A, can
10 IRQ5 be activated; the other pins are left floating. The activated 34 IRQ9 pin will go high when an interrupt request is generated from
94-92 IRQ10-12 the ENC module of the UM9008
91 IRQ15
MEMORY INTERFACE PINS
79 EECS O EEPROM CHIP SELECT: This signal goes high when the EEPROM is
selected by the UM9008
80 8PCS O BOOT ROM CHIP SELECT: This Signal goes low when the PC reads
the boot ROM data
— 62 —
Page 64
Pin No. Symbol I/O Description
64-71 MD0-MD7 I/O, Z MEMORY DATA BUS: These are the memory data signals for the
boot ROM When the EEPROM is loaded or written, MD0, 1, 2 are used as the EEPROM signals
(64) (EED1) • EEPROM DATA IN: This pin is used as the serial input data
signal from the EEPROM
(65) (EED0) • EEPROM DATA OUT: This pin is used as the serial output data
signal to the EEPROM
(66) (EECK) • EEPROM CLOCK: This pin is used as the EEPROM clock signal
These memory data pins can also be used as switches when the UM9008 is in reset state. There is an approximately 100K pull­low resistor on each pin, and a 10K pull-high resistor can be
connected to a pin when it is switched to logic high (69) (BNCSW) • When this pin pulled high upon reset, pin 54 outputs 312.5KHz (70) (SLOT) . • SLOT SELECTION: When this pin is pulled to high, the UM9008
is in NE2000 16-bit mode
63-56 PA0-PA7 O BOOT ROM PAGE ADDRESS. When the boot ROM is accessed, PA0-PA7
are used as the page address of the boot ROM
NETWORK INTERFACE PINS
37 TX - O TRANSMIT OUTPUT: Differential line driver which sends the encoded 38 TX+ data to the transceiver. The outputs are source followers which
require 270 ohm pull-down resistors
54 BNCEN O BNC OUTPUT ENABLE: This pin goes high if the value of the
Configuration Register B bit 1 is low and bit 0 is high.
Typically, this pin is used to control the DC-DC converter to
enable or disable the UM9092A (Coaxial Transceiver Interface)
• Output 312.5KHz clock: when the 69 pin (BNCSW) is pulled high, this pin output 312.5KHz clock
78 XI CRYSTAL or EXTERNAL CLOCK INPUT
77 X2 O CRYSTAL FEEDBACK OUTPUT: Used in crystal connection only. Left
open when using an external clock
NETWORK INTERFACE PINS
39 RX- I RECEIVE INPUT: Differential receive input pair from the 40 RX+ transceiver
41 CD- I COLLISION INPUT: Differential collision input pair from the 42 CD+ transceiver
50 TPTX+ O TP Driver Outputs. These two outputs provide the TP drivers with 49 TPTX- pre-distortion capability
46 TPRX + I TP Receive Input. A differential receiver tie to the receive 45 TPRX- transformer pair of the twisted-pair wire.
The receive pair of the twisted-pair medium is driven with 10 Mbits/s Manchester-encoded data
55 LILED OPEN LINK and Traffic LED Driver: If TP is LINK-pass, this pin outputs
DRAIN low. This pin will go low for 80 ohms and then into high impedance
state for 50ms to indicate the presence of traffic on the network
76 NC No connection
— 63 —
Page 65
POWER SUPPLY PINS
36, 47, 48 AVCC +5V DC power supply for analog CKT. A decoupling capacitor should
be connected between these pins and GND for analog CKT
43, 44, 51 AGND GND for analog CKT
1, 53, 72 VCC +5V DC power supply for digital CKT. A decoupling capacitor should
be connected betwneen these pins and GND for digital CKT
52,73,74,
75.100
GND GND for digital CKT
GND
SA3
SA2
SA1
SA0
1016
IRQ10
IRQ11
IRQ12
IRQ15
WCLR
99989796959493929190898887868584838281
VCC
BALE
SA4 SA5 SA6
IRQ3
SA7
IRQ4
SA8
IRQ5
SA9 SA10 SA11
SYSCLK
SA14 SA15 SA16 SA17
IOW
SA18
IOW
SA19
SREKA
ALEN
LOCLAOY
SD0
SD1
SD2
SD3
SD4
100
1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30
31323334353637383940414243444546474849
UM9008F
WCWH
SD8
SD9
SD10
SD11
SD12
SD13
SD14
SD15
50
80
BPC5
79
EEC5
78
X1
77
X2
76
MC
75
CM0
74
CN0
73
CM0
72
VCC
71
MO7
70
MO6/
69
MOS/
68
ND4
67
ND3
66
ND2/EECX
65
MD1/EEDO
64
MD0/EEDI
63
PA0
62
PA1
61
PA2
60
PA3
59
PA4
58
PA5
57
PA6
56
PA7
55
LILCD
54
BMCEN
53
VCC
52
GND
51
GND
SD5
SD6
SD7
IRQ9
R51
AVCC
IX-
IX+
AX-
CD-
AX+
— 64 —
CD+
AGND
AGND
IPRX-
IPRX+
AVCC
AVCC
IPIX-
IPIX+
Page 66
8-4 VT82580
1. VT82C585VP
PIN DESCRIPTION
Signal Name Pin No. Power I/O Signal Description
CLOCK CONTROL
NCLK 59 cpu I HOST CLOCK: This pin receives a buffered host
clock. This clock is used by all of the VT82C585VP logic that is in the Host clock domain. This should be the same clock net that is delivered to the CPU.
PCLK 9 cpu I PCI CLOCK: This pin receives a buffered divided-by-
2 host clock. This clock is used by all of the VT82C585VP logic that is in the PCI clock domain
RESET CONTROL
RESET# 52 pci I RESET: When asserted, this signal resets the
VT82C585VP and sets all register bits to the default value.
CPU INTERFACE
ADS# 66 cpu I ADDRESS STROBE: The CPU asserts ADS# in T1 of
the CPU bus cycle.
M/IO# 54 cpu I MEMORY I/O.
W/R# 69 cpu I WRITE/READ.
D/C# 67 cpu I DATA/CONTROL
BE#[7:0] 44-51 cpu I BYTE ENABLES: The CPU byte enables indicate
which byte lane the current CPU cycle is accessing.
CA[31:3] 20, 22, cpu B ADDRESS BUS: CA[31:3] connect to the address bus
23, 19, of the CPU. During CPU cycles CA[31:3] are inputs. 14, 17, These signals are driven by the VT82C585VP during 18, 13, cache snooping operation. 11, 16,
12, 36-
32, 42, 40, 41, 39, 30,
31,37, 29, 25, 26, 28,
24, 21
BRDY# 62 cpu O BUS READY: The VT82C585VP asserts BDRY# to
indicate to the CPU that data is available on reads or has been received on writes.
EADS# 65 cpu O EXTERNAL ADDRESS STROBE: Asserted by the
VT82C585VP to inquire the L1 cache when serving PCI master accesses to main memory.
KEN#/INV 56 cpu O CACHE ENABLE/INVALIDATE: KEN#/INV
HITM# 68 cpu I HIT MODIFIED: Asserted by the CPU to indicate that
functions as both the KEN# signal during CPU read cycles and the INV signal during L1 cache snoop cycle.
the address presented with the last assertion of EADS# is modified in the LI cache and needs to be written back.
— 65 —
Page 67
Signal Name Pin No. Power I/O Signal Description
HLOCK# 53 cpu I HOST LOCK: All CPU cycles sampled with the
assertion of HLOCK# and ADS#, until the negation of HLOCK# must be atomic.
CACHE# 55 cpu I CACHEABLE: Asserted by the CPU during a read cycle
to indicate the CPU can perform a burst line fill. Asserted by the CPU during a write cycle to indicate that the CPU will perform a burst write-back cycle.
AHOLD 57 cpu O ADDRESS HOLD: The VT82C586 asserts AHOLD
when a PCI master is accessing main memory. AHOLD is held for the duration of the PCI burst transfer.
NA# 63 cpu O NEXT ADDRESS:
BOFF# 64 cpu O BACK OFF: Asserted by the VT82C585VP when
required to terminate a CPU cycle that was in progress.
SMIACT# 58 cpu I SYSTEM MANAGEMENT INTERRUPT ACTIVE:
This is asserted by the CPU when it is in system management mode as a result of SMI.
CACHE CONTROL
COE# 72 cpu O CACHE SRAM OUTPUT ENABLE:
CWE#[7;0] / 76-73, cpu O Multi-function pins:
SWE#A-B, 93-90 Global write option off (bit 2 of RX54h is 0): Cache SRAS#A-B, SRAM write enable or each byte. SCAS#A-B,
BWE#, Global write option on (bit 2 of RX 54h is 1): GWE# Synchronous DRAM command indicators and
BWE#/GWE# for global write SRAM control.
TWE# 89 cpu O TAG WRITE ENABLE: When asserted, new state and
tag addresses are written into the external tag.
A3SEL/ 71 cpu O CACHE ADDRESS 3/CACHE ADDRESS STROBE:
CADS# This pin has two modes depending on the type of SRA
selected. Async. SRAM: A3SEL is used to sequence through the Qwords in a cache line during a burst operation.
Sync. SRAM: Its assertion causes the burst SRAM load the BSRAM address register from BSRAM address pin.
A4SEL/ 70 cpu O CACHE ADDRESS 4/CACHE ADVANCE:
CADV# This pin has two modes depending on the type of SRA
selected. Async. SRAM: A4SEL is used to sequence through the Qwords in a cache line during a burst operation.
Sync. SRAM: its assertion causes the burst SRAM to advance to advance to the next Qword in the cache line.
TA[9] / DB32 88, 87, cpu B TAG ADDRESS: These are inputs during CPU accesses
TA[8:0] 80, 81, and outputs during L2 cache line fills and L2 line
82, 85, invalidates during inquire cycles.
86, 79-77 TA9 is a multi-function pin. It will act as DB32 to
VT82C587VP when 32bit DRAM mode is enable.
— 66 —
Page 68
CALE/CE1# 94 cpu O CACHE ADDRESS LATCH/CHIP ENABLE 1: This pin
has two modes depending on the type of SRAM selected.
1. Async. SRAM: CALE is used to control the cache address latches.
2. Sync. SRAM: CE1 is used as chip -select 1 for the BSRAM.
DRAM CONTROL
MA[11:0] 125-120, dram O MEMORY ADDRESS: DRAM address lines.
118-115, 113, 112
RAS#[5:4] 103, 102 dram O ROW ADDRESS STROBE of each bank for
FPG/EDO/BEDO DRAM.
RAS#[3:0]/ 99-98, Multi-functional pins:
CS#[3:0] 101-100 1. FPG/EDO/BEDO DRAM: ROW ADDRESS
STROBE of each bank.
2. Synchronous DRAM: chip select of each bank.
CAS#[7:0]/ 104, 110, dram O Multi-functional pins: DQM#[7:0] 106, 108, 1. FPG/EDO/BEDO DRAM: COLUMN ADDRESS
105, 111, STROBE of each byte line. 107, 109 2. Synchronous DRAM: data mask of each byte lane.
WE# 95 dram O DRAM write enable.
SRAS#A-B 73,74 dram O ROW ADDRESS COMMAND INDICATOR: for
Synchronous DRAM, two identical copies for better driving.
SCAS#A-B 92, 93 dram O COLUMN ADDRESS COMMAND INDICATOR: for
Synchronous DRAM, two identical copies for better driving.
SWE#A-B 75, 76 dram O WRITE ENABLE COMMAND INDICATOR: for
Synchronous DRAM, two identical copies for better driving.
UNIFIED MEMORY INTERFACE
MREQ0# 163 dram I MEMORY REQUEST 0: This pin is asserted by the
graphic controller to get access to local DRAM.
MREQ1# 166 dram I MEMORY REQUEST 1: This pin is asserted by the
graphic controller to get access to local DRAM (It is reserved if 2 pin protocol selected)
MGNT# 162 dram O MEMORY GRANT: VT82C585VP assert this pin to
relinquish DRAM bus to graphic controller.
DGNT# 126 dram O DATA GRANT: Controls external buffer for UMA
interface.
VT82C587VP INTERFACE
DB32 88 cpu B DRAM WIDTH: to control VT82C587VP if 32-bit
DRAM is used.
PLINK[15:0] 151-148, dram B PCI LINK: This is the data path between the CPU/main
146-143, memory and PCI. PCI main memory reads and CPU to PCI
134-127 writes are driven onto these pins by the VT82C587VP. CPU
reads from PCI and PCI writes to main memory are received on this bus by the VT82C587VP. Each VT82C587VP connected to one byte of this bus.
— 67 —
Page 69
MSTB# 135 dram O MEMORY STROBE: Assertion causes data to be posted
in the DRAM Write Buffer.
HSTB# 136 dram O HOST STROBE: Assertion causes data to be posted in
the CPU Read Buffer.
CMD[4:0] 141-137 dram O COMMAND: VT82C585VP uses these signals to control
the buffers in VT82C587VP.
PCI Bus Interface
FRAME# 188 pci B FRAME: Assertion indicates the address phase of a PCI
transfer. Negation indicates that one more data transfer is desired by the cycle initiator.
AD[31:0] 167- pci B ADDRESS DATA BUS: The standard PCI address and
174, data lines. The address is driven with FRAME# 177- assertion and data is driven or received in following 182, cycles. 185, 186, 197­199, 202­206,
208, 2-8
C/BE#[3:0] 176, pci B COMMAND, BYTE ENABLE: The command is
187, driven with FRAME# assertion. Byte enables 196, corresponding to supplied or requested data are driven
207 on following clocks.
IRDY# 189 pci B INITIATOR READY: Asserted when the initiator is
ready for data transfer.
TRDY# 190 pci B TARGET READY: Asserted when the target is ready
for data transfer.
STOP# 192 pci B STOP: Asserted by the target to request the master to
stop the current transaction.
DEVSEL# 191 pci B DEVICE SELECT: This signal is driven by the
VT82C585VP when a PCI initiator is attempting to access main memory- It is an input when VT82C585VP is acted as a PCI initiator.
PAR 194 pci B PARITY: A single parity bit is provided over AD[31:0]
and C/BE[3:0].
SERR# 195 pci B SYSTEM ERROR: VT82C5285VP will pulse this signal
when it detect a system error condition.
LOCK# 193 pci B LOCK: Used to establish, maintain, and release
resource lock on PCI
PREQ# 153 pci I PCI REQUEST: This signal comes from VT82C586.
PREQ# is the VT82C586 request for the PCI bus.
PGNT# 152 pci O PCI GRANT: This signal driven by the VT82C585VP
to grant PCI access to VT82C586.
REQ#[3:0] 155, pci I REQUEST: PCI master requests for PCI.
157, 159,
161
— 68 —
Page 70
GNT#[3:0] 154, pci O GRANT: Permission is given to the master to use PCI.
156, 158,
160
POWER AND GROUND
VDD_CPU 10, 43, cpu I Power supply for the CPU bus.
61, 84
VDD_PCI 184, 201 pci I Power supply for PCI bus.
VDD 147, 165 I Power supply
VDD_DRAM 97, 114, dram 1 Power supply for the DRAM bus.
VSS 1, 15, 27, 0v I Ground
38, 60, 83, 96,
119, 142
164, 175,
183, 200
— 69 —
Page 71
PIN OUT IN NUMERICAL ORDER
Pin No Pin Name Pin No Pin Name Pin No Pin Name Pin No Pin Name
1 VSS 53 HLOCK# 105 CAS3# / DQM3# 157 REQ2# 2 AD6 54 M/IO# 106 CAS5# / DQM5# 158 GNTI# 3 AD5 55 CAHCE# 107 CAS1#/DQM1# 159 REQ1# 4 AD4 56 KEN# 108 CAS4# / DQM4# 160 GNT0# 5 AD3 57 AHOLD 109 CAS0# / DQM0# 161 REQ0# 6 AD2 58 SMIACT# 110 CAS6# / DQM6# 162 MGNT# 7 AD1 59 HCLK 111 CAS2# / DQM2# 163 MREQ0# 8 AD0 60 VSS 112 MA0 164 VSS
9 PCLK 61 VDD-cpu 113 MA1 165 VDD 10 VDD-cpu 62 BRDY# 114 VDD-dram 166 MREQ1# 11 CA23 63 NA# 115 MA2 167 AD3l 12 CA21 64 BOFF# 116 MA3 168 AD30 13 CA24 65 EADS# 117 MA4 169 AD29 14 CA27 66 ADS# 118 MA5 170 AD28 15 VSS 67 D/C 119 VSS 171 AD27 16 CA22 68 HITM# 120 MA6 172 AD26 17 CA26 69 W/R 121 MA7 173 AD25 18 CA25 70 A4SEL/CADV# 122 MA8 174 AD24 19 CA28 71 A3SEL/CADS# 123 MA9 175 VSS 20 CA31 72 COE# 124 MA10 176 CBE3# 21 CA3 73 CWE4#/SRASA# 125 MA11 177 AD23 22 CA30 74 CWE5# / SRASB# 126 DGNT# 178 AD22 23 CA29 75 CWE6# / SWEA# 127 PLINK0 179 AD21 24 CA4 76 CWE7# / SWEB# 128 PLINK1 180 AD20 25 CA7 77 TA0 129 PLINK2 181 AD19 26 CA6 78 TA1 130 TLINK3 182 AD18 27 VSS 79 TA2 131 PLINK4 183 VSS 28 CA5 80 TA7 132 PLINK5 184 VDD-pci 29 CA8 81 TA6 133 TLINK6 185 AD17 30 CA11 82 TA5 134 PLINK7 186 AD16 31 CA10 83 VSS 135 MSTB# 187 CBE2# 32 CA16 84 VDD-cpu 136 HSTB# 188 FRAME# 33 CA17 85 TA4 137 CMD0 189 IRDY# 34 CA18 86 TA3 138 CMD1 190 TRDY# 35 CA19 87 TA8 139 CMD2 191 DEVSEL# 36 CA20 88 TA9/DB32 140 CMD3 192 STOP# 37 CA9 89 TWE# 141 CMD4 193 LOCK# 38 VSS 90 CWE0#/GWE# 142 VSS 194 PAR 39 CA12 91 CWE1#/BWE# 143 PLINK8 195 SERR# 40 CA14 92 CWE2# / SCASA# 144 PLINK9 196 CBE1# 41 CA13 93 CWE3# /SCASB# 145 PLINK10 197 AD15 42 CA15 94 CALE/CE1# 146 PLINK11 198 AD14 43 VDD-cpu 95 WE# 147 VDD 199 AD13 44 BE7# 96 VSS 148 PLINK12 200 VSS 45 BE6# 97 VDD-dram 149 PLINK13 201 VDD-pci 46 BE5# 98 RAS2#/CS2# 150 PLINK14 202 AD12 47 BE4# 99 RAS3# /CS3# 151 PLINK15 203 AD11 48 BE3# 100 RAS0#/CS0# 152 PGNT# 204 AD10 49 BE2# 101 RAS1#/XS1# 153 PREQ# 205 AD9 50 BE1# 102 RAS4# 154 GNT3# 206 AD8 51 BE0# 103 RAS5# 155 REQ3# 207 CBE0# 52 RESET# 104 CAS7#/DQM7# 156 GNT2# 208 AD7
— 70 —
Page 72
2. VT82C586
PIN DESCRIPTION
Signal Name Pin No. cpu I/O Signal Description
PCI Bus Interface
PCLK 2 pci I PCI CLOCK: PCLK provides timing for all
transactions on PCI Bus.
FRAME# 181 pci B FRAME: Assertion indicates the address phase of a
PCI transfer. Negation indicates that one more data transfer is desired by the cycle initiator.
AD[3l:0] 204-199, 196- pci B ADDRESS DATA BUS: The standard PCI address
195, 192-189, and data lines. The address is driven with FRAME# 187-185, 183, assertion and data is driven or received in following 172, 170-167, cycles. 165-163, 161-
158, 155-152
C/BE#[3:0] 194, 182, 173, pci B COMMAND, BYTE ENABLE: The command is
162 driven with FRAME# assertion. Byte enables
corresponding to supplied or requested data are driven on following clocks.
IRDY# 180 pci B INITIATOR READY: Asserted when the initiator
is ready for data transfer.
TRDY# 179 pci B TARGET READY: Asserted when the target is
ready for data transfer.
STOP# 176 pci B STOP: Asserted by the target to request the master
to stop the current transaction.
DEVSEL# 178 pci B DEVICE SELECT: VT82C586 asserts this signal to
claim PCI transaction through positive or subtractive decoding.
PAR 174 pci B PARITY: A single parity bit is provided over
AD[31:0] and C/BE[3:0].
SERR# 175 pci I SYSTEM ERROR: SERR# can be pulsed active by
any PCI device that detect a system error condition. Upon sampling SERR# active, the VT82CS86 can be programmed to generate a NMI to the CPU.
IDSEL 193 pci I INITIALIZATION DEVICE SELECT: IDSEL is
used as a chip select during configuration read and write cycles.
PIRQA-D# 1, 207-205 pci I PCI INTERRUPT REQUEST:
PREQ# 151 cpu O PCI REQUEST: This signal go to VT82C585VP.
PREQ# is the VT82C586 request for the PCI bus.
PGNT# I50 cpu I PCI GRANT: This signal driven by the
VT82CS85VP to grant PCI access to VT82C586.
SA[15:0]/ 20-25, 27-28, 5v B SYSTEM ADDRESS BUS/IDE DATA BUS:
DD[15:0] 36-38, 40-44
SA16 19 5v B SYSTEM ADDRESS BUS:
ISA BUS- CONTROL
— 71 —
Page 73
LA23/DCS3B#, 63-67, 69-70 5v B Multifunction Pins: LA22/DCS1B#, ISA Bus Cycles: LA21/DCS3A#, UNLATCHED ADDRESS: The LA[23:17] LA20/DCS1A#, address lines are bi-directional. These address
LA[19:17]/ lines allow accesses to physical memory on ISA
DA[2:0] bus up to 16mbytes.
PCI IDE Cycles: CHIP SELECT: DCSIA# is for the ATA command register block and corresponds to CS1FX# on the primary IDE connector. DCS3A# is for the ATA command register block and corresponds to CS3FX# on the primary IDE connector. DCSIB# is for the ATA command register block and corresponds to CS17X# on the primary IDE connector. DCS3B# is for the ATA command register block and corresponds to CS37X# on the primary IDE connector. DISK ADDRESS: DA[2:O] are used to indicate which byte in either the ATA command block or control block is being access.
SD[15:8] 86-85, 83-80, 5v B SYSTEM DATA: SD[15:8] provide the high order
78-77 byte data path for devices residing on the ISA bus.
SBHE# 62 5v B SYSTEM BYTE HIGH ENABLE: SBHE# indicates,
when asserted, that a byte is being transferred on the upper byte (SD[15:8]) of the data bus. SBHE# is negated during refresh cycles.
IOR# 12 5v B I/O READ: IOR# is the command to an ISA I/O slave
device that the slave may drive data on to the ISA data bus.
IOW# 11 5v B I/O WRITE: IOW# is the command to an ISA I/O
slave device that the slave may latch data from the ISA data bus.
MEMR# 123 5v B MEMORY READ: MEMR# is the command to a
memory slave that it may drive data onto the ISA data bus.
MEMW# 124 5v B MEMORY WRITE: MEMW# is the command to a
memory slave that it may latch data from the ISA data bus.
SMEMR# 10 5v O STANDARD MEMORY READ: SMEMR# is the
command to a memory slave, under 1MB, that it may drive data onto the ISA data bus
SMEMW# 9 5v O STANDARD MEMORY WRITE: SMEMW# is the
command to a memory slave, under 1MB, that it may latch data from the ISA data bus.
BALE 35 5v O BUS ADDRESS LATCH ENABLE; BALE is an
active high signal asserted by the VT82586 to indicate that the address(SA[19:0], LA[23:17] and SBHE# signal lines are valid
IOCS16# 125 5v I 16-BIT I/O CHIP SELECT: This signal is driven by
I/O devices on the ISA Bus to indicate that they support 16-bit 1/o bus cycles.
MEMCS16# 76 5v I MEMORY CHIP SELECT 16: ISA slave that are 16
bit memory devices drive this line low to indicate they support 16-bit memory bus cycles.
MASTER# 137 5v I BUS MASTER: Master cycle indicator.
— 72 —
Page 74
IOCHCK# 5 5v I I/O CHANNEL CHECK: When this signal asserted,
it indicates that a parity or an uncorrectable error has occurred for a device or memory on the ISAbus.
IOCHRDY 8 5v I I/O CHANNEL READY: Devices on the ISA Bus
negate IOCHRDY to indicate that additional time (wait states) is required to complete the cycle.
REFRESH# 29 5v B REFRESH: As an output REFRESH# indicates when
a refresh cycle is in progress. As an input REFRESH is driver by 16-bit ISA Bus masters to indicate refresh cycle.
AEN 15 5v O ADDRESS ENABLE: AEN is asserted during DMA
cycles to prevent I/O slaves from misinterpreting DMA cycles as valid I/O cycles.
TC 32 5v O TERMINAL COUNT: The VT82C586 asserts TC to
DMA slaves as a terminal count indicator.
IRQ15, 14, 128-129, 127- 5v I INTERRUPT REQUEST: The IRQ signals provide
[11: 9], [7:3] 126, 61, 71-75 both system board components and ISA Bus I/O
devices with a mechanism for asynchronously interrupting the CPU.
DRQ[7:5], 132, 130, 57, Sv I DMA REQUEST: The DREQ lines are used to
[3:0] 30, 7, 16, 59 request DMA services from VT82C586 DMA
controller.
DACK[7:5], 133, 131,58, 5v O Multifunction Pins:
[3:0] 31, 33, 18, 60 Normal Operation
DMA ACKNOWLEDGE: The DACK output lines indicate that a request for DMA service has been granted. Power-up General purpose inputs
SPKR 134 5v B Multi function pin:
Normal Operation SPEAKER DRIVE: The SPKR signal is the output of counter 2. Power-up strapping 0: IDE fixed I/O base 1: IDE flexible I/O base
CPU Interface
CPURST 142 cpu O CPU RESET: The VT82C586 asserts CPURST to
reset the CPU during power-up.
INTR 145 cpu O CPU Interrupt: INTR is driven by VT82C586 to
signal the CPU that an interrupt request is pending and needs service.
NMI 146 cpu O NON-MASKABLE INTERRUPT: NMI is used to
force a non-maskable interrupt to the CPU. The VT82C586 generate an NMI when either SERR# or IOCHK# is asserted.
INIT 143 cpu O INITIALIZATION: The VT82C586 asserts INIT if
it detects a shut-down special cycle on the PCI bus or if a soft reset is initiated by the register
STPCLK# 148 cpu O STOP CLOCK: STPCLK# is asserted by the
VT82C586 to CPU in response to different Power­Management events.
— 73 —
Page 75
SMI# 149 cpu O SYSTEM MANAGEMENT INTERRUPT: SMI# is
asserted by the VT82C586 to CPU in response to different Power-Management events.
FERR# 141 cpu O NUMERICAL COPROCESSOR ERROR: This
signal is tied to the coprocessor error signal on the CPU.
IGENN# 139 cpu O IGNORE ERROR: This pin is connected to the
ignore error pin on the CPU.
Enhanced IDE Interface
DIORA# 50 5v O DISK I/O READ A: Primary IDE channel drive
read strobe.
DIOWA# 51 5v O DISK I/O WRITE A: Primary IDE channel drive
write strobe.
DIORB# 54 5v O DISK I/O READ B: Secondary IDE channel drive
read strobe.
DIOWB# 55 5v O DISK I/O WRITE B: Secondary IDE channel drive
write strobe.
DRDY# 49 5v I I/O CHANNEL READY: IDE drive ready indicator.
SOE# 56 5v O SYSTEM ADDRESS TRANSCEIVER OUTPUT
ENABLE: This signal controls the output enables of the 245 transceivers that interface the DD[15:0] signals to the SA[15:0]
DREQA 45 5v I DISK DMA REQUEST A: Primary IDE channel
DMA request.
DREQB 46 5v I DISK DMA REQUEST B: IDE channel DMA
request.
DDACK#A 47 5v O DISK DMA ACKNOWLEDGE A: Primary IDE
channel DMA acknowledge.
DDACK#B 48 5v O DISK DMA ACKNOWLEDGE B: Secondary IDE
channel DMA acknowledge. This pin is used as power-up strap option: 0/1: IDE fixed/relocatable I/O address
Reset and Clock
PWRGD 138 5v I POWER GOOD: Connected to the POWERGOOD
signal on Power Supply.
PCIRST# 3 pci O PCI RESET: An active low reset signal for the PCI
bus. The VT82C586 will generate PCIRST# during the power-up or from the control register.
RSTDRV 4 5v O RESET DRIVE: RSTDRV is the reset signal to the
ISA bus.
BCLK 14 5v O BUS CLOCK: ISA bus clock
OSC 6 5v I OSCILLATOR: OSC is the 14.31818 Mhz clock
signal. It is used by the internal 8254
— 74 —
Page 76
XD Interface
XD[7:0] 122-121,119- 5v B X-BUS DATA BUS:
116, 114-113 These pins are used as strap option during the
power-up: XD0: 0/l - Disable/enable internal KBC XD1: 0/l - Disable/enable internal PS/2 Mouse. XD2: 0/l - Disable/enable internal RTC XD3: 0/l - PIA/SIO XD4~XD7: RP13~RP16 for internal KBC
XDIR 112 5v O X-BUS DIRECTION: XIDR# is tied directly to the
direction control of a 74F245 that buffer the X-Bus data and ISA-Bus data.
RTCAS/ 94 5v O Multifunction Pin: PCWE0 Internal RTC disable:
REAL TIME CLOCK ADDRESS STROBE: RTCAS is connected directly to the address strobe input of the external RTC. Internal RTC enable: GENERAL PURPOSE WRITE ENABLE 1: LATCH enable signal to a external 373 for general outputs.
ROMCS# / 135 5v O ROM CHIP SELECT / KEYBOARD
KBCS# CONTROLLER CHIP SELECT: Multi-function pin
Normal Operation ISA memory cycle: Chip-select to the ROM-BIOS ISA I/O cycle: Chip-select to the external keyboard controller. Power-up 0: DACKx by external 137, DACK0 as DACEN, DACK1-7 as EXTSMI 1: DACKx as DACKx
PCWE1 93 5v O GENERAL PURPOSE WRITE ENABLE 1:
LATCH enable signal to a external 373 for general outputs.
Universal Serial Bus Interface
USBDATA0+ 95 usb B USB PORT 0 DATA:
USBDATA0- 96 usb B USB PORT 0 DATA:
USBDATA1+ 97 usb B USB PORT 1 DATA:
USBDATA1- 98 usb B USB PORT 1 DATA:
USBCLK 99 usb I USB CLOCK: Clock input for Universal serial bus
interface
Keyboard Interface
KBCK / 108 5v B Multifunction Pin:
KA20G Internal Keyboard controller enable:
KEYBOARD CLOCK: CLOCK to keyboard interface. Internal Keyboard controller disable: KEYBOARD GATE A20: GATE A20 output from external keyboard controller.
KBDT/ 109 5v B Multifunction Pin:
KBRC# Internal Keyboard controller enable:
KEYBOARD DATA: DATA to keyboard interface. Internal Keyboard controller disable: KEYBOARD RESET: Reset input from external keyboard controller.
— 75 —
Page 77
MSCK / IRQ1 110 5v B Multifunction Pin:
MSDT/ 111 5v B Multifunction Pin:
IRQ12 PS/2 mouse enable:
A20M 147 cpu O A20 MASK: Direct connect A20 mask on CPU.
PS/2 mouse enable: MOUSE CLOCK: CLOCK to PS/2 mouse interface. PS/2 mouse disable and internal KBC disable: INTERRUPT REQUEST 1: IRQ 1 input from external KBC.
MOUSE DATA: DATA to PS/2 mouse interface. PS/2 mouse disable: INTERRUPT REQUEST 12: IRQ 12 input from external KBC
KEYLOCK 106 5v I KEYBOARD LOCK: Keyboard lock signal for
TURBO 107 5v I TURBO: Turbo mode indicator input
On Board PnP
MDRQ[1:0] 89, 91 5v I PLUG AND PLAY DMA REQUEST: DMA
MDACK[1:0] 90, 92 5v O PLUG AND PLAY DMA ACKNOWLEDGE:
MIROQ[1:0] 88, 87 5v I PLUG AND PLAY INTERRUPT REQUEST
Internal RTC
RTCX1 / 104 vbat I Multifunction Pin:
IRQ8# Internal RTC enable:
RTCX2 105 vbat O RTC CRYSTAL OUTPUT: 32.768Khz crystal output
internal keyboard controller
request inputs from non-PNP device to support the PnP function.
DMA acknowledge outputs from non-PNP device to support the PnP function.
Interrupt request inputs from non-PNP device to support the PnP function.
RTC CRYSTAL INPUT: 32.768Khz crystal or oscillator input. Internal RTC disable: INTERRUPT REQUEST 8: IRQ8 input from external KBC
VBAT 102 I RTC BATTERY: BATTERY input for internal RTC
VEXT 103
EXTSM1# 136 5v I EXTERNAL SMI: External input to trigger SMI
VDD 17, 34, 53, 79, 115 5v I power supply of 4.5 to 5.5V.
VDD_PCI 157, 171, 184, 198 pci I PCI voltage, 3.3 or 5v
AVDD 100 usb I USB differential output power source
AGND 101 0v I USB differential output ground
VSS 13, 26, 39, 52, 68, 84, 0v I the ground
120, 140,156, 166,
177,188, 197, 208
VDD_CPU 144 cpu I CPU voltage, 3.3 or 5 volts
Misc.
output to the CPU.
Power and Ground
— 76 —
Page 78
PIN OUT IN NUMERICAL ORDER
Pin No Pin Name Pin No Pin Name Pin No Pin Name Pin No Pin Name
1 PIRQA# 53 VDD 105 RTCX2 157 VDD-pci
2 PCICLK 54 DIORB# 106 KEYLOCK 158 AD4
3 PCIRST# 55 DIOWB# 107 TURBO 159 AD5
4 RSTDRV 56 HSOE# 108 KBCK 160 AD6
5 IOCHCK# 57 DRQ5 109 KBDT 161 AD7
6 OSC 58 DACK5 110 MSCK 162 CBE0#
7 DRQ2 59 DRQ0 111 MSDT 163 AD8
8 IOCHRDY 60 DACK0 112 XDIR 164 AD9
9 SMEMW# 61 IRQ9 113 XD0 165 AD10 10 SMEMR# 62 SBHE 114 XD1 166 VSS 11 IOW# 63 LA23/DCS3B# 115 VDD 167 AD11 12 IOR# 64 LA22/DCS1B# I 16 XD2 168 AD12 13 VSS 65 LA21/DCS3A# 117 XD3 169 AD13 14 BCLK 66 LA20/DCS1A# 118 XD4 170 AD14 15 AEN 67 LA 19/DA2 119 XD5 171 VDD-pci 16 DRQ1 68 VSS 120 VSS 172 AD15 17 VDD 69 LA18/DA1 121 XD6 173 CBE1# 18 DACK1 70 LA17/DA0 122 XD7 174 PAR 19 SA16 71 IRQ7 123 MEMR# 175 SERR# 20 SA15/DD15 72 IRQ6 124 MEMW# 176 STOP# 21 SA14/DD14 73 IRQ5 125 IOCS16# 177 VSS 22 SA13/DD13 74 IRQ4 126 IRQ10 178 DEVSEL# 23 SA12/DD12 75 IRQ3 127 IRQ11 179 TRDY# 24 SA11/DD1 1 76 MEMCS16# 128 IRQ15 180 IRDY# 25 SA10/DD10 77 SD8 129 IRQ14 181 FRAME# 26 VSS 78 SD9 130 DRQ6 182 CBE2# 27 SA9/DD9 79 VDD 131 DACK6 183 AD16 28 SA8/DD8 80 SD10 132 DRQ7 184 VDD-pci 29 REFRESH# 81 SD11 133 DACK7 185 AD17 30 DRQ3 82 SD12 134 SPKR 186 AD18 31 DACK3 83 SD13 135 ROMCS# 187 AD19 32 TC 84 VSS 136 EXTSMI# 188 VSS 33 DACK2 85 SD14 137 MASTER# 189 AD20 34 VDD 86 SD15 138 PWRGD 190 AD21 35 BALE 87 MIRQ0 139 IGNNE# 191 AD22 36 SA7/DD7 88 MIRQ1 140 VSS 192 AD23 37 SA6/DD6 89 MDRQ1 141 FERR# 193 IDSEL 38 SA5/DD5 90 MDACK1 142 CPURST 194 CBE3# 39 VSS 91 MDRQ0 143 INIT 195 AD24 40 SA4/DD4 92 MDACK0 144 VDD-cpu 196 AD25 41 SA3/DD3 93 PCWE1 145 INTR 197 VSS 42 SA2/DD2 94 RTCAS 146 NMI 198 VDD-pci 43 SA1/DD1 95 USBDA TA0+ 147 A20M 199 AD26 44 SA0/DD0 96 USBDATA0- 148 STPCLK# 200 AD27 45 DDRQA 97 USBDATA1+ 149 SM1# 201 AD28 46 DDRQB 98 RTCCS#/USBDAT A1- 150 PGNT# 202 AD29 47 DDACKA# 99 USBCLK 151 PREQ# 203 AD30 48 DDACKB# 100 AVDD 152 AD0 204 AD31 49 HDRDY# 101 AGND 153 AD1 205 PIRQD# 50 DIORA# 102 VBAT 154 AD2 206 PIRQC# 51 DIOWA# 103 VEXT 154 AD3 207 PIRQB# 52 VSS 104 RTCS1/IRQ8# 156 VSS 208 VSS
— 77 —
Page 79
3. VT82C587VP
PIN DESCRIPTION
Signal Name Pin No. cpu I/O Signal Description
CPU Data Port
HD[31:0] 24-17, 14- cpu B HOST DATA: These signals are connected to the
11, 9-2, 99- CPU data bus. The CPU data bus is interleaved
92, 89-86 between the two VT82C587VP for every byte,
effectively creating an even and odd 587VP.
DRAM Data Port
MD[31:0] 78, 74, 69, dram B MEMORY DATA: These signals are connected to
61, 56, 51, the DRAM data bus. The DRAM data bus is 46, 42, 76, interleaved between the two VT82C587VP for every
72 65, 63, byte, effectively creating an even and odd
58, 54 48, VT82C587VP. 44, 80, 75, 71, 62, 57, 52, 47, 43, 77, 73, 68, 64, 60, 55,
49, 45
VT82C585VP Interface
DB32 85 dram I DRAM WIDTH: This is used to control the width
of DRAM
CMD[5:0] 79, 25-29 dram I COMMAND: The buffers in the VT82C587VP are
controlled by 585VP through these command signals.
HSTB# 38 dram I HOST DATA STROBE: Assertion causes data to
be posted in the CPU read buffer
MSTB# 39 dram I MEMORY STROBE: Assertion causes data to be
posted in the DRAM write buffer.
PLINK[7:0] 30-37 dram B PCI LMK: These signals are connected to the PLINK
data bus on the VT82C585VP. This is the data path between VT82C585VP and VT82C587VP. Each VT82C587VP connects to one-byte of the i6-bit bus.
Clock and Misc. Control
HCLK 81 cpu I HOST CLOCK: Primary clock input used to drive
the part.
RESET# 84 cpu I HOST RESET: Primary reset signal for VT82C587VP.
CAS# 83 cpu Connects to DRAM CAS signal. It is sync. with DRAM
CAS. It is recommended to maintain same skew among the 8 CAS of DRAM for Burst EDO operation.
Power and Ground
VDD_DRAM 53, 67 dram I Power supply for DRAM(3.3V or 5V)
VDD 41 dram I Power supply fixed 5V
VDD_CPU 16, 91, 100 cpu I Power supply for the CPU bus
VSS 1, 10, 15, 40, 0v I Ground
50, 59, 66,
70, 79, 90
— 78 —
Page 80
PIN OUT IN NUMERICAL ORDER
Pin No Pin Name Pin No Pin Name Pin No Pin Name Pin No Pin Name
1 VSS 31 PLINK6 51 MD26 81 HCLK 2 HD12 32 PLINK5 52 MD10 82 VSS 3 HD13 33 PLINK4 53 VDD-dram 83 CAS# 4 HD14 34 PLINK3 54 MD18 84 RESET# 5 HD15 35 PLINK2 55 MD2 85 DB32 6 HD16 36 PLINK1 56 MD27 86 HDO 7 HD17 37 PLINK0 57 MD11 87 HD1 8 HD18 38 HSTB# 58 MD19 88 HD2
9 HD19 39 MSTB# 59 VSS 89 HD3 10 VSS 40 VSS 60 MD3 90 VSS 11 HD20 41 VDD-fixed 5V 61 MD28 91 VDD-cpu 12 HD21 42 MD24 62 MD12 92 HD4 13 HD22 43 MD8 63 MD20 93 HD5 14 HD23 44 MD16 64 MD4 94 HD6 15 VSS 45 MD0 65 MD21 95 ND7 16 VDD-cpu 46 MD25 66 VSS 96 HD8 17 HD24 47 MD9 67 VDD-dram 97 HD9 18 HD25 48 MD17 68 MD5 98 HD10 19 HD26 49 MD1 69 MD29 99 HD11 20 HD27 50 VSS 70 VSS 100 VDD-cpu 21 HD28 71 MD13 22 HD29 72 MD22 23 HD30 73 MD6 24 HD31 74 MD30 25 CMD4 75 MD14 26 CMD3 76 MD23 27 CMD2 77 MD7 28 CMD1 78 MD31 29 CMD0 79 CMD5 30 PLINK7 80 MD15
— 79 —
Page 81
ELECTRICAL CHARACTERISTICS
Absolute Maximum Ratings
Parameter Min Max Unit
Ambient operating temperature 0 70 °C
Storage temperature -55 125 °C
Input voltage -0.5 5.5 Voltage
Output voltage (VDD = 5v) -0.5 5.5 Voltage Output voltage (VDD = 3.1 - 3.6V) -0.5 VDD + 0.5 Voltage
Note:
Stress above these listed cause permanent damage to device. Functional operation of this device should be restricted to the conditions described under operating conditions.
DC Characteristics
TA-0-70°C, VDD=5v+/-5%, GND=0V
Symbol Parameter Min Max Unit Condition
VIL Input low voltage -.50 0.8 V VIH Input high voltage 2.0 VDD+0. 5 V
VOL Output low voltage - 0.45 V IOL=4.0mA
VOH Output high voltage 2.4 - V IOH=-1.0mA
IIL Input leakage current - +/-10 uA 0<VIN <V IOZ Tristate leakage current - +/-20 uA O.45<V ICC Power supply current - 80 mA Ibat Battery load current - 0.5 uA 2.5V<Vbat<3.4V
OUT
VDD=0V
DD
< V
DD
— 80 —
Page 82
8-5 PENTIUM® PROCESSOR with MMXTM Technology
ARCHITECTURE OVERVIEW
®
The embedded Pentium
TM
Intel386
, and Intel436TM processor families, and with other Pentium processors. The embedded Pentium
processor family includes the following products.
* Pentium processor * Pentium processor with V oltage Reduction Technology * Pentium processor with MMX technology * Low-Power embedded Pentium processor with MMX technology
The Pentium processor family supports the features of previous Intel Architecture processors, and provides significant enhancements and additions including the following:
Superscalar Architecture
Dynamic Branch Prediction
Pipelined Floating-Point Unit
Improved Instruction Execution T ime
Separate Code and Data Caches
Writeback MESI Protocol in the Data Cache
64-Bit Data Bus
Bus Cycle Pipelining
Address Parity
Internal Parity Checking
Performance Monitoring
IEEE 1149.1 boundary Scan
System Management Mode
Virtual Mode Extensions
Dual processing support
On-chip local APIC device
processor with MMXTM technology is binary compatible with the 8086/88, 80286,
In addition to the features listed above, the Pentium processor with MMX technology offers the following en­hancements over Pentium processor.
®
Support for Intel
MMX technology
Doubled code and data cache size to 16Kbytes each
Inproved branch prediction
Enhanced pipeline
Deeper write buffers
The following feature are supported by the Pentium processor, but these features are not supported by the Pentium processor with MMX technology:
Functional redundancy check and Lock-Step operation.
Support for Intel 82498/82493 and 82497/82492 cache chipset products
Split-line accesses to the code cache
— 81 —
Page 83
PENTIUM® PROCESSOR
PINOUT
Pinout and Pin Discriptions
— 82 —
Page 84
8-6 MN04326TAE SIMM ( Single Inline Memory Module)
Feature: • 72 pin SIMM
• 16M bytes, no parity (4Mx32-bit data width)
• Access time: 60ns
• Single 5.V—0.25V
• EDO
Product & Description:
Name SIMM (Single Inline Memory module) Model MN04326TAE
Contents Pin Assignment
Pin number Signal Pin number Signal
1 Vss 37 NC 2 DQ0 38 NC 3 DQ16 39 Vss 4 DQ1 40 /CE0 5 DQ17 41 /CE2 6 DQ2 42 /CE3 7 DQ18 43 /CE1 8 DQ3 44 /RE0
9 DQ19 45 /RE1 10 Vcc 46 NC 11 NC 47 /W 12 A0 48 NC 13 A1 49 DQ8 14 A2 50 DQ24 15 A3 51 DQ9 16 A4 52 DQ25 17 A5 53 DQ10 18 A6 54 DQ26 19 NC 55 DQ11 20 DQ4 56 DQ27 21 DQ20 57 DQ12 22 DQ5 58 DQ28 23 DQ21 59 Vcc 24 DQ6 60 DQ29 25 DQ22 61 DQ13 26 DQ7 62 DQ30 27 DQ23 63 DQ14 28 A7 64 DQ31 29 NC 65 DQ15 30 Vcc 66 NC 31 A8 67 NC 32 A9 68 NC 33 /RE3 69 Vcc 34 /RE2 70 NC 35 NC 71 NC 36 NC 72 Vss
— 83 —
Page 85
8-7 Power Supply (100W)
The power supply used in the MP-2000 is a 100W open frame power supply. The specifications and features of this special power supply are listed in the following sections.
Specifications
High efficiency 100W output
Universal input 90 to 264 VAC
Overvoltage protection
Small size 3" X 5" X 1.0” footprint
Continuous short circuit protection
Conductive EMI meets FCC & CISPR class B
Output Specifications
• Voltage Accuracy: +5.1VDC output ±2% +12.25VDC output ±5%
• Output Power 100W, continuous
• Hold-up time 10ms at full load, 115VAC
• Output protection Overvoltage and short circuit protection
• Turn -on Delay 5 seconds Max at 120VAC
• Ripple and noise 50mV on 5V, from 100mV to 150mV on12V,15V,24V outputs
Input Specifications
• Input voltage range 90~264 VDC
• Input frequency 47~63 Hz
• Efficiency Greater than 80%
— 84 —
Page 86
9. Circuit Diagram
Page
1. Mother Board SBC8352 (CPU)1/16 ............................................................................... 86
2. Mother Board SBC8352 (VT82C585VPX/VT82C586B)2/16 ......................................... 87
3. Mother Board SBC8352 (VT82C587VP)3/16................................................................. 88
4. Mother Board SBC8352 (CACHE)4/16 .......................................................................... 89
5. Mother Board SBC8352 (DRAM)5/16............................................................................ 90
6. Mother Board SBC8352 (IDE)6/16................................................................................. 91
7. Mother Board SBC8352 (EISA/PC104 SLOT)7/16........................................................ 92
8. Mother Board SBC8352 (XIO/USB)8/16........................................................................ 93
9. Mother Board SBC8352 (ALI5113 Super I/O)9/16........................................................ 94
10. Mother Board SBC8352 (CLOCK BUFFER)10/16 ........................................................ 95
11. Mother Board SBC8352 (Power)11/16 .......................................................................... 96
12. Mother Board SBC8352 (10 BSAE/T ETHERNET)12/16 .............................................. 97
13. Mother Board SBC8352 (SERIAL PORT INTERFACE)13/16 ....................................... 98
14. Mother Board SBC8352 (DK65550PCI)14/16 ............................................................... 99
15. Mother Board SBC8352 (VIDEO RAM)15/16 .............................................................. 100
16. Mother Board SBC8352 (DK65550PCI)16/16 ............................................................. 101
17. Multi I/O port circuit EBL-0453(3) ................................................................................ 102
18. Drawer drive circuit EBL-0453(5)................................................................................. 103
19. Riser card (MP-2000) .................................................................................................... 104
20. LCD control board (LVDS Board OPTION ITEM) ........................................................ 105
— 85 —
Page 87
Pentium Mother Board
1. Mother Board SBC8352 (CPU)1/16
A3
A5A6A7A8A11
A10
A17
A18
A13
A14
A15
A5A6A7A8A11
A10
A17
A18
A13
A14
AA11
AA8
AM32
AA10
RN22
AA9
AK30
AA17
22X4
AA10
AN31
A10
AA18
AA11
AL31
A11
AA13
AA12
AL29
A12
AA14
RN18
AA13
AK28
A13
A15
AA15
22X4
AA14
AL27
A14
246824681357246
135713572468135
AA5
AA6
AA7
AA8
RN17
22X4
AA3
AA4
AA5
AA6
AA7
AL35
AM34
AK32
AN33
AL33
A3A4A5A6A7A8A9
A16
A16
AA16
AA15
AK26
A15
A19
A19
AA19
AA16
AL25
A16
A20A9A12
A20A9A12
AA20
AA9
RN23
22X4
AA17
AA18
AK24
AL23
A17
A18
8
7
AA12
AA19
AK22
A19
AA20
AL21
A20
A21
A21
AF34
A21
A3 22
R159
AA3
A22
A22
AH36
A22
A4
A4 22
R155
AA4
A23
AE33
A23
A23
A24
A24
AG35
A24
A25
A25
AJ35
A25
A26
AH34
VCC3
0 -C
109876
RN15
12345
-AD5
H_-R
A26
A27
A28
A27
A28
A29
AG33
AK36
AK34
A26
A27
A28
AP
H8 -WT
-SMIACT
-BUSCHK
-SMI
VCC3
A29
A30
A31
A30
A31
AM36
AJ33
A29
A30
A31
4K7X8
AM2
ADSC
]
0, 7
[
-BE
-BE0
AL9
-BE
BE0
]
0, 7
[
-BE1
AK10
BE1
-BE2
AL11
BE2
109876
RN13
12345
M_IO
-BE3
-BE4
AK12
AL13
BE3
VCC3
-BOFF
-CACHE
-BE5
AK14
BE4
BE5
-NA
-KEN
-BE6
AL15
BE6
-BRDY
-BE7
AK16
BE7
-OPEN
VCC3
4K7X8
-FERR
-FERR
Q5
AJ1
FERR
R164
AHOLD
-HITM
AL5
HITH
BREQ
-HITM
AK6
HIT
4.7K
AF4
R167
PCHK
4.7K
APICEN
APICEN
AP
AJ3
AK2
AP
HLDA
R170
2.2K
-HLOCK
-HLOCK
AH4
AE5
LOCK
APCHK
-EHBE
AC5
AG5
PCD
PRDY//N
AL3
PWT
-CACHE
-CACHE
-ADS D W
U3
AJ5
CACHE
VCC3
864
RN14
753
-STPCLK
-C-R-IO
-ADS D W
-C-R-I0
AK4
D_C
ADS
AM6
FRC
W_R
-PEN
M
M
T4
M_YO
2
4K7X8
1
-UPVRM
FRC
AL17
Y35P4AG3
SCYC
FRCMC//IBC
4K7
R172
PICCLK
-SMIACT
-SMIACT
Q3R4S3S5M34
IERR//N
SMIACT
PM0_BP0//PMON0
J1
123
4
+12VVCC
N33
N35
P34
TD0
TD1
TCK
BP3//LBA
BP2//PMC
PM1_BP1//PMON1
BOX HEADER 1X4
PICCLK
-OPEN
Q33
H34
J33
TM5
TRST
PICCLK//N
2/5
BUS/CORE RATI0
BF1
CLOSED
FOR CPU FAN
BF0
CLOSED
1
APICEN
BF1
L35
AC3
AA3
AD4
AE3
X34
PBGNT//N
PBREQ//N
PHIT//EXC
PHITM//MPHITM
OPEN_PICD0//MP
APICEN_PICD1//N
1/3
1/2
OPEN
CLOSED
CLOSED
OPEN
3
BF0
Y33
//BF1
BF0//N
2/3
VCC3
OPEN
OPEN
HEADER 2X2
AE35
Q35
U_O/N/N
CPUTYP/N/N
4.7K
4.7K
R4R1R5
BF0
BF1
R34
S35
AN35
S33
N//TEST
N//BHOLD
N//DHOLD
4.7K
BF2
AL19
AJ15
N//N
N//CHOLD
N//MPBOFF
-UPVRM
AL1
AH32
N////UPVRM
GND///VCC2DET
D0D1D2D3D4D5D6D7D8D9D10
U3
K34
G35
J35
G33
F36
F34
D0D1D2D3D4D5D6D7D8D9D10
D0D1D2D3D4D5D6D7D8D9D10
E35
E33
D34
C37
C35
B36
D11
D11
D11
D32
D12
D12
D12
B34
D13
D13
D13
C33
D14
D14
D14
A35
D15
D15
D15
B32
D16
D16
D16
C31
D17
D17
D17
A33
D18
D18
D18
D28
D19
D19
D19
B30
D20
D20
D20
C29
D21
D21
D21
A31
D22
D22
D22
D26
D23
D23
D23
C27
D24
D24
D24
C23
D25
D25
D24
D26
D25
D26
D26
C21
D27
D27
D27
D22
D28
D28
D28
C19
D29
D29
D29
D20
D30
D30
D31
D32
D33
D34
D35
D36
D37
D38
D39
D40
D41
D42
D43
D44
D45
D46
D47
D48
D49
C17
C15
D16
C13
D14
C11
D12C9D10D8A5E9B4D6C5E7C3D4E5D2F4E3G5E1G3H4J3J5K4L5L3M4N3
D31
D32
D33
D34
D35
D36
D37
D38
D39
D40
D41
D42
D43
D44
D45
D46
D47
D48
D49
D30
D31
D32
D33
D34
D35
D36
D37
D38
D39
D40
D41
D42
D43
D44
D45
D46
D47
D48
— 86 —
D49
D50
D50
D50
D51
D51
D51
D52
D52
D52
D53
D53
D53
D54
D54
D54
D55
D55
D55
D56
D56
D56
D57
D57
D57
D58
D58
D58
D59
D59
D59
D60
D60
D60
D61
D61
D61
D62
D62
D62
D63
D63
D63
D36
DP0
DP1
D30
DP2
DP3
DP4
C25
D18C7F6F2N5
DP5
DP6
DP7
CLK
BOFF
A20M
AK19Z4AK8
CPUCLK
-BOFF
A20M
-B0FF
-A20M
CPUCLK
INTR_LINT0
NMI_LINT1
IGNNE
KEN
FLUSH
AD34
AC33
AA35W5AN7V4AN4X4AK20U5Y5
INTR
NMI
-IGNNE
-KEN
-SMI
AHOLD
NMI
INTR
-KEN
-IGNNE
AHOLD
EADS
BRDY
RESET
INVNABUSCHK//QDUMP
-EADS
-BRDY
CPURST
-KEN
-NA
AHOLD
-EADS
-BRDY CPURST
WB_WT//MPSH
INIT
AL7
AA5
AA33
AB34
-BUSCHK
WB -WT
CPUINIT
-SMI
-NA
CPUINIT
SKI
-SMI
R S//N
AC35
Z34
-PEN
PEN//N
STPCLK//SUSP
HOLD
EWBE
BRDYC
Y3
V34
AB4
W3
R163
-STPCKL
-EWBE
-STPCLK
PENTIUM P54C/P55C
330
VCC3
Page 88
2. Mother Board SBC 8352 (VT82C585VPX/VT82C586B)2/16
A3A4A5A6A7A8A9
A10
A11
A12
A13
A14
A15
A16
A17
A18
A19
A20
A21
A22
A23
A24
A25
A26
A27
A28
A29
A30
A31
2124282625293731303941404232333435361216111318171419232220
A3A4A5A6A7A8A9
A10
A11
A12
A13
A14
A15
A16
A17
A18
A19
A20
A21
A22
A23
A24
A25
A26
A27
A28
A29
A30
A31
AD0
AD1
AD2
AD3
AD4
AD5
AD6
AD7
AD8
AD9
AD10
AD11
AD12
AD13
AD14
AD15
AD16
AD17
AD18
AD19
AD20
AD21
AD22
AD23
AD24
AD25
AD26
AD27
AD28
AD29
AD30
AD31
AD0
AD1
AD2
AD3
AD4
AD5
AD6
AD7
AD8
AD9
AD10
AD11
AD12
AD13
AD14
AD15
AD16
AD17
AD18
AD19
AD20
AD21
AD22
AD23
AD24
AD25
AD26
AD27
AD28
AD29
AD30
AD31
8765432
208
206
205
204
203
202
199
198
197
186
185
182
181
180
179
178
177
174
173
172
171
170
169
168
167
A D0
A D1
A D2
A D3
A D4
A D5
A D6
A D7
A D8
A D9
A D10
A D11
A D12
A D13
A D14
A D15
A D16
A D17
A D18
A D19
A D20
A D21
A D22
A D23
A D24
A D25
A D26
A D27
A D28
A D29
A D30
A D31
A D0
A D1
A D2
A D3
A D4
A D5
A D6
A D7
A D8
A D9
A D10
A D11
A D12
A D13
A D14
A D15
A D16
A D17
A D18
A D19
A D20
A D21
A D22
A D23
A D24
A D25
A D26
A D27
A D28
A D29
A D30
A D31
A D0
A D1
A D2
A D3
A D4
A D5
A D6
A D7
A D8
A D9
A3A4A5A6A7A8A9
A10
A11
A12
A13
A14
A15
A16
A17
A18
A19
A20
A21
A22
A23
A24
A25
A26
A27
A28
A29
A30
A31
-BE0
-BE1
-BE2
-BE3
-BE4
-BE5
-BE6
-BE7
-RRA50
-RRA51
RA50/CS0
RA51/CS1
RA52/CS2
RA53/CS3
RA54
RA55
CA50/DQM0
CA51/DQM1
CA52/DQM2
CA53/DQM3
CA54/DQM4
CA55/DQM5
CA56/DQM6
CA57/DQM7
MA0
MA1
MA2
MA3
MA4
MA5
MA6
MA7
MA8
MA9
MA10
MA11
MA12WECBOE0
A3SE0/CADS
A3SQL1/CADV
CALE/CE1
CWE0/GWE
CWE1/BWE
CWE2/SCASA
CWE3/SCASB
CWE4/SRASA
CWE5/SRASB
CWE6/SWEA
CWE7/SWEB
HCLK
PCLK
-RCA50
-RCA51
-RCA52
-RCA53
-RCA54
-RCA55
-RCA56
-RCA57
MA0
MA1
MA2
MA3
MA4
MA5
MA6
MA7
MA8
MA9
MA10
MA11
MA12
-WE
-COE0
-CADS
-CADV
-CEI
-CWE
-SWE
MA10
MA11
MA12
-WE
-COE0
-CADS
-CADV
MA0
MA1
MA2
MA3
MA4
MA5
MA6
MA7
MA8
MA9
-RCA50
-RCA51
-RCA52
-RCA53
-RCA54
-RCA55
-RCA56
-RCA57
-BE0
-BE1
-BE2
-BE3
-BE4
-BE5
-BE6
-BE7
AD5
M/IO
D/C
H/R
BRDY
HLOCK
KEN/INV
CACHE
HITM
AHOLD
BOFF
EAD5
SMIACT
NA
-BE0
-BE1
-BE2
-BE3
-BE4
-BE5
-BE6
-BE7
-AD5 M D W-BRDY
-HLOCK
-KEN
-CACHE
-HITM
AHOLD
-BOFF
-EADS
-SMIACT
-NA
51504948474645
44
66546769625356556857646558
63
100
101
98
99
102
103
109
107
111
105
108
106
110
104
112
113
115
116
117
118
120
121
122
123
124
125
126
95727170949091929373747576
59
9
-IO-C-R
-CEI
-CWE
-SWE
PMCHCLK
PMCPCLK
1043618497
114
VCC3
VCC3
PMCHCLK
VCC
VDD_CPU
VDD_CPU
VDD_CPU
VDD_CPU
VDD_DRAM
VDD_DRAM
C -BE0
C -BE1
C -BE2
C -BE3
C -BE0
C -BE1
C -BE2
C -BE3
C -BE0
C -BE1
C -BE2
C -BE3
162
173
182
194
152
153
154
155
158
159
160
161
163
164
165
167
168
169
170
172
183
185
186
187
189
190
191
192
195
196
199
200
201
202
203
204
-REQ0
-REQ1
-REQ2
-REQ3
-REQ0
-REQ1
-REQ2
-REQ3
-GNT0
-GNT1
-GNT2
-GNT3
-GNT0
-GNT1
-GNT2
-GNT3
PAR
-SERR
-PREQ
-PGNT
PAR
-SERR
-PREQ
-PGNT
PLINK0
PLINK1
PLINK2
PLINK3
PLINK4
PLINK5
PLINK6
PLINK7
PLINK8
PLINK9
PLINK10
PLINK11
PLINK12
PLINK13
PLINK14
PLINK15
PLINK0
PLINK1
PLINK2
PLINK3
PLINK4
PLINK5
PLINK6
PLINK7
PLINK8
PLINK9
PLINK10
PLINK11
PLINK12
PLINK13
PLINK14
PLINK15
-MSTB
-MSTB
CMD0
CMD1
CMD2
CMD3
CMD4
-MSTB
-HSTB
CMD0
CMD1
CMD2
CMD3
CMD4
-DRST
TA0
TA1
TA2
TA3
TA4
TA5
TA6
TA7
CPURST
DB32
RSET
-DRST
-TWE
TA0
TA1
TA2
TA3
TA4
TA5
TA6
TA7
CPURST
DB32
C/BE0
C/BE1
C/BE2
C/BE3
C/BE0
C/BE1
C/BE2
C/BE3
207
196
187
176
188
191
189
190
192
193
161
159
157
155
160
158
156
154
194
195
153
152
135
136
137
138
139
140
141
5289777879868582818087
88
163
166
162
127
128
129
130
131
132
133
134
143
144
145
146
148
149
150
151
-FRAME
-DEVSEL
-IRDY
-TRDY
-STOP
-PLOCK
-FRAME
-TRDY
-IRDY
-DEVSEL
A D18
-STOP
-SERR
PAR
-PCIRST
-INTR A
-INTR B
-INTR C
-INTR D
FRAME
TRDY
IRDY
DEVSEL
IDSEL
STOP
SERR
PAR
PCIRST
PIRQA
PIRQB
PIRQC
PIRQD
-FRAME
-DEVSEL
-IRDY
-TRDY
-STOP
-PLOCK
VDD
VDD
VDD_PCI
VDD_PCI
147
165
184
201
C5
10P
R35
N/F
VCC
RESET
TWE
TA0
TA1
TA2
TA3
TA4
TA5
TA6
TA7
TAB/RN
TA9/DB32
MREQ0
MREQ1
MGNT
FRAME
DEVSEL
IRDY
TRDY
STOP
LOCK
REQ0
REQ1
REQ2
REQ3
GNT0
GNT1
GNT2
GNT3
PAR
SERR
PREQ
PGNT
PLINK0
PLINK1
PLINK2
PLINK3
PLINK4
PLINK5
PLINK6
PLINK7
PLINK8
PLINK9
PLINK10
PLINK11
PLINK12
PLINK13
PLINK14
PLINK15
MSTB
HSTB
CMD0
CMD1
CMD2
CMD3
CMD4
147
165
184
201
1
1527386083
96
119
142
164
175
183
200
VDD GND
VDD _CPU
VDD _DRAM
1043618497
114
181
179
190
178
193
176
175
174
3
1
207
206
205
151
150
9192899088
87
149
148
136
143
145
146
141
139
555451504546474849
56
112
135
108
109
147
107
104
105
106
138
142
14
6
2
103
102
134
-PREQ
-PGNT
PDRQ0
-DRDYB
PIRQ1
PIRQ0
-SMI
-STPCLK
-EXTSMI
CPUINIT
INTR
NMI
-FERR
-IGNNE
-XDIOWA
-XDIORA
DDRQA
DDRQB
-DRDY
-SOE
XDIR
-ROMKBCS
KB CLK
KB DATA
-A20M
TURBO
-KB LOCK
PW GOOD
RSET
R169 33
R89
R47
33
0
BCLK
SIO OSC
SIOPCLK
SPEAK
SPEAK
A D10
A D11
A D12
A D13
A D14
A D15
A D16
A D17
A D18
A D19
A D20
A D21
A D22
A D23
A D24
A D25
A D26
A D27
A D28
A D29
A D30
A D31
SIO OSC
SIOPCLK
BCLK
-KB LOCK
PW GOOD
TURBO
IRQB-
-A20M
-ROMKBCS
KB CLK
KB DATA
-SOE
XDIR
-DRDY
DDACKA
-XDIOWA
-XDIORA
DDRQA
-IGNNE
-FERR
NMI
INTR
CPUINIT
-EXTSMI
-STPCLK
-SMI
-DRDYB
-PREQ
-PGNT
-INTR A
-INTR B
-INTR C
-INTR D
-PCIRST
PAR
-SERR
-FRAME
-TRDY
-IRDY
-DEVSEL
A D18
-STOP
PREQ
PGNT
MDRQ0
MDAK0
MDRQ1
MDACK1
MIRQ1
MIRQ0
SMI
STPCLK
EXTSMI
INIT
INTR
NMI
FERR
IGNNE
DIOWB
DIORB
DIOHA
DIORA
DREQA
DREQB
DDACKA
DDACKB
DRDY
SOE
XDIR
ROMCS/KBCS
DBCK/KA20G
KBDI/KBRC
A20H
TURBO
RTCX1/IRQB
RTCX2
KEYLOCK
PWRGD
CPURST
BCLK
OSC
PCICLKI
VEXT
VBAT
SPKR
4443424140383736282725242322212019706967666564639394999798
100
1019596
113
114
116
117
118
119
121
1227778808182838586
110757473727161
126
127
111
129
128591673057130
1326018333158131
13362322915351211123
124109
12576137584144
DD0
DD1
DD2
DD3
DD4
DD5
DD6
DD7
DD8
DD9
DD10
DD11
DD12
DD13
DD14
DD15
SA16
SA17
SA18
SA19
SA20
SA21
SA22
SA23
DD0
DD1
DD2
DD3
DD4
DD5
DD6
DD7
DD8
DD9
DD10
DD11
DD12
DD13
DD14
DD15
SA16
SA17
SA18
SA19
SA20
SA21
SA22
SA23
USBCLK
USBDAT 1+
-RTCCS
USBDATO+
USBDATO-
USBDATO+
USBDATO-
XD0
XD1
XD2
XD3
XD4
XD5
XD6
XD7
SD8
SD9
SD10
SD11
SD12
SD13
SD14
SD15
MS CLK
MS CLK
IRQ3
IRQ4
IRQ5
IRQ6
IRQ7
IRQ9
IRQ10
IRQ11
IRQ14
IRQ15
DREQ0
DREQ1
DREQ2
DREQ3
DREQ5
DREQ6
DREQ7
-DACK0
-DACK1
-DACK2
-DACK3
-DACK5
-DACK6
-DACK7
-SBHE
RTC
-REFRESH
RAEN
RBALE
-RIOR
-RIOW
-RMEMR
-RMEMW
-RSHEMR
-RSHEMW
-IOCS16
-MEMCS16
-MASTER
-IOCHCK
IOCHRDY
SIO RES
-MASTER
-IOCHCK
IOCHRDY
SIO RES
-MEMCS16
-IOCS16
-RSMEMR
-RSMMW
-RMEMR
-RMEMW
-RIOR
-RIOW
RBALE
RAEN
-REFRESH
RTC
-SBHE
DREQ0
DREQ1
DREQ2
DREQ3
DREQ5
DREQ6
DREQ7
-DACK0
-DACK1
-DACK2
-DACK3
-DACK5
-DACK6
-DACK7
MS DATA
IRQ14
IRQ15
IRQ10
IRQ11
IRQ9
IRQ3
IRQ4
IRQ5
IRQ6
IRQ7
XD0
XD1
XD2
XD3
XD4
XD5
XD6
XD7
SD8
SD9
SD10
SD11
SD12
SD13
SD14
SD15
C39
1OU
C37
D
1U
FB
FB1
VCC
-RTCCS
RTCAS
-OWS
R85
N/F
USBCLK
753
1
864
2
VCC
PDRQO
R45
4.7K
4.7KX4
RN37
-RTCC5
R36
N/F
VCC3
C160
.1U
DDRQA
R60
DDRQB
R59
5.6K
5.6K
-RTCC5
USBDAT1+
USBDAT0+
USBDAT0-
R128
R39
R44
R40
150K
150K
150K
150K
-AD5 M -IO
D -C
W -R
-BRDY
-HLOCK
-KEN
-CACHE
-HITM
AHOLD
-BOFF
-EADS
-SMIACT
-NA
-RRA50
-RRA51
VCC3
R156
2.2K
-HLOCK
DD0/SA0
DD1/SA1
DD2/SA2
DD3/SA3
DD4/SA4
DD5/SA5
DD6/SA6
DD7/SA7
DD8/SA8
DD9/SA9
DD10/SA10
DD11/SA11
DD12/SA12
DD13/SA13
DD14/SA14
DD15/SA15
SA16
DA0/LA17
DA1/LA18
DA2/LA19
DCS1A/LA20
DCS3A/LA21
DCS1B/LA22
DCS3B/LA23
PCWE1
RTCCAS/PCWE0
-OWS/USBCLK USBDAT1+/GPI2
USBDAT1-/RTCCS
AVDD
AGND
USBDAT0+/GPI00
USBDAT0-/GPI01
XD0
XD1
XD2
XD3
XD4
XD5
XD6
XD7
PD0/SD8
PD1/SD9
PD2/SD10
PD3/SD11
PD4/SD12
PD5/SD13
PD6/SD14
PD7/SD15
MSCK/IRQ1
IRQ3
IRQ4
IRQ5
IRQ6
IRQ7
IRQ9
IRQ10
IRQ11
MSDT/IRQ12
IRQ14
IRQ15
DRQ0
DRQ1
DRQ2
DRQ3
DRQ5
DRQ6
DRQ7
DACK0
DACK1
DACK2
DACK3
DACK5
DACK6
DACK7
SBHE
TC
REFRESH
AEN
BALE
IOR
IOW
MEMR
MEMW
SMEMR
SMEMW
IOCS16
MEMCS16
MASTER
IOCHK
IOCHROY
RSTDRV
VDD_CPU
VT82C586B
VT82C585VPX
173453
79
115
157
171
184
198
1326395268
84
120
140
156
166
177
188
197
208
VCC GND
144
VCC3
U8
U12
— 87 —
Page 89
3. Mother Board SBC 8352 (VT82C587VP)3/16
MD0
MD1
MD2
MD3
MD4
MD5
MD6
MD7
MD8
MD9
MD10
MD11
MD12
MD13
MD14
MD15
MD16
MD17
MD18
MD19
MD20
MD21
MD22
MD23
MD24
MD25
MD26
MD27
MD28
MD29
MD30
MD31
PLINK8
PLINK9
PLINK8
PLINK9
PLINK10
PLINK11
PLINK10
PLINK11
PLINK12
PLINK12
PLINK13
PLINK14
PLINK13
PLINK14
PLINK15
PLINK15
VCC3
VCC
454955606468737743475257627175804448545863657276424651566169747837363534333231
MD0
MD1
MD2
MD3
MD4
MD5
MD6
MD7
MD8
MD9
MD10
MD11
MD12
MD13
MD14
MD15
MD16
MD17
MD18
MD19
MD20
MD21
MD22
MD23
MD24
MD25
MD26
MD27
MD28
MD29
MD30
MD31
PLINK0
1
101540505966708290
GND
53
ODD
U1
HD0
HD1
HD2
HD3
HD4
8687888992939495969798
D8D9D10
D11
D12
D13
D[0, 63] MD[0, 63]
MD[0..63]
HD5
41
16
HD10
HD11
HD12
HD13
2345678
99
D27
D28
D29
D30
VCC3
HD14
D31
HD15
D40
91
HD16
D41
100
HD17
D42
HD18
9
D43
VCC
HD6
HD7
HD8
HD9
D14
D15
D24
D25
D26
67
VCC_DRAM
HD19
HD20
HD21
HD22
HD23
HD24
HD25
HD26
HD27
1112131417181920212223
D44
D45
D46
D47
D56
D57
D58
D59
D60
HD28
D61
HD29
D62
HD30
24
D63
HD31
MSTB
393829282726257985
-MSTB
-HSTB
PLINK1
PLINK2
HSTB
CMD0
PLINK3
PLINK4
CMD0
CMD1
CMD1
CMD2
PLINK5
PLINK6
CMD2
CMD3
CMD3
30
PLINK7
CMD4
CMD4
CMD5
16911005367
VCC3
VCC3
CMD5
DB32
HCLK
81
DB32
DBXCLK
41
VCC3
VCC_DRAM
VCC_DRAM
CAS
RESET
83
84
-587CAS1
RESET
-587CAS1
VCC
VT82C587VP
VCC
R175
CMD5
47K
VCC
MD[0..63]
MD0
MD1
MD2
MD3
MD4
MD5
MD6
MD7
MD8
MD9
MD10
MD11
MD12
MD13
MD14
MD15
MD16
MD17
MD18
MD19
MD20
MD21
MD22
MD23
MD24
MD25
MD26
MD27
MD28
MD29
R175
47K
454955606468737743475257627175804448545863657276424651566169747837363534333231
MD0
MD1
MD2
MD3
MD4
MD5
MD6
MD7
MD8
MD9
MD10
MD11
MD12
MD13
MD14
MD15
MD16
MD17
MD18
MD19
MD20
MD21
MD22
MD23
MD24
MD25
MD26
MD27
MD28
MD29
1
101540505966708290
GND
53
EVEN
HD0
HD1
HD2
HD3
HD4
HD5
U2
8687888992939495969798
D0D1D2D3D4D5D6D7D16
DC[0..63]
D[0..63]
HD6
HD7
DBX DBX
HD8
D17
HD9
VCC
D18
41
HD10
99
D19
HD11
VCC3
HD12
HD13
HD14
HD15
HD16
2345678
D20
D21
D22
D23
D32
16
D33
91
HD17
D34
100
HD18
9
D35
HD19
67
VCC_DRAM
HD20
HD21
HD22
HD23
HD24
HD25
HD26
HD27
HD28
HD29
111213141718192021222324393829282726257985
D36
D37
D38
D39
D48
D49
D50
D51
D52
D53
MD30
MD30
HD30
D54
MD31
MD31
HD31
D55
PLINK0
PLINK0
PLINK1
PLINK0
MSTB
-MSTB
-HSTB
-MSTB
PLINK1
PLINK2
PLINK2
PLINK3
PLINK1
PLINK2
HSTB
CMD0
-HSTB
PLINK3
PLINK4
PLINK4
PLINK3
PLINK4
CMD0
CMD1
CMD1
CMD0
CMD1
PLINK5
PLINK6
PLINK5
PLINK6
PLINK5
PLINK6
CMD2
CMD3
CMD2
CMD3
CMD2
CMD3
PLINK7
PLINK7
30
PLINK7
CMD4
CMD5
CMD4
CMD5
CMD4
VCC3VCC3
16911005367
VCC3
VCC3
VCC3
DB32
HCLK
83
81
-587CAS0
DB32
DBXCLK
DB32
DBXCLK
VCC
41
VCC
VCC_DRAM
VCC_DRAM
CAS
RESET
84
-DRST
-DRST
-587CAS0
VT82C587VP
4.7K
4.7K
4.7K
R168
R166
R165
PLINK0
PLINK5
PLINK13
(EN/DI5 32-BIT DRAM)
(0 / 1)
— 88 —
Page 90
4. Mother Board SBC 8352 (CACHE)4/16
D55
D54
D53
D52
D51
D50
525356575859626368697273747578
D0D1D2D3D4D5D6D7D8
GND5101721264055606771
A0A1A2A3A4A5A6A7A8A9A10
3736353433
32
A3A4A5A6A7A8A9
D63
D62
D61
D60
D59
D58
525356575859626368697273747578
D0D1D2D3D4D5D6D7D8
D[0..63]
GND5101721264055606771
D49
D48
D39
D38
D37
D36
D35
D9
D10
D11
D12
A11
A12
998281484746454449
100
A10
A11
A12
A13
A14
A15
D57
D56
D47
D46
D45
D44
D43
D9
D10
D11
D12
D34
D33
D32
D23
D22
D21
D20
D19
D18
D17
23678
9
90
A16
90
D42
D13
A13
D13
A17
D41
D14
A14
D14
79
D15
A15
A18
D40
79
D15
121318192223242528
D16
D17
D18
D19
D20
D21
CLK
ADSC
ADSP
ADVDEGWE/ZZ/N
898584838688879394959698979231
SRCLK2
-CADS
-ADS
-CADV
-C0E0
-GWE
D31
D30
D29
D28
D27
D26
D25
23678
9
121318192223242528
D16
D17
D18
D19
D20
D21
D16D7D6D5D4D3D2D1D0
D22
D23
D24
D25
D26
D27
D28
D29
BWE/N/PDIS
BW0
BW1
BW2
BW3
CE1
CE2
-BWE
-BE6
-BE4
-BE2
-BE0
-CE1
-ECS2
-BE6
-BE4
-BE2
-BE0
D24
D15
D14
D13
D12
D11
D10D9D8
D22
D23
D24
D25
D26
D27
D28
D29
29
66504342393816
NCNCNCNCNCNCNC
D30
D31
CE2
NC,LB0
VCC
VCC
VCC
VCC
9177706561544127201511
MODE
VCC3VCC3
29
66504342393816
NCNCNCNCNCNCNC
D30
D31
VCC
VCC
VCC
VCC3
VCC
VCC3
VCC
641451
NC,ZZ
NC,FT
VCC
VCC
4
641451
NC,ZZ
NC,FT
80130
N/N/DQP0
N/N/DQP1
VCC
80130
N/N/DQP0
N/N/DQP1
N/N/DQP0
N/N/DQU2
SYNC_RAM_64K32
N/N/DQP0
N/N/DQU2
MODE
D[0..63]
U4 U5
A0A1A2A3A4A5A6A7A8A9A10
3736353433
A3A4A5A6A7A8A9
A[3..8]
A[3..8]
32
998281484746454449
100
A10
A11
TA7 TA6 TA5 TA4 TA3 TA2 TA1 TA011
TA[0..7]
TA[0..7]
A11
A12
A13
A12
A13
A14
A15
A16
A17
1
9
D
7
1
8
D
6
1
7
D
5
1
6
D
4
1
5
D
3
1
3
D
2
1
2
D
1
D
0
A0A1A2A3A4A5A6A7A8A9A10
10
A5A6A7A8A9
A14
A15
CLK
ADSC
ADSP
ADVDEGWE/ZZ/N
BWE/N/PDIS
BW0
898584838688879394959698979231
SRCLK2
-CADS
-ADS
-CADV
-C0E0
-GWE
-BWE
-BE7
-ADS
-CADS
A10
A11
-CADV
-C0E0
252421
A12
A13
-GWE
-BWE
A14
A15
-BE5
-BE7
A11
23226
A16
A18
SRCLK2
9876543
BW1
-BE5
A17
BW2
-BE3
-BE3
A12
TAR13
N/F
R136
BW3
-BE1
-BE1
A13
1
TAR14
N/F
R137A18
CE1
-CE1
-CE1
A14
CE2
-ECS2
WECEOE
272022
TWE
-TWE
CE2
NC,LB0
VCC
VCC
VCC
VCC
VCC
9177706561544127201511
MODE
U35
SRAM.32K X 8
VDD
28
VCC
VCC
RN21
VCC
246
135
VCC
VCC
VCC
VCC
4
8
7
-EC52
TAR13
TAR14
TAG SRAM
8K X 8
16K X 8
TAG ADDR
A5-A17
A5-18
CACHE SIZE
ON/B 256K
ON/B 512K
VCC
10K X 4
SYNC_RAM_64K32
0
R6
— 89 —
Page 91
5. Mother Board SBC 8352 (DRAM)5/16
PD3
3
8
PD2
3
7
PD1
3
6
PD0
6
MD6 MD6 MD6 MD6 MD5 MD5 MD5 MD5 MD5 MD5 MD5 MD5 MD5 MD5 MD4 MD4 MD4 MD4 MD4 MD4 MD4 MD4 MD4 MD4 MD3 MD3 MD3 MD3 MD3 MD3 MD3 MD3
MD3 MD3 MD2 MD2 MD2 MD2 MD2 MD2 MD2 MD2 MD2 MD2 MD1 MD1 MD1 MD1 MD1 MD1 MD1 MD1 MD1 MD1 MD9 MD8 MD7 MD6 MD5 MD4 MD3 MD2 MD1 MD0
4
3 2 1 0 9 8 7 6 5 4 3 2 1 0 9 8 7 6 5 4 3
2 1 0 9 8 7 6 5 4 3 2
1 0 9 8 7 6
5 4 3 2 1 0 9 8 7 6 5 4 3 2 1 0
D31
6
2
D30
6
0
D29
5
8
D28
5
6
D27
5
4
D26
5
2
D25
5
0
D24
2
7
D23
2
5
D22
2
3
D21
2
19753
D20 D19 D18 D17 D16
6
5
D15
6
3
D14
6
1
D13
5
7
D12
5
5
D11
5
3
D10
5
1
D
9
4
9
D
8
2
6
D
7
2
4
D
6
2
2
D
5
2
08642
D
4
D
3
D
2
D
1
D
0
A0A1A2A3A4A5A6A7A8A9A10
121314151617182831321929474445343340434142
MAA0
MAA1
MAA2
MAA3
MAA4
MAA5
MAA6
MAA7
MAA8
PD3
3
8
PD2
3
7
PD1
3
6
PD0
6
4
D31
6
2
D30
6
0
D29
5
8
D28
5
6
D27
5
4
D26
5
2
D25
5
0
D24
2
7
D23
2
5
D22
2
3
D21
2
19753
D20 D19 D18 D17 D16
6
5
D15
6
3
D14
6
1
D13
5
7
D12
5
5
D11
5
3
D10
5
1
D
9
4
9
D
8
2
6
D
7
2
4
D
6
2
2
D
5
2
08642
D
4
D
3
D
2
D
1
D
0
A0A1A2A3A4A5A6A7A8A9A10
121314151617182831321929474445343340434142
MAA9
BANK0 HIGH
A11
WE
MAA10
MAA11
-WEA
BANK0 LOW
A11
WE
RAS0
-RAS0
-RAS1
RAS0
RAS1
RAS1
RAS2
RAS2
RAS3
-CAS4
RAS3
CAS0
-CAS5
CAS0
CAS1
-CAS6
CAS1
CAS2
-CAS7
CAS2
CAS3
CAS3
SIM2
SIM1
MAA0
MAA1
MAA2
2468246
1357135
RN7 22X4
MA0
MA1
MA2
MA0
MA1
MA2
-587CAS0
-587CAS0 22
R173
MAA3
MAA4
MAA5
MA3
MA4
MA5
MA3
MA4
-587CAS1
-587CAS1 22
R174
MAA6
MAA10
8
7
MA6
MA10
MA5
MA6
MA10
-CA55
-CA57
1357135
2468246
RN3 22X4
-RCA55
-RCA57
-RCA55
-RA50
22
22X4
RN6
R178
-RRA50
-CA56
-CA54
-RCA56
-RCA54
-RCA57
-RCA56
-RA51
22
R177
-RRA51
-RRA50
-RRA51
-CA51
-CA53
-RCA51
-RCA53
-RCA54
-RCA51
MAA7
246822
135
MA7
-CA52
-CA50
7
8
-RCA52
-RCA50
-RCA53
-RCA52
MAA11
MAA8
MA11
MA8
MA11
MA7
RN4 22X4
-RCA50
MAA9
7
MA9
MA8
-WEA
R176
-WE
MA9
-WE
MAA0
MAA1
MD[0..63]
MD[0..63]
MAA2
MAA3
MAA4
MAA5
MAA6
MAA7
MAA8
MAA9
MAA10
MAA11
-WEA
-RAS0
-RAS1
-CAS4
-CAS5
-CAS6
-CAS7
— 90 —
Page 92
6. Mother Board SBC 8352 (IDE)6/16
IDDP8
IDDP9
IDDP10
IDDP11
IDDP12
IDDP13
IDDP14
IDDP15
246
8
1012141618202224262830323436384042
1357911131517192123252729313335373941
IDE1
DA2
-DC53A
44
43
CON2X22
IDELED
-DIOWA
-DIORA
DDREQ
IDEIRQ
PRIMARY
DA0
DA1
135
RN12
33X4
246
18171615141312
B0B1B2B3B4B5B6
A0A1A2A3A4A5A6
U33
2345678
SA17
SA18
SA17
DA2
SA19
SA18
-DC51A
7
8
SA20
SA19
SA20
VCC VCC
ISA OSC2
-DC53A
223333
R158
SA21
SA21
-IDERST
-IDERST
ISA OSC1
SYS CLK
SYS CLK
33
R97
R76
R91
11
B7
A7
9
BCLK
BCLK
ISA0SC
IDDP7
IDDP6
DIR
1
19
VCC
IDDP5
OE
IDDP4
IDDP3
F245
IDDP2
IDDP1
IDDP0
DDREQ
VCC
SA7
SA6
SA5
SA7
SA6
SA5
SA4
18171615141312
B0B1B2B3B4B5B6
A0A1A2A3A4A5A6
U27
2345678
DD7
DD6
DD5
DD4
-DIOWA
-DIORA
1K
R171
SA4
SA3
SA3
SA2
DD3
DD2
33
R119
-DRDY
-DRDY
SA2
SA1
SA1
DD1
-DDACKA
IDEIRQ
DA1
-DDACKA
SA0
SA0
11
B7
A7
DIR
9
1
-MASTER
DD0
DA0
OE
19
-SOE
-DCSIA
F245
SA15
SA14
SA13
SA15
SA14
SA13
SA12
18171615141312
B0B1B2B3B4B5B6
A0A1A2A3A4A5A6
U29
2345678
DD15
DD14
DD13
DD12
SA12
SA11
DD11
SA11
SA10
DD10
SA10
SA9
DD9
SA9
SA8
11
9
DD8
SA8
B7
A7
1
-MASTER
DIR
OE
19
-SOE
-SOE
-MASTER
F245
U34
246
8
RN11
135
7
-XDIOWA
-XDIORA
DDRQA
DDRQA
IRQ14
-XDIOWA
-XDIORA
XD[0..7]
XD7
XD6
XD5
XD4
XD3
XD2
18171615141312
B0B1B2B3B4B5B6
A0A1A2A3A4A5A6
2345678
SD7
SD6
SD5
SD4
SD3
SD2
33X4
XD1
SD1
XD[0..7]SD[0..7]
XD0
11
B7
A7
9
SD0
DIROEF245
1
19
XDIR
XDIR
DD3
DD2
DD1
DD0
DD7
DD6
DD5
DD4
DD8
DD9
DD10
DD11
DD12
135786422468753
246875311357864
IDDP3
IDDP2
IDDP1
IDDP0
IDDP7
IDDP6
IDDP5
IDDP4
IDDP8
IDDP9
IDDP10
IDDP11
IDDP12
RN8
33X4
RN2
33X4
RN7
33X4
DD13
DD14
IDDP13
IDDP14
RN10
33X4
DD15
1
2
IDDP15
DD[0..15]
DD[0..15]
— 91 —
SD[0..7]
Page 93
7. Mother Board SBC 8352 (EISA/PC104 SLOT)7/16
C
VCC
109876
RN49
12345
SD3
SD2
-IOCHCK
-IOCHCK
A1A2A3A4A5A6A7A8A9
B1B2B3B4B5B6B7B8B9
SL2
SD1
SD0
VCC
SD7
SD6
SD5
SD7
SD6
SD5
RES DRV
IRQ9
IRQ9
RES DRV
4.7KX8
SD4
SD4
SD3
-5V
DREQ2
VCC
SD3
SD2
SD2
SD1
-12V
-OWS
DREQ2
135
RN47
246
IRQ7
SD1
SD0
-OWS
SD0
7
8
IRQ6
IRQ5
IRQ4
IOCHRDY
AEN
IOCHRDY
AEN
SA19
A10
A11
B10
B11
+12V
-SMEMW
-SMEMR
-SMEMW
4.7KX4
SA19
SA18
SA17
SA18
SA17
A12
A13
A14
B12
B13
B14
-IOW
-IOR
-IOW
-IOR
-SMEMR
RN26
SA16
SA15
SA16
SA15
A15
A16
B15
B16
-DACK3
DREQ3
DREQ3
-DACK3
135
246
IRQ12
IRQ14
SA14
SA13
SA14
SA13
A17
A18
B17
B18
-DACK1
DREQ1
DREQ1
-DACK1
7
4.7KX4
8
IRQ10
IRQ11
SA12
SA11
SA10
SA12
SA11
SA10
SA9
A19
A20
A21
B19
B20
B21
-REFRESH
SYS CLK
IRQ7
IRQ6
IRQ7
-REFRESH
SYS CLK
SA9
SA8
A22
B22
IRQ5
IRQ6
SA8
SA7
A23
B23
IRQ4
IRQ5
RN24
SA7
SA6
A24
B24
IRQ3
IRQ4
135
246
DREQ7
DREQ0
SA6
SA5
SA5
SA4
A25
A26
B25
B26
-DACK2
TC
IRQ3
-DACK2
7
8
DREQ6
DREQ5
SA4
SA3
SA3
A27
A28
B27
B28
BALE
TC
BALE
4.7KX4
SA2
SA1
SA2
SA1
SA0
A29
A30
B29
B30
ISA OSC2
ISA OSC2
SA0
A31
246
8
4.7KX4
RN29
135
7
DREQ1
DREQ3
DREQ2
-SBHE
SA23
SA22
SA21
SA20
SA19
-SBHE
SA23
SA22
SA21
SA20
SA19
SA18
C0C1C2C3C4C5C6C7C8
A32
B31
B32D0D1D2D3D4D5D6D7D8D9
-MEMCS16
-IOCS16
IRQ10
IRQ11
IRQ12
IRQ15
IRQ14
IRQ10
IRQ11
IRQ12
IRQ15
-IOCS16
-MEMCS16
VC
SA18
SA17
SA17
-DACK0
IRQ14
-DACK0
246
RN25
135
-OWS
-MEMR
-MEMR
-MEHW
C9
C10
D10
DREQ0
-DACK5
DREQ0
-DACK5
8
7
-MEMCS16
-REFRESH
-IOCS16
-MEHW
SD8
SD9
SD10
SD8
SD9
SD10
SD11
C11
C12
C13
D11
D12
D13
DREQ5
-DACK6
DREQ6
-DACK7
DREQ5
DREQ6
-DACK6
330X4
-MASTER
SD11
SD12
SD12
SD13
C14
C15
D14
D15
DREQ7
DREQ7
-DACK7
SD13
SD14
SD14
SD15
C16
C17
D16
D17
-MASTER
-MASTER
R731KR148 330
IOCHRDY
SD15
C18
C19
D18
D19
VCC
PC104
R31
N/F
-BIOR
-IOR
753
864
-BIOR
-BIOR
-BIOR
-BIOW
-BSMEMR
-IOW
-SMEMR
-BIOW
-BIOW
-BSMEMR
-BIOW
-BSMEMR
PCLK1
VCC
RN38
-MSMEMW
-SMEMW
1
2
-MSMEMW
-MSMEMW
R30
N/F
246
135
-IOR
-IOW
-SMEMR
AENTCTC
AEN
R77
RAEN
RAEN
8
4.7KX4
7
-SMEMW
BALE
333333
R61
R54
RTC
RBALE
RTC
VCC
BALE
RBALE
-MEMR
-MEMR
R43
-RMEMR
-RMEMR
R42
N/F
-MEMW
-MEMW
VCC
33
R41
-RMEMW
-RMEMW
RCLK1
VCC
RN50
864
753
-INTR C
-INTR A
-INTR B
-INTR C
-INTR A
R46
N/F
AQ15
109876
RN16
12345
-SERR
SA2
-SERR
2.2KX4
2
1
-INTR D
-INTR B
-INTR D
MEMR
MEMW
SA3
753
864
-REQ0
-REQ1
-REQ0
SRHR
VCC
RN36
2.2KX4
-REQ2
-REQ1
-REQ2
4.7KX8
1
2
-REQ3
-REQ3
VCC
VCC
RN55
246
135
C45 47P
TC
4.7K
4.7K
4.7K
R13R3R74
IRQ9
-FRAME
-IOCHCK
8
4.7KX4
7
4.7K
R62
IRQ3
-FRAME
-12V+12V
-5VVCC
VCC
IRQ9
DREQ2
RES DRV
RES DRV
IRQ9
-SV
DREQ2
B1B2B3B4B5B6B7B8B9
-5V
VCC
GND
IRQ9
RSTDRV
SL1
IOCHK-
SD7
SD6
SD5
SD4
A1A2A3A4A5A6A7A8A9
SD7
SD6
SD5
SD4
SD3
-IOCHCK
SD3
-12V
DRQ2
SD2
SD2
-OWS
-OWS
-12V
SD1
SD1
+12V
-SMEMW
B10
B11
+12V
OWS-
SD0
IOCHRDY
A10
SD0
IOCHRDY
-SMEMW
-SMEMR
-SMEMR
-IOW
B12
B13
GND
SMEMW-
AEN
SA19
A11
A12
A13
AEN
SA19
SA18
-IOW
-IOR
-DACK3
-IOR
-DACK3
B14
B15
IOR-
IOW-
SMEMR-
SA18
SA17
SA16
A14
A15
SA17
SA16
DREQ3
-DACK1
DREQ3
-DACK1
B16
B17
DRQ3
DACK3-
SA15
SA14
A16
A17
SA15
SA14
DREQ1
-REFRESH
DREQ1
-REFRESH
SYS CLK
B18
B19
B20
DRQ1
DACK1-
SA13
SA12
A18
A19
A20
SA13
SA12
SA11
IRQ7
IRQ6
IRQ5
SYS CLK
IRQ7
IRQ6
IRQ5
B21
B22
B23
IRQ7
IRQ6
SYSCLK
REFRESH
SA11
SA10
SA9
SA8
A21
A22
A23
SA10
SA9
SA8
IRQ4
B24
A24
SA7
IRQ4
IRQ3
B25
IRQ5
SA7
A25
SA6
IRQ3
IRQ4
SA6
-DACK2TCBALE
-DACK2TCBALE
B26
B27
B28
TC
IRQ3
DACK2-
SA5
SA4
SA3
A26
A27
A28
SA5
SA4
SA3
IRQ10
IRQ11
ISA OSC1
ISA OSC1
B29
B30
VCC
BALE
SA2
SA1
A29
A30
SA2
SA1
IRQ12
-MEMCS16
-IOCS16
-MEMCS16
-IOCS16
IRQ10
IRQ11
IRQ12
IRQ15
B31D1D2D3D4D5D6D7D8D9D10
OSC
GND
IRQ10
IRQ11
IRQ12
IOCS16-
MEMCS16-
SBHE-
SA23
SA22
SA21
SA20
SA0
A31
C1C2C3C4C5C6C7C8C9
SA0
SA23
SA22
SA21
SA20
SA19
-SBHE
IRQ15
IRQ14
IRQ14
IRQ13
IRQ14
SA19
SA18
-DACK0
-DACK0
DREQ0
DACK0-
SA18
SA17
SA17
-MEMR
DREQ0
-DACK5
-DACK5
DREQ5
D11
DRQ0
DACK5-
MEMR-
MEMW-
C10
-MEMW
DREQ5
-DACK6
-DACK6
D12
DRQ5
DACK6-
SD8
C11
C12
SD8
SD9
DREQ6
DREQ6
D13
DRQ6
SD9
SD10
C13
SD10
DREQ7
-DACK7
-DACK7
DREQ7
D14
D15
DRQ7
DACK7-
SD11
SD12
C14
C15
SD11
SD12
-MASTER
-MASTER
D16
D17
VCC
MASTER
SD13
SD14
C16
C17
SD13
SD14
PCLK1
R33
N/F
VCC
-INTR B
-INTR D PCLK2
-INTR B
-INTR D
PCLK2
-NGT1
D18F1F2F3F4F5F6F7F8F9F10
KEY
VCC
GND
SD15
C18
SD15
VCC
GND
GND
PCLKF
PCIINT3-
PCIINT4-
GND
GND
PCIINT1-
PCIINT2-
VCC
KEY
VCC
PCIRST-
E1E2E3E4E5E6E7E8E9
-INTR A
-INTR C
-PCI RST
GND
GNT0-
-NGT0
R34
-NGT1
F11
GNT1-
REQ0-
E10
E11
-REQ0
N/F
-REQ1
F12
GND
GND
E12
PCLK1
-REQ1
A D31
A D31
A 29
F13
AD31
REQ1-
PCLKE
GND
E13
A 29
PCLK4
F14
F15
AD29
AD30
E14
E15
A D30
PCLK3
PCLK4
F16
KEY
3.3V
3.3V
KEY
E16
-REQ3
-REQ3
A D27
F17
F18
3.3V
3.3V
E17
E18
-REQ2
A D27
A D25
F19
AD27
AD28
E19
A D28
A D26
VCC
A D25
C -BE3
C -BE3
F20
AD25
CBE3-
AD26
AD24
E20
A D24
A D23
A D23
A D21
F21
F22
AD23
AD22
E21
E22
A D22
A D20
R50
A D21
A D19
A D19
F23
AD21
AD19
AD20
AD18
E23
A D18
N/F
-GNT3
-GNT3
F24
F25
3.3V
3.3V
E24
E25
-GNT2
KEY
KEY
RCLK1
F26
3.3V
3.3V
E26
A D17
A D17
-IRDY
F27
F28
AD17
AD16
E27
E28
A D16
-FRAME
R49
N/F
-IRDY
-PLOCK
-DEVSEL
-DEVSEL
-PLOCK
F29
F30
IRDY-
PLOCK-
DEVESEL-
FRAME-
CBE2-
TRDY-
E29
E30
C -BE2
-TRDY
-IRDY
-DEVSEL
-IRDY
-SERR
A D15
A D14
A D12
A D10
A D14
A D12
AD14
AD12
CBE1-
PAR
C -BE1
PAR
GND
GND
KEY
KEY
A D10
GND
GND
A D13
A D8
AD10
AD13
A D11
A D8
A D7
AD8
AD11
-PERR
-PERR
-SERR
A D15
F31H1H2H3H4H5H6H7H8H9H10
AD15
PERR-
SERR-
SDONE
SB0-
STOP-
G1G2G3G4G5G6G7G8G9
E31
-STOP
-PLOCK
-PERR
-DEVSEL
-PLOCK
A D7
A D5
A D5
A D3
H11
H12
AD7
AD5
AD9
CBE0-
G10
G11
G12
A D9
C -BE0
A D6
-PERR
A D3
A D1
A D1
H13
AD3
AD1
AD6
AD4
G13
A D4
A D0
A D0
H14
AD0
AD2
G14
A D2
H15
G15
H16
KEY
KEY
G16
VCC
VCC
H17
G17
VCC
VCC
H18
G18
H19
GND
GND
GND
GND
G19
ISA/CPI SLOT (EISA)
SD4
SD3
SD2
SD1
AEN
SD0
IOCHRDY
SA19
SA18
SA17
SA16
SA15
SA14
SA13
SA12
SA11
SA10
SA9
SA8
SA7
SA6
SA5
SA4
SD7
SD6
-IOCHCK
SD5
SA3
SA2
SA1
SA0
-SBHE
SA23
SA22
SA21
SA20
SA19
SA18
SA17
-MEMR
-MEMW
SD8
SD9
SD10
SD11
SD12
SD13
SD14
— 92 —
SD15
-INTR A
-INTR C
-REQ0
-NGT0
-PCI RST
PCLK1
A D30
PCLK3
-REQ2 A D28
A D26
A D24
A D22
A D20
A D18
-GNT2
A D16
-FRAME
-TRDY
C -BE2
-STOP
PAR
C -BE1
A D13
A D11
A D9
A D6
C -BE0
A D4
A D2
Page 94
8. Mother Board SBC 8352 (XIO/USB)8/16
V
+12
VCC
1
A11
SA12
SA11
SA22
4.7K
R65
SA6
SA6
LB DT
KBVCC
A12
A13
A14
29
SA13
SA14
SA12
SA13
SA14
SA23
SA23
4.7K
R113
4.7K
R56
SA7
SA7
KBVCC
246
13579
KB CK
3
JP11
2 1
A15A6NCCEOE
3
2
222431
30
VCC VP
SA15
SA16
-ROMKBCS
SA15
SA16
VCC
MS CK
8
10
BOX HEADER 5X2
MS DT
HEADER 1X3
WE
33
-MEMR
R116
-MEMR
-ROMKBCS
-MEMW
-MEMW
109876
RN30
12345
SAB
SA9
SA10
SA8
SA9
SA10
FB7
FB5
MS CLK
MS DATA
SA11
SA11
C59
C55
VCC
4K7X8
47P
47P
VCC
VCC
246
RN43
135
SD15
864
4.7K
R154
TURBO
SD14
SD13
SD15
SD14
SD13
(EN INT KB)
(EN INT P52)
(DIS INT RTC)
(SIO)
2
753
1
XD0
XD1
XD2
XD3
4.7K
4.7K
R112
R123
-ROMKBCS
-KB LOCK
8
4.7KX4
7
SD12
SD12
4.7KX4
4.7K
R151
SPEAK
RN35
RN27
246
135
SD11
SD11
SD10
VCC
VCC
U10
XD[0..7]
XD[0..7]
SA16
R29
4.7K 4.7K
R98
SAI
FS1
FROM-128K 8
SA16
SAI
FUSE
XD0
XD1
XD2
XD3
XD4
XD5
XD6
XD7
12141517181920
121110
SA0
4.7K
R130
4.7K
F83
KB_CLK
21
D0D1D2D3D4D5D6
A0A1A2A3A4A5A6A7A8A9A10
SA0
SA17
R99
-TRDY
SA1
SA1
SA17
-TRDY
F84
98765
SA2
SA3
SA4
SA2
SA3
SA18
SA18
4.7K
R129
4.7K
R100
SA0
SA0
FB10
FB
C52
C47
KB_DATA
SA5
SA4
SA19
SA19
4.7K
R125
4.7K
R101
-STOP
-STOP
VCC
47P
47P
SA6
SA5
+12V
SA7
SA6
SA20
SA20
4.7K
R124
4.7K
R67
SA4
D7
272623
SA8
SA7
SA4
SA9
SA8
SA21
4.7K
R121
4.7K
R66
SA5
SA10
SA9
SA21
SA5
25428
SA11
SA10
SA22
4.7K
R117
J5
864
123
KB CLK
KB DATA
8
7
SD9
SD8
SD9
SD10
J7
VCC
2
4.7KX4
4
MS DATA
MS CLK
4.7KX4
SD8
123
33
R37
USBDATA-
USBDATA+
VCC
4
33
R35
C40
864
RN20
753
XD4
XD5
XD6
-PCI RST
-PCI RST
R150
33
R96
-PCIRST
-PCIRST
HEADER 1X4
47P
C41
47P
N/F
2
1
XD7
U38F
R48 R38
4.7KX4
RES DRV
13 12
15K 15K
U38E
74F04
11 10
SIO RES
-IDERST
33
R149
74F04
U38C
8
74F04
U38D
9
(U58 HEADE_1)
-DRST
33
R145
6
5
U38B
74F04
CTBLED
4
3
TURBO
74F04
R58
VCC
VCC
VCC
33
R138
10K
R147
10K
VCC
246
135
JP3
RSTSW
TURBOSW
TURBO-SW
R127
TURBO
U39A
1
864
753
8
7
CTBLED
IDELED
C68
.1U
22
C79
.1U
3
2
33
R135
-WDO
RSTSH
2
1
PW LED
HEADER 4X2
1N414B
D4
74F08
C70
VCC
123
.1U
876
WD0
MR
LS1
PW GOOD
5
RST
WDI
PF0
VCC
GND
PFI
4
VCC
MAX708
PW LED
SPEAKER
R161
U38A
VCC
246
13579
33
CSPEAK
2
74F04
1
SPEAKER
876
123
C119
8
10
VCC
SIO OSC
PW-LED
KEYLOCK
47P
HEADER 5X2
C120
.1U
5
DS1232LP(N/F)
4
-KB LOCK
-KB LOCK
C67
47P
MS CLK
KB_CLK
KB_DATA
MS DATA
USBDATA-
USBDATA+
— 93 —
-EXTSMI
TURBO
SPEAKER
Page 95
9. Mother Board SBC 8352 (ALI5113 Super I/O)9/16
VCC
DENSEL
1
0
VCC
6789
1
06789
VCC
R24
1K
7531
RN48
1KX4
VCC
RN44
1KX8
5432154321
RN44
1KX8
13579111315161821232527293133
J6
246
8
10121416182022242628303234
8642
DENSEL
DRATEO
-INDEX
-MTRO
-DR1
DR0
-MTR1
-DIR
-STEP
-WDATA
-WGATE
-TRKO
2468101214161820222426
13579
11131517192123
-SLTN
-INIT
-ERR
-AFD
-STB
PD0
PD1
PD2
PD3
PD4
-WRPROT
-RDATA
-HDSEL
-SDKCHG
PD5
PD6
PD7
-ACK
BUSYPESLCT
VCCF
246
13579
JP15
VCCF
HEADER 3X2
VCCF
+12VF
246
13579
JP20
RI28
-RI2/CTS2-
+12VF
8
10
+12VF
DCD2
DCD28
FI1DCD1
8
10
BOX HEADER 5X2
HEADER 5X2
DSR1
RTS1
246
13579
JB
CTS1
8
10
BOX HEADER 5X2
R144
.1U
C143
.1U
-RT52/RT52+
SOUT2
DTR2
DCD2
SIN2
-DSR2/RT52-
-CT52/CT52+
VCC
25
C20
180P
C13
180P
C23
180P
111317
V+
VCC
C1+
C1-
U24
121415
.1U
C145
C146
.1U
C19
C9
180P
C10 C12 C15 C17
V-
C2+
231
T1OUT
C2-
T1IN
7
6
16
-RT52
TXD2
180P
180P
C11 C14 C15 C18
28
T2OUT
T3OUT
T2IN
T3IN
20
-DTR2
9
T4OUT
T4IN
21
4
272318
R1IN
R2IN
R1OUT
R2OUT
8
5
2622192425
-DCD2
BXD 232
-DSR2
VCC
-RI2/CT52-
R3IN
R4IN
R5IN
R3OUT
R4OUT
R5OUT
-CTS2
-RI2
GND
-EN
10
SHDN
ADM213
-DSR2/RT52-
J9
-DCD2/TX2-
485RXD-
876
VCC
ROREDE
U20
123
RXD 485
2
U36A
1
-RT52
-RT52/RT52
-CT52/CT52+
RI28
246
8
13579
SIN2/TX2+
SOUT2/RX2+
-DTR2/RX2-
485RXD+
5
B
A
GND
DI
4
TXD2
74F04
10
BOX HEADER 5X2
876
LTC485
U17
123
RXD 422
485RXD-
485RXD+
B
VCC
ROREDE
+12VF+12V
A
JP16
5
GND
4
485TXD+
SIN2/TX2+
246
13579
485TXD-
-DCD2/T2-
DI
LTC485
F53
SIN2
485RXD+
SOUT2/RX2+
8
DCD28
485RXD-
-DTR2/RX2-
C33
.1U
FUSE
SOUT2
10
DTR2
JP1913
12
11
RXD 485
RXD2
HEADER 6X2
RXD 422
RXD 232
246
5
VCC
4.7K
SUPIOCLK
R25
VCC
SUPIOCLK
4.7K
IRQ11
IOCHRDY
IOCHRDY
NO5
R195
TRQ9
SA0
SA0
DREQ1
SD0
SD1
SD2
SD3
SD4
SD5
SD6
SD7
DREQ2
IRQ4
IRQ3
IRQ6
IRQ7
SD0
SD1
SD2
SD3
SD4
SD5
SD6
SD7
DREQ2
IRQ4
IRQ3
IRQ6
IRQ7
-HGATE
4849505153545556523837403910911784398972596991798981918393
U14
D0D1D2D3D4D5D6
100
I
CHR
O
9
5
N
D
G
6
7
N
D
G
4
7
N
D
G
67
N
D
G
2
V
C
C
1
5
V
C
C
2
0
/
2
X
2
1
/
1
X
5
8
P
RGD
W
2
2
I
DED
2
6
HDC
2
5
HDCSD
2
4
I
E
D
2
3
I
E
D
2
7
I
C
O
282930313233344142434644453635571617141312181978888292809085878486
-DACK1 A0
D7
Y
D
LK1
4
C
_
A
D
R
Q /
J
AMECS
G
/
7
K_A
DAC
IJ/
I
2
T
X
S
R
/
I
J
2
X
R
R
/
I
5
E
N
H
R
Q
/
I
L
1
1
E
N
R
Q
/
/
1
6
1
1
S
SA1
5
A
C
A1A2A3A4A5A6A7A8A9
SA2
SA3
SA4
SA5
SA6
SA7
SA8
SA1
SA2
SA3
SA4
SA5
SA6
SA7
IRQ4
IRQ3
FINTR/IRQ6
PINTR/IRQ7
FDRQ/DRQ2
AEN
IORJ
IOWJ
SA9
AEN
-IOR
-IOW
SA8
SA9
AEN
-IOR
-IOW
-DACK2TCRES DRV
-HDATA
-HDSEL
-DIR
-STEP
-DR0
DIR
STEPJ
HDATAJ
HGATEJ
HDSELLJ
DACK2JTCRESET
RDATAJ
DSKCHG
-RDATA
-DSKCHG
-WRPROT
-DACK2TCRES DRV
DREQ3
-DI1
DRV0J
DRV1J
DRV2J/VIO
WRTPTJ
TRKOJ
INDEXJ
-TRKO
-INDEX
SA10
SA10
-MTR0
-MTR1
DACK3
DENSEL
SOUT1
MTR0J
MTR1J
TXD1/PCF0
DRV3J/SA10
MTR3J/DRQ_C
MTR2J/DACK_C
DENSEL/DRVDEN0
PREN/DRVDEN1
DRV/IRQ_A
RXD1
RXD2
CTS1J
CTS2J
SIN1
RXD2
-CTS1
-CTS2
-DSR1
IRQ10
TXD2
-RTS1
-RTS2
-DTR1
RTS1J/PCF1
TXD2/TDCCF
RTS2J/S2CF0
DSR1J
DSR2J
DCO1J
DCD2J
-DSR2
-DCD1
-DCD2
-RI1
IRQ5
-DTR2
94
P
D
DTR1J/IDEF
IRQ_B/DRV2
P
D
DTR2J/S2CF1
P
D
P
D
P
D
P
D
P
D
P
D
T
S
B
E
R
O
TOF
A
U
D
INI
T
I
L
T
S
N
C
E
R
R
L
S
C
P ACK BUS
RI1J
RI2J
-RI2
— 94 —
C32
PD0
PD1
PD2
PD3
PD4
PD5
PD6
PD7
2468246
RN41
33X4
1357135
6
3
7
6
4
6
6
5
5
6
6
4
6
8
3
6
9
2
7
0
1
7
1
0
7
7
J
7
6
J
7
4
J
7
3
J
7
5
J
5
9
T
6
0
E
6
2
J
6
1
Y
RN46
864
753
-ACK
BUSYPESLCT
8
RN42
33X4
7
753
2
RN40
33X4
1
864
-SLIN
-INIT
-ERR
VCCFVCC
1
2
-STB
33X4
F52
-AFD
.1U
DCD1
RXD1
TXD1
RXD1
CTS1
RI1
272318
R1IN
R2IN
R3IN
R4IN
R5IN
R1OUT
R2OUT
R3OUT
R4OUT
R5OUT
5
2622192425
-DSR1
SIN1
-CTS1
-RI1
R184OR185
GND
-EN
DTR1
10
SHDN
ADM213
N/F
FUSE
VCC
R26 33
C139
U21
C141
.1U
111317
VCC
C1+
121415
.1U
C142
R140
V+
C1-
.1U
VCCF
+12VF
.1U
RT51
TXD1
DTR1
DCD1
DSR1
9
4
231
28
V-
T1OUT
T2OUT
T3OUT
T4OUT
C2+
C2-
T1IN
T2IN
T3IN
T4IN
7
6
8
16
20
21
-DCD1
-RT51
TXD1
-DTR1
VCC
Page 96
10. Mother Board SBC 8352 (CLOCK BUFFER)10/16
U37A
1
-IOR
RTCRD-
3
2
74F32
U37B
RTCWR-
6
4
-IOR
-IOR
5
-RTCCS
R126
74F32
4.7K
MOT
1
J_RTC CONFIG
IRQ8-
IRQ8-
VCC: 24
GND: 12
23
19
IRQ-
SQW
CS-ASR/W-DSRESET-
1314151718
-RTCCS
RTCAS
RTCWR-
RTCRD-
-DRST
RTCAS
-RTCCS
IN: CLEAR CMOS
OUT: NORMAL
JP10
2
RTC RSV1
21
22
RSV1
RSV2
AD0
AD1
AD2
AD3
AD4
AD5
AD6
45678
9
10
XD0
XD1
XD2
XD3
XD4
XD5
XD6
HEADER 1X2
1
AD7
11
XD7
XD[0..7]
XD[0..7]
-IOCHCK
JPS
VCCVCCVCC
123
VCC
R188
10K
-WDO
HEADER 3
CLSWDT
ISAOSC1
181716151413121110
R87
RA1
RA0
VCC
CLKI
CLKO
RA2
RA3
RTCC
RST
GND
RB0
U42
123456789
R86
RB1
R85
RB2
R84
RB3
PIC16C54
SIO
SIO OSC
OSC
ISA_SLOT
USB
ISAOSC
USBCLK
SUPER I/O
585
SUPIOCLK
SMCPCLK
586
PCI 4
SIOPCLK
PCLK4
PCI 3
PCLK3
PCI 2
PCLK2
PCI 1
PCLK1
587+2
PBSRAM
DBXCLK
SRCLK2
585
CPU
PMCHCLK
CPUCLK
AEN
ENWDT
DISWDT
CLSWDT
AEN
VCC
22282726252423212019181716
NE
I12
IO8
IO7
IO6
IO5
VCC
NCI0I1I2I3I4I5I6I7I8I9
U9
1234567
SA0
SA1
SA2
SA3
SA4
SA5
SA0
SA1
SA2
SA3
SA4
SA5
DIOOUTCS
IO4
IO3
9
1011121314
SA6
SA7
SA8
SA6
SA7
-IOW
DIOINCS
-DRST
-DRST
-IOW
I11
IO2
IO1
I10
SA9
SA10
SA8
SA9
SA10
-IOR
-IOR
IOE
GND
15
NC
NC
8
GAL20V8-PLCC
R189
R190
10K
10K
DISWDT
ENWDT
X1
14.318MHz
2
10P
C48
1-2
JCKS
Freq
282725241516222119
REF0
OSCIN
235
1
10P C49
3-4
open
50MHz
55MHz
REF1
48MHZ
OSCOUT
1-2
60MHz
24MHZ
OE
JP12
3-4
66MHz
BCLK0
SEL0
13
12
2
4
1
3
BCLK1
SEL1
VCC
18
BCLK2
BCLK3
BCLK4
BCLK5
CPUVCC
CPUVCC
VCC
1
8
1420264111723
HEADER 2X2
.1U .1U
C50 C51
VCC3
679
PCLK0
VCC
CPUVCC
FB9
PCLK1
PCLK2
VSS
C58 C54
C46
C65
+
10
PCLK3
VSS
.1U .1U
.1U
1OU
C74
VSS
.1U
VSS
ICS9159-14
— 95 —
Page 97
11. Mother Board SBC 8352 (Power)11/16
VCO_CORE
C153
.1U
C150
.1U
10K
RA1
L6
1.3UH
10U
+
C155
8765432
VFB
VCCA
VCCD
GNDP
HIDRV
VCCQP
GNDD
GNDA
VREF
VID3
9
10111213141516
VCC
TC152
1500U
+
C151
1500U
+
D52
PB160L40
M11
876
DDD
555
123
5
876
SI4410DY
M12
123
+
DDD
555
C154
5
D
G
SI4410DY
4
1U
D
G
4
159
1000U
++ +
DS1
PSR16C30
1
IFB
CEXT
PRGD
VID2
VID1
VID0
C158
C157
C156
1000U
1000U
68P
JP22
135
246
VID3
VID2
VID1
7
8
VID0
HEADER 4X2
C85
C89
C93
.01U
C126
C118
C124
C71
C115
C116
10U
+
.1U
.1U
.1U
.1U
.1U
C81
C57
C114
C75
.1U
C128
.1U
.1U
C127
.1U
.1U
C22
.1U
.1U
C43
.1U
C106
.01U
TC6
100U
+
TCS
100U
+
.1U
.1U
C111
C102
C94
C107
C112
.01U
.01U
.01U
.01U
.01U
C62
.1U
VCC
Q1
LT1084CT
2
3
VCC3
VIN VOUT
C130
VCC
.1U
C117
.1U
C125
.1U
C123
.1U
1234J3
HEADER 4
-5V
-12V
VCC
+12V
C101
VCC_CORE
C103
+
C108
.1U
C29
.1U
10U
-12V
.1U
C78
1OU
+
TC3
C24
C83
1OU +
.1U
.1U
C80
C28
.1U
.1U
-5V
10K
10K
10K
10K
C148
.1U
R204
10K
VCC
C149
R201
R202
R203
.1U
+12V
R200
VCC
CPUVCC
TC7
100U
+
VCC_CORE
VCC3
CPUVCC
246
C69
1OU
+
R141
120 1%
1
J
A
D
C121
1OU
+
JP8
R142
196 1%
135
HEADER 3X2
CB4 .1U
VCC3 VCC_CORE
C86
C88
C95
C113
C92
C96
C110
C104
+
+
+
.1U
.1U
.1U
.1U
.1U
.1U
.1U
.1U
TC2
CTC1
C127
100U
100U
10U
C90 C109C99C97C91C100C105C87C98
C82 +
.O1U .O1U .O1U .01U .01U .01U .01U .01U .01U
10U
FOR CPU DE_COUPLE
VCC3
VCC3
— 96 —
Page 98
12. Mother Board SBC 8352 (10 BSAE/T ETHERNET)12/16
J15
TTX-
U15
VCC
246
8
135
7
BOX HEADER 4X2
TRX+
TTX+
16151413121110
16151413121110
1234567
1234567
TPRX+
TPRX+
TPRX-
R18
1K
GND1
TRX-
9
9
8
20F-00IN
8
C38
.1U
TPRX-
R28
51 1%
R27
51 1%
VCC
LED_YLE
LED1
636261605958575664656667686970
PA0
PA1
R17
PA2
VCC
C36
PA3
10K
.01U
PA4
R16
PA5
10K
PA6
PA7
VCC
EMD0
EMD1
DMD2
EEDI/MD0
EEDO/MD1
876
U19
123
EMD3
MD3
MD4
EECK/MD2
BNCSW/MD5
5
NC
NC
VCC
GND
CSCKDI
DO
4
EMD2
EMD1
MED0
EMD6
71
MD7
(SLOT)/MD6
IRQ3
6
IRQ3
93C46
IRQ4
8
X2
IRQ5
IRQ9
IRQ10
1034949392
IRQ4
IRQ5
IRQ9
+12V
246
135791113
JP21
VCC
CD+
CD-
BNCEN
VCC
C26
22P
R19 330
33
20MHZ
R22
C27
IRQ11
IRQ10
IRQ11
22P
IRQ12
IRQ15
91
IRQ12
IRQ15
LED2
EECS
BPCS
LED_RED
LPTX+
LILED
LPTX-
LPTX-
LPTX+
TPRX+
TPRX-
TPRX-
TPRX+
BNCEN
CD+
CD-
33
R23
77787980555049464554424140393837767574
X2
X1
8
101214
RX+
RX+
RX-
16
15
BOX HEADER 8X2
TX+
TX-
RX-
TX+
GND1
VCC
136474853724344515273
TX-
VCC
TEST1
TEST2
TEST3
R11
270 1%
R12
270 1%
R10
39 1%
R9
39 1%
R8
39 1%
R7
39 1%
P1P2P3
VCC
VCC
VCC
VCC
VCC
P11
GND1
C3
C21
P12
GND
GND
P13
.01U
.01U
GND
GND1
GND
GND
100
GND
VCC VCC VCC GND1
P13
P3
C35
.1U
P12
P2
C34
.1U
P11
P1
C31
.1U
C25
.1U
VCC
C73
.1U
SA[0..19]
SA[0..19]
U15
SA0
969798
SA0
SA1
SA1
SA2
SA2
99
SA3
SA3
SA4
345
SA4
SA5
SA5
SA6
SA6
SA7
7
SA7
SA8
SA9
9
111213151617182022
SA8
SA9
SA10
SA10
SA11
IRQ3
SA11
SA14
IRQ4
IRQ3
SA14
SA15
IRQ5
IRQ4
SA15
SA16
IRQ9
IRQ5
SA16
SA17
IRQ10
IRQ9
SA17
SA18
SA18
IRQ11
IRQ10
IRQ11
SA19
SA19
IRQ12
IRQ15
IRQ12
IRQ15
SD0
SD1
SD2
SD3
SD4
26272829303132
SD0
SD1
SD2
SD3
SD4
SD5
SD5
SD6
SD6
33
SD7
SD7
SD8
SD9
SD10
88878685848382
SD8
SD9
SD10
— 97 —
SD11
SD11
SD12
SD12
SD13
SD13
SD14
SD14
SD15
81
SD15
SD[0..15]
SD[0..15]
BALE
SYSCLK
IRO
IOW
SMEMR
RST
2
141921233524258990
BALE
SYSCLK
-IRO
-IOW
-SMEMR
RST
AEN
BALE
-IRO
-IOW
SYS CLK
-SMEMR
RST DRV
AEN
IOCHRDY
MEMW
IOCHRDY
-MEMW
AEN
-MEMW
IOCHRDY
MEMR
IO16
95
-MEMR
IOCS16
-MEMR IOCS16
Page 99
13. Mother Board SBC 8352 (SERIAL PORT INTERFACE)13/16
VCCF
+12VF
246
JP171357
RIC D
8
10
9
DSRC D
RTSC D
246
HEADER 5X2
13579
J11
CTSC D
8
10
BOX HEADER 5X2
VCCF
246
JP181357
+12VF
RIC C
8
10
HEADER 5X2
9
DSRC C
J10
RTSC C
CTSC C
246
13579
8
10
BOX HEADER 5X2
VCC
IRQ11
4.7K
R70
SUPIOCLK
VCC
SUPIOCLK
IRQ11
IOCHRDY
4.7KR69
IRQ9
VCC
IRQ9
IOCHRDY
SA0
SA0
VCCF
+12VF
C136
.1U
C135
.1U
SOUTC C
DTRC C
RTSC C
VCC
111317
2
3
1
V-
V+
VCC
T1OUT
T2OUT
C1+
C1-
C2+
C2-
T1IN
121415
.1U
.1U
SD4
SD5
SD4
SD5
4 A AMECS
K_A
I
T
R
I
R
R
I
R
Q
I
R
Q
1
1
A
SA4
SA5
SA6
SA4
SA5
SD6
SD6
X X 5 1 /
SA6
SA7
16
SD7
SD7
2 2
1 C
SA7
D7
SA8
T2IN
7
6
20
SOUTC-
DTRC-
RTSC-
IRQ10
IRQ9
IRQ10
IRQ9
IRQ6
IRQ4
IRQ3
FDRQ/DRQ2
J
+
S
SA9
AEN
-IOR
SA8
SA9
AEN
VCC
U28
C137
C138
SD0
SD1
SD2
SD3
SD0
SD1
SD2
SD3
4849505153545556523837403910911784398972596991798981918393
U13
D0D1D2D3D4D5D6
100
I
Y
CHR
D
O
9
5
N
D
G
6
7
N
D
G
4
7
N
D
G
67
N
D
G
2
V
C
C
1
5
V
C
C
2
0
/
2
LK1
X
C
2
1
/
1
_
X
D
R
5
8
2
2
2
6
2
5
2
4
2
3
2
7
G /
P
RGD
G
W
I
/
7
DED
DAC /
J
5
1
HDC
/
J
5
0
HDC I
/
E
E
D
N
H
I
/
L
E
E
D
N
/
I
1
6
S
C
O
A0A1A2A3A4A5A6A7A8A9AEN
282930313233344142434644453635571617141312181978888292809085878486
SA1
SA2
SA3
SA1
SA2
SA3
DCDC C
CTSC C
RIC C
28
9
42723
R1IN
T3OUT
T4OUT
T3IN
T4IN
R1OUT
8
5
21
CT5D-
RID-
VCC
IRQ6
IRQ7
IRQ7
WDATAJ
WGATEJ
FINTR/IRQ6
PINTR/IRQ7
IORJ
IOWJ
DACK2JTCRESET
-IOW
RES DRV
-IOR
-IOW
SINC C
DSRC C
DCDC C
18
R2IN
R3IN
R4IN
R2OUT
R3OUT
R4OUT
262229
SIND-
DSRD-
DIR
STEPJ
HDSELJ
RDATAJ
DSKCHG
RES DRV
SINC C
SOUTC C
R5IN
R5OUT
24
DCDD-
DRV0J
DRV1J
WRTPTJ
TRKOJ
DTRC C
10
-EN 25
SA10
DRV2J/VIO
INDEXJ
IRQ10
VCC
GND
SHDN
ADM213
SA10
VCC
SOUTC-
MTR0J
MTR1J
TXD1/PCF0
DRV3J/SA10
MTR3J/DRQ_C
MTR2J/DACK_C
DENSEL/DRVDENO
PREN/DRVDEN1
DRV/IRQ_A
RXD1
RXD2
CTS1J
CTS2J
DSR1J
SINC
SIND
CTSC-
CTSD-
DSRC-
IRQ10
VCCF
C131
.1U
U22
C133
C134
SOUTD-
RTSC-
RTSD-
DTRC-
DTR1J/IDEF
RTS1J/PCF1
TXD2/TDCCF
RTS2J/S2CF0
DSR2J
DCD1J
DCD2J
RI1J
DSRD-
DCDC-
DCDD-
RIC-
DCDC D
+12VF
C132
.1U
111317
V-
V+
VCC
C1+
C1-
C2+
C2-
121415
16
.1U
.1U
IRQ5
DTRD-
94
P
D
IRQ_B/DRV2
P
D
DTR2J/52CF1
P
D
P
D
P
D
P
D
P
D
P
D
T
S
B
E
R
O
TOF
A
U
D
INI
T
I
L
T
S
N
C
E
R
R
L
S
C
P ACK BUS
RI2J
RID-
SOUTC D
DTRC D
RTSC D
2
3
1
T1OUT
T2OUT
T1IN
T2IN
7
6
20
SOUTD-
DTRD-
RTSD-
6
7
6
6
6
5
6
4
6
3
6
2
7
1
7
0
7
J
7
J
7
J
7
J
7
J
5
T
6
E
6
J
6
Y
28
T3OUT
T4OUT
T3IN
T4IN
21
3 4 5 6 8 9 0 1 7 6 4 3 5 9 0 2 1
SINC D
SOUTC D
CTSC D
RIC D
9
42723
R1IN
R1OUT
8
5
CT5D-
RID-
VCC
DTRC D
SINC D
DSRC D
R2IN
R3IN
R2OUT
R3OUT
262229
SIND-
DSRD-
DCDC D
18
R4IN
R5IN
R4OUT
R5OUT
DCDD-
-BIOR
-BIOW
-BSMEMR
-BSMEMW
SD0
SD1
SD2
SD3
-BIOR
-BIOW
-BSMEMR
-BSMEMW
975
1Y1
1A1
1Y2
1A2
12
1Y3
1A3
8
I3
257
U18
346
3
1Y4
2Y1
2Y2
2Y3
1A4
2A1
2A2
2A3
111315
17
-RIOR
-RIOW
-RSMEMR
-RSMEMW
-RIOR
-RIOW
-RSMEMR
000102
101215
Q1Q2Q3Q4Q5
D1D2D3D4D5
111314
SD0
SD1
SD2
2Y4
2A41G2G
1
19
DIOINCS
-RSMEMW
246
13579
J14
03
Q6
D6
CLK
9
SD3
DIOOUTCS
CLR
1
VCC
74F244
8
10
74F174
BOX HEADER 5X2
181614
10
GND
-EN
SHDN
24
25
U23
246
ADM213
I0I1I2
— 98 —
Page 100
14. Mother Board SBC 8352 (DK65550PCI)14/16
RASB#
CASBH
CASBL
HEB#
BASA#
CASAH
CASAL
WEA#
AA8
153
AA8
156
RASA
159
160
CASAH
157
155
WEA
CASAL
OEAB#
OEAB
MBD[0..15]
MBD[0..15]
MBD0
MBD1
MBD2
127
128
129
MBD0
MBD1
MBD3
130
MBD2
MBD4
131
MBD3
MBD4
MBD5
132
MBD5
P[0..23]
P[0..23]
MAD[0..15]
VAA[0..8]
246
8
1357HEADER 4X2
JP14
246
VAA[0..8]
MAD[0..15]
U11
2
3
9
P
2
2
9
P
2
1
9
P
2
0
9
P
1
9
9
P
1
8
9
P
1
7
9
P
1
6
9
P
1
5
8
P
1
4
8
P
1
3
8
P
1
2
8
P
1
1
8
P
1
0
8
P
9
8
P
8
8
P
7
7
P
6
7
P
5
7
P
4
7
P
3
7
P
2
7
P
1
7
P
0
7
P
122 121 120 119 118 117 116 115 114 113 112 111 110 109 107 106
8
4.7KX4
RN33
135
7
MAD2
MAD3
MAD4
MAD5
MAD0
MAD1
MAD2
MAD3
MAD4
MAD5
MAD6
MAD7
MAD8
MAD9
MAD10
MAD11
MAD12
MAD13
MAD14
MAD15
AA0
AA1
AA2
AA3
AA4
AA5
AA6
AA7
162
163
164
165
166
167
168
169
170
171
172
173
174
175
176
177
145
146
147
148
149
150
151
152
AA0
AA1
AA2
AA3
AA4
AA5
AA6
MAD1
MAD2
MAD3
MAD4
MAD5
MAD6
MAD7
MAD8
MAD9
MAD10
MAD11
MAD12
MAD13
MAD14
MAD15
7
2
3
P
6
2
2
P
5
2
1
P
4
2
0
P
3
1
9
P
2
1
8
P
1
1
7
P
0
1
6
P
8
1
5
P
7
1
4
P
6
1
3
P
5
1
2
P
4
1
1
P
3
1
0
P
2
9
P
1
8
P
9
7
P
8
6
P
6
5
P
5
4
P
4
3
P
3
2
P
2
1
P
1
0
P
1
5
C
D
M
1
4
C
D
M
1
3
C
D
M
1
2
C
D
M
1
1
C
D
M
1
0
C
D
M
9
C
D
M
8
C
D
M
7
C
D
M
6
C
D
M
5
C
D
M
4
C
D
M
3
C
D
M
2
C
D
M
1
C
D
M
0
C
D
M
AA7
MBD6
MBD7
133
134
MBD6
MBD8
135
MBD7
MBD8
MBD9
MBD10
136
137
MBD9
MBD11
138
MBD10
MBD11
MBD12
MBD13
140
141
MBD12
MBD13
MBD14
MBD15
143
144
MBD14
MBD15
ENAVDD
SHFCLKMLP
SHFCLKMLP
M
SHFCLK
FLM
FLM
ENAVDD
R104
LP
FLM
ENAVDD
ENAVEE
ENAVEE
33
ENAVEE/ENAVDD
ENAVEE
ENABKL
ENABKL
33
R105
123
125
126
124
5354706968676261556058576564101
WEB
ACTI
RASB
CASBL
CASBH
ENABKL
560
R120
RSET
RED
RED
R
GREEN
BLUE
GREEN
BLUE
B
G
BHSYNC
BVSYNC
BHSYNC
BVSYNC
VSYNC
HSYNC
103
RASC
CASCH
104
102
CASCL
CGN CGN
CVC CVC
M M M
M M M
100
WEC
G G G
I I
DGN DGN B B B B A
I I V V V DVC B B A
OEC
NDC N N G G
G G G G G
V V CCC C C
V V V
R2
0
655OPCI
VCC3
VCC
VCCM
R51
208
1
D
202
0
D
206
1
C
205
2
C
105 139
B
D
161
A
D
184
N
D
7
7
N
D
8
9
D
6
3
D
5
2
N
D
3
9
N
D
2
6
N
D
1
2
N
D
5
6
N
D
181
C
C
8
0
C
C
108 142
B
C
158
A
C
6
6
C
4
2
C
C
9
C
C
5
9
C
C
246
JP913
C61
FB8
2
1
+
C63
5
.1U
10U
HEADER 3X2
BEAD
0
VCCI
C/BE0
C/BE1
C/BE2
STOP
-STOP
PAR
-STOP
PAR
PAR
C -BE0
C -BE1
C -BE0
C -BE1
C/BE3
10
C -BE2
C -BE3
C -BE2
C -BE3
VCC
RESET
CLK
PERR
29
207
201
-PCI RST
PCLK3
-PERR
-PCI RST
R52
4.7K
SERR
30
-SERR
STNDBY
178
ROMA0
179
180
ROMA1
IDSEL MAD0
FRAME
IRDY
TRDY
DEVSEL
11
222324252731433221
-FRAME
-IRDY
-TRDY
-DEVSEL
A D21
-TRDY
-IRDY
-FRAME
-DEVSEL
ROMA2
182
183
ROMA3
ROMA4
185
187
ROMA5
ROMA6
189
191
ROMA7
ROMA8
192
190
ROMA9
ROMA10
186
188
ROMA11
ROMA12
ROMA13
193
194
ROMA14
ROMA15
196
195
ROMA16
ROMA17
197
198
ROMOE
XTALI
203
154
200
10K
R63
OCS
VCC
— 99 —
32KHZ
HREF
VREF
99
98
515049484746454441403837363534
A D00
4.7K
4.7K
R106
R107
A D[0..31]
A D[0..31]
AD00
A D01
AD01
A D02
AD02
A D03
AD03
A D04
AD04
A D05
AD05
A D06
AD06
A D07
AD07
A D08
AD08
A D09
AD09
A D10
AD10
A D11
AD11
A D12
AD12
A D13
AD13
AD14
33
A D14
A D15
AD15
AD16
AD17
AD18
AD19
AD20
AD21
20191817161514
A D16
A D17
A D18
A D19
A D20
A D21
AD22
AD23
AD24
8765432
13
A D22
A D23
A D24
A D25
AD25
A D26
AD26
A D27
AD27
A D28
AD28
A D29
AD29
A D30
AD30
1
A D31
AD31
VCC
AVCC
FB6
VCC
C42
FB2
10U
+
C44
.1U
2 1
C56
10U
+
C53
.1U
C64
10U
+
C60
.1U
2 1
Loading...