Sony DX4, 486DX, AR-B1474 manual Software Programming, UV Eprom 27CXXX Switch Setting

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AR-B1474 User¡¦s Guide

ON

OFF 1 2 3 4 5 6 7 8

Figure 5-5 UV EPROM (27CXXX) Switch Setting

A

B

C

 

 

1

 

 

JP5

 

 

 

 

 

2

 

 

 

 

3

 

1

2

3

 

1MX8 EPROM (Only)

 

 

M1, M2 & M3

 

 

A

B

C

 

 

1

2

JP5

3

1 2 3

M1, M2 & M3

EPROM (128KX8, 256KX8 and 512KX8)

Figure 5-6 UV EPROM Jumper Setting

(2) Software Programming

Use the UV EPROM, please refer to the follow steps:

Step 1: Turn on the power and boot DOS from hard disk drive or floppy disk drive.

Step 2: Making a Program Group File (*.PGF file)

Step 3: Using the RFG.EXE to generate ROM pattern files, and counting the ROM numbers as the pattern files.

Step 4: In the DOS prompt type the command as follows.

C:\>RFG [file name of PGF]

Step 5: In the RFG.EXE main menu, choose the <Load PGF File> item, that is user editing *.PGF file.

Step 6: Choose the <Generate ROM File(s)>, the tools program will generate the ROM files, for programming the EPROMs.

Step 7: Program the EPROMs

Using the instruments of the EPROM writer to load and write the ROM pattern files into the EPROM chips. Make sure that the EPROMs are verified by the program without any error.

Step 8: Install EPROM chips

Be sure to place the programmed EPROMs (R01, R02 … .) into socket starting from MEM1 and ensure that the chips are installed in the sockets in the proper orientation.

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Contents Industrial Grade 486DX/DX2/DX4 CPU Card Page Table of Contents Specifications Placement & Dimensions Bios ConsoleMemory Banks & Programming RS-485 SSD Types Supported & IndexPreface Organization Static Electricity PrecautionsIntroduction OverviewPacking List FeaturesDMA Controller System ControllerKeyboard Controller DMA ControllerInterrupt Controller Interrupt Controller1 I/O Port Address Map Hex Range DeviceI/O Port Address Map Real-Time Clock and Non-Volatile RAM TimerAddress Description Real-Time Clock & Non-Volatile RAMISA Bus Pin Assignment ISA Bus Pin AssignmentName Description ISA Bus Signal DescriptionReceiver Buffer Register RBR Serial PortTransmitter Holding Register THR DlabInterrupt Identification Register IIR Interrupt Enable Register IERLine Control Register LCR Modem Control Register MCRModem Status Register MSR Parallel PortDivisor Latch LS, MS Register AddressData Swapper Printer Status BufferPrinter Control Latch & Printer Control Swapper Overview Setting UP the SystemRS-232 Connector DB1 & DB2 System SettingSerial Port RS-485 Adapter Select JP3 & JP11Hard Disk IDE Connector CN1 Power Connector J5HDD Pin Assignment FDD Port Connector CN2 Parallel Port Connector CN3CN3 6 PC/104 Connector Pin PC/104 Connector Bus a & B CN6Pin PC/104 Connector Bus C & D CN4 IRQ 3-7, 9-12, 14 PC/104 ISA Bus Signal DescriptionAMD DX2-80 CPU Select JP1 CPU SettingCPU Voltage Select JP2 AMD 4X CPU 5x86 Select JP15CPU Clock Select JP6 & JP9 CPU Clock SettingDram Configuration Memory SettingCache RAM Size Select JP8 SIMM1LED Header J1, J2 & J4 Keyboard ConnectorBattery Setting Reset Header J7External Speaker Header J3 CRT Display Type Select JP13Page Installation PGM1474.EXE Utility DisketteWD1474.EXE WP1474.EXEBU1474.EXE Help to PGF File Display Error in PGF FileDisable the Software Write Protect Enable the Software Write ProtectWrite Protect Function Hardware Write ProtectWatchdog Timer Setting Watchdog TimerTime-Out Setting Time Factor Time-Out Period SecondsWatchdog Timer Enabled Watchdog Timer TriggerWatchdog Timer Disabled Page Solid State Disk Switch Setting2 I/O Port Address Select SW1-1 & SW1-2 OverviewSSD Firmware Address Select SW1-3 & SW1-4 DEVICE=C\DOS\EMM386.EXE X=C800-CFFFSSD Drive Number SW1-5 & SW1-6 Simulate 2 Disk DriveFlash Eprom Sram Disk Drive Name Arrangement ROM Type Select SW1-7 & SW1-8SSD Bios Select JP7 Jumper SettingROM Disk Installation SSD Memory Type Setting M1 ~ M3 & JP5Switch and Jumper Setting UV Eprom 27CxxxSoftware Programming UV Eprom 27CXXX Switch SettingLarge Page 5V Flash Disk 5V Large Flash 29FXXX Switch SettingSmall Page 5V Flash ROM Disk 5V Flash 29CXXX & 28EEXXX Switch SettingTyping DOS Command Using Tool ProgramRAM Disk Jumper SettingHardware Setting Installation D.O.CSSD Bios Setting JP7 Combination of ROM and RAM DiskO.C. Setting SW1-8 Software SettingPage Bios Setup Overview Bios ConsoleDate & Time Setup Standard Cmos SetupFloppy Setup Hard Disk SetupAdvanced Cmos Setup IDE LBA Mode IDE Block Mode TransferInternal Cache Memory ShadowAdvanced Chipset Setup Power Management Password Checking Setting PasswordAuto Configuration with Optimal Setting Auto Configuration with Fail Safe SettingBios Exit Save Settings and ExitExit Without Saving Bios SpecificationsCPU PCBPage Placement Placement & DimensionsDimensions Memory Banks & Programming RS-485 Using Memory BankCS1 CS0 SocketProgramming RS-485 Initialize COM portSend out one character Transmit Send out one character to COM1 Receive dataPage SSD Types Supported SSD Types Supported & Index10-2 Name Function Index

DX4, AR-B1474, 486DX specifications

The Sony 486DX, AR-B1474, and DX4 are notable examples of advanced computing technologies from the early to mid-1990s, a time when personal computers were rapidly evolving to meet increasing user demands. These systems played a pivotal role in shaping the landscape of modern computing.

The Sony 486DX is built around the popular Intel 80486 microprocessor, which was a significant step up from its predecessor, the 386. The 486DX featured a 32-bit architecture and introduced integrated cache memory, which greatly enhanced data processing speeds and overall system performance. Operating at clock speeds typically ranging from 25 to 100 MHz, the 486DX models provided a solid foundation for running more sophisticated software applications and advanced games of the era.

Accompanying the 486DX was the AR-B1474 motherboard, designed to maximize the potential of the 486 architecture. This motherboard featured support for up to 512 KB of level 2 cache memory, further boosting performance for data-heavy tasks. The AR-B1474 also included extensive connectivity options, with ISA slots for legacy devices, as well as support for EISA, making it compatible with a wide range of hardware peripherals. This versatility made the AR-B1474 a popular choice among builders of custom desktop PCs during its time.

The DX4, another significant milestone, built upon the 486 architecture by introducing a clock-doubling technique. By effectively allowing the processor to perform operations at up to three times its base clock speed (typically 75 or 100 MHz), the DX4 could handle even more demanding applications, thereby providing users with significant performance improvements without requiring a complete overhaul of their systems.

Both the 486DX and DX4 processors facilitated advancements in multimedia capabilities, with improved graphics rendering and audio performance that supported CD-ROMs and early gaming technologies. This made them particularly appealing to consumers looking for a versatile machine for both work and entertainment.

Overall, the combination of the Sony 486DX, AR-B1474 motherboard, and DX4 processor exemplifies a significant chapter in computing history, showcasing how hardware advancements seamlessly integrated with user needs for performance and flexibility. As these technologies laid the groundwork for future innovations, they remain noteworthy for their contributions to the evolution of personal computing.
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