here is the good work from Fabio Sturman (Italy) that is a new software for the ALL-03 /ALL-03A device programmer which allow to program new devices This new version allow you to program the 89c52 and 90s8515 microcontrollers. The program is still runing under MS-DOS. The implementation of a Windows driver for the SAC-201 board would be perhaps to hard for timing reasons. (Shift-Click to Download :218 Kb)

here is the archive of the expro60 Sunshine universal devices programmer which may be very similar to the Hilosystems all03. This archive includes the sources (equations) for the 3 PAL16R4 included in the expro60 named as follow : U5, U33, U35. and also diagram for the expro60. (Shift-Click to Download :780 Kb)
exp_u5.eqn (equations) , exp_u5.jed (jedec file)
this is expro60 programmer board(Motherboards) of the CHIPS (PALCE16V8H U5).

exp_u33.eqn (equations), exp_u33.jed (jedec file)
this is expro60 programmer board(Motherboards) of the CHIPS (PALCE16V8H U33).

exp_u35.eqn (equations), exp_u35.jed (jedec file)
this is expro60 programmer board(Motherboards) of the CHIPS (PALCE16V8H U35).

EXPRO-60 schematics (PDF - 8 pages -218Kb)

Diagrams of the EXPRO-60 :

Sheet 1 of 8 (EXPRO-60 INTERFACE PC)
Sheet 2 of 8 (EXPRO-60 SUB-BOARD PART I ALIM)
Sheet 3 of 8 (EXPRO-60 SUB-BOARD PART II ADRESS)
Sheet 4 of 8 (EXPRO-60 SUB-BOARD PART III LOGIC)
Sheet 5 of 8 (EXPRO-60 UP-BOARD PART I LATCH)
Sheet 6 of 8 (EXPRO-60 UP-BOARD PART II)
Sheet 7 of 8 (EXPRO-60 UP-BOARD PART III)
Sheet 8 of 8 (EXPRO-60 UP-BOARD PART IV)

here you will find the same information but for the expro80 including diagrams of the EXPRO80 and diagram and information to build a LPT1 parallel Port interface for the programmer.
LINK-P1 parallel adapter for the EXPRO60-80 (ALL03 also ?) to use with the release of the Expro60-80 dated 22 August 1996.
Use a standalone power power supply 220V -> +5,+12,-12. to power the programmer.

power ratings for a hilo all-03

Power: 5V - max. 0,5A (stand by) / max. 0,8A (aktiv)
12V - max. 0,3A (stand by) / max. 1,5A (aktiv)
-12V - max. 0,1A (aktiv)
Size: 262 mm x 142 mm x 45 mm

P16V8AS Chip Diagram: LINK-P1.abl LINK-P1.jed
--------------------------------------------------------------------------------
                                   P16V8AS
                         +---------\       /---------+
                         |          \     /          |
                         |           -----           |
                      I1 |  1                    20  | Vcc                     
                         |                           |
                      I2 |  2                    19  | !O19                    
                         |                           |
                      I3 |  3                    18  | !O18                    
                         |                           |
                      I4 |  4                    17  | !O17                    
                         |                           |
                      I5 |  5                    16  | !O16                    
                         |                           |
                      I6 |  6                    15  | !O15                    
                         |                           |
                      I7 |  7                    14  | !O14                    
                         |                           |
                         |  8                    13  | !O13                    
                         |                           |
                         |  9                    12  | !O12                    
                         |                           |
                     GND | 10                    11  | NC11                    
                         |                           |
                         |                           |
                         `---------------------------'
                        SIGNATURE: A1C6

Sunshine Expro60 / Expro80 User's Manual (72 pages 2.79Mb)

Power_100 User's Manual it includes Sunshine Expro-60, and Expro-80 User's Manual (PDF File 4.59Mb- 86 Pages)

Device driver for Win NT/2K/XP written by Hubert Sack (Germany) - Works only with patched software of the ALL03 or EXPRO 60/80 devices programmers & testers : (available under the terms of the Gnu Public License GPL)

Here Download the Driver Expro.sys in order to use an Hilosystems ALL03 / ALL03A or Sunshine Expro60 /80 with Windows XP/2000/NT Operating System. (Shift-Click to download - 1.09MB)

See how to install the driver with Windows XP Operating system through those shortcuts, and to verify the driver is already installed:

patched program for the HILO ALL03 (ZIP Archive - 1.64MB)

patched program for the Expro 60 /80 from Sunshine (ZIP Archive - 1.31MB)

Download file PROG.DEV from the Elektronikladen site. prog.dev is useful only if you use the all-03 software

To install the driver just copy EXPRO.SYS to the SYSTEMROOT\system32\drivers
folder and run INSTALLDRIVER. It installs the driver sets the startmode to
AUTOMATIC and starts the driver, so there is no need to restart the PC.
after installing the driver
it should appear "EXPRO-60/80" in the not plug and play drivers in the peripherals manager
The black windows is because "INSTALLDRIVER" is a console application. It
only do a few actions and exits (see the DELPHI project source
INSTALLDRIVER.DPR).
You can check that the driver is running in the control panel (see the
screencopy "DRIVER.JPG" how to find the information)
You can check it by a second way:
Open a console window ("CMD.EXE") and type NET STOP EXPRO
You must get a message that the service is stopped
After typing NET START EXPRO you must get the message that the service is
startet

keep address 2D0 (it is the address that I use with my SAC-201 ISA Card)
The ports 2E0 and 2F0 are
not supported by the driver because they may cause a dangerous conflict with
an existing COM3/4

A "file" (it's the symbolic link to the driver) \\.\EXPRO must be opened in the program, which wants to do I/O on the ports. Therefore only the patched programs in the attachment will work. That's because the I/O permission map at the end of the TSS-descriptor is modified by opening the driver. It's exactly the same way GIVEIO.SYS does, but not for the 64K I/O hole , because the keyboard, mouse etc. must be handled by NT/2K/XP like before.
With that "trick" the access to the port it as fast as under DOS because IOPL does not matter, there is NO interception. The ports 2E0 and 2F0 are not supported by the driver because they may cause a dangerous conflict with an existing COM3/4. The control to the Kernel is fully bypassed!

To install the driver just copy EXPRO.SYS to the SYSTEMROOT\system32\drivers folder and run INSTALLDRIVER. It installs the driver sets the startmode to
AUTOMATIC and starts the driver, so there is no need to restart the PC, but please if it doesn't work first, reboot your computer then test it again.

A short description what the driver does (you can find it in the internet if you search for GIVEIO.SYS from Dale Roberts, the driver uses exacly the same "trick"):

Every task (in NT/2K/XP it's called PROCESS) have it's own TASK STATE SEGMENT descriptor. The TSS register holds the descriptor. You can see the structure of a TASK STATE SEGMENT descriptor in the pictures here. Within the TSS structure is an offset-field which points to a bitmap. This bitmap is the I/O permission map. A "0" (bit, not byte !) allows the process to access the port. For each address there is a bit, so 64kbits for the full I/O address room is needed (8192 * 8 = 65536 = 64k). That's the reason why 2000h bytes of non cacheble memory is allocated by the driver. The bits of the addresses used for port I/O by EXPRO60/80 or ALL03 are cleared, all the other ones are set to "1".
The application only must open the "file". The kernel calls the "open" function of the driver.
It's executed within the context of the application process, but which CPL (current privileg level) of 0 (it's the highest). So the driver is able to "adjust" the I/O permission map of the task (e.g. process) to it's needs. Till now the application can do direct I/O calls to the port. That's all; but it's sounds easier than it really is: To reference a new I/O permission map you must call two undocumented operating system calls.

The patch program does a very simple thing: it adds the necessary code at the end of the original program image and adjusts the header. So after loading the additional code is executed first, which opens the driver to support the I/O permission for the process. There are only two DOS calls used: Open file and Close file. (Shift-Click to download - 8 KB)

To assemble the driver you must use the MASM32. It's free of charge and can be downloaded for the intel web site.

The install program for the driver is compiled via Borland Delphi 3.
The patch program is compiled by using Borland Pascal 7, but it can be compiled under Turbo Pascal 6, too. Only one line must be changed:
FUNCTION uppercase (CONST instr: STRING):STRING;
must be changed to:
FUNCTION uppercase (VAR instr: STRING):STRING;
Borland Pascal 7 allows "CONST" parameters, the resulting code is the same as using "VAR", but the compiler rejects all write references to the parameter because it's declared as read only (constant).

This resource may also be useful : http://www.codeproject.com/system/AsefPortAccess.asp

All03 Hardware IO Configuration (PDF - 913Kb)

1. I/O Control Concept:


Some basic concepts need to be explained.


The main control unit is on the adapter card (SAC-201).

There are two 8-bit I/O registers on the SAC-201 that are able to control all I/O devices on the ALL-03 main module.


Register name I/O address

IDPORT base address+0
DATAPORT base address+2


The base address is the I/O address of the SAC-201 as defined by DIP switches 1 and 2. These switches allow a choice of 16 possible base addresses from 200h to 2f0h (default is 2e0).

Every device on the ALL-03 main module can be controlled by writing its ID byte to the IDPORT and then reading from or writing to the DATAPORT (the ID bytes of the various devices will be shown below).

TABLE 2
Available control pins on test-socket:

1. VOPENID: 1, 5, 7, 9 to 32.


2. VHHENID: 9 to 32.


3. VCCENID: 40, 36, 34, 32, to 26, 9, 7, 5, 1.


4. VHHENCID: 32 to 28.


5. TTLID: all 40 pins can be defined as inputs or outputs.


Note: Devices that cannot use the previous pin definitions will require a special purpose external adapter.



Example: We wish to write the value 7fh to #1 D/A device (ID = e5h).


Assembly Language



idport equ 2e0h
dataport equ 2e2h


mov ax,0e5h ;id number setting
mov dx,idport
out dx,al
jmp $+2 ;device recovery time


mov ax,7fh ;data writing
mov dx,dataport
out dx,al
jmp $+2 ;device recovery time

C Language


#define idport 0x02e0
#define dataport 0x02e2


Outp (idport, 0xe5) ;/* ID number setting */
Outp (dataport, 0x7f) ;/* data writing */




2. ALL-03 Device ID Mapping and Definition:



The following describes each 8-bit device and its associated ID bytes:


Power Source D/A Voltage Level Setting Device:



e5h : #1 D/A named VOPID, full scale is 25.5 volt (400 ma), resolution is 0.1 volt, minimum voltage setting is 10.2 volt


Example: Writing 255 to device e5h will set the #1 D/A to 25.5 volt, writing 102 to e5h will set the D/A to 10.2 volt.


e6h #2 D/A named VHHID, full scale is 15.3 volt (400 ma) resolution is 0.06 volt, minimum voltage setting is 5.1 volt


Example: Writing 255 to device e6h will set the #2 D/A to 15.3 volt, writing 85 to e6h will set the D/A to 5.1 volt.


e7h #3 D/A named VCCID, full scale is 10.2 volt (1A) resolution is 0.04 volt, minimum voltage setting is 0 volt


Example: Writing 255 to device e7h will set the #2 D/A to 10.2 volt, writing 0 to e7h will set the D/A to 0 volt.

The levels of each power source can be set by the above three D/A devices. However, additional devices are required to apply these voltages to the specified test-socket pins.


TTL Level I/O Device:
--------------------


e0h TTLID+0
e1h TTLID+1
e2h TTLID+2
e3h TTLID+3
e4h TTLID+4


Total 40 bits assigned to 40 pins on test-socket. LSB of e0h is assigned to pin 1, and MSB of e4h is assigned to pin 40.
Each pin can be a TTL level input or output. Before inputting from the desired pin, the user must output a high to that pin.


Example: After writing an ID byte (TTLID+i) to the IDPORT, one can then output 8 bits to the DATAPORT or input 8 bits from the DATAPORT.


VOP Level Output Control Device:


e8h VOPENID+0
e9h VOPENID+1
eah VOPENID+2
ebh VOPENID+3
ech VOPENID+4


Total 40 bits assigned to 40 pins on test-socket.
LSB of e8h is assigned to pin 1, and MSB of ech is assigned to pin 40.


Writing a high to a particular bit will apply the VOP source to the relevant test-socket pin. Writing a low will disable the VOP source output to that pin.


Example: After writing ID byte VOPENID+1 to the IDPORT, and then outputting 8 bit data to the DATAPORT, VOP will be applied to the relevant test-socket pins 9 through 16 via a 22 ohm current limiting resistor.


Note: 1. Test-socket pins 2,3,4,6,8 and pins 33 to 40 have no VOP control circuit, so VOP cannot be output to these pins even though the relevant bit may have been set to high.


2. VOP must not be applied to any pin for more than one hour.


VHH Level Output Control Device:


f0h VHHENID+0
f1h VHHENID+1
f2h VHHENID+2
f3h VHHENID+3
f4h VHHENID+4


Total 40 bits assigned to 40 pins on test-socket.
LSB of f0h is assigned to pin 1, and MSB of f4h is assigned to pin 40.


Writing a high to a particular bit will apply the VHH source to the relevant test-socket pin. Writing a low will disable the VHH source output to that pin.


Example: After writing ID byte VHHENID+1 to the IDPORT, and then outputting 8 bit data to the DATAPORT, VHH will be applied to the relevant test-socket pins 9 through 16 via a 22 ohm current limiting resistor.


Note: 1. Test-socket pins 1 to 8 and pins 33 to 40 have no VHH control circuit, so VHH cannot be output to these pins
even though the relevant bit may have been set to high.


2. VHH must not be applied to any pin for more than one hour.


VCC Level Output Control:


edh VHHENID+0
eeh VHHENID+1


Total 16 bits assigned to 16 pins on test-socket.


edh b0 : pin 40 eeh b0 : pin 27
b1 : pin 36 b1 : pin 26
b2 : pin 34 b2 : pin 9
b3 : pin 32 b3 : pin 7
b4 : pin 31 b4 : pin 5
b5 : pin 30 b5 : pin 1
b6 : pin 29 b6 : not used
b7 : pin 28 b7 : not used


Writing a high to a particular bit will apply the VCC source to the relevant test-socket pin. Writing a low will disable the VCC source output to that pin.


Example: After writing ID byte VCCENID+0 to the IDPORT, and then outputting 8 bit data to the DATAPORT, VCC will be directly applied to the relevant test-socket pins 28 through 40.


VHH Level Output to Extra Pins Control Device:



The difference between these extra pins and the previously listed VHH pins is that these extra pins have no 22 ohm current limiting resistor in series with the VHH source. This is to permit some PAL VCC pins to be driven at high voltage (over 12 volts) and high current.


f5h VHHENCID+0
f6h VHHENCID+1


Total 16 bits assigned to 16 pins on test-socket.


f5h b0 : not used f6h : not used now
bl : not used
b2 : not used
b3 : pin 32
b4 : pin 31
b5 : pin 30
b6 : pin 29
b7 : pin 28


Writing a high to a particular bit will apply the VHH source to the relevant test-socket pin. Writing a low will disable the VHH source output to that pin.


Example: After writing ID byte VCCENCID+0 to the IDPORT, and then outputting 8 bit data to the DATAPORT, VHH will be directly applied to the relevant test-socket pins 28 through 32.


"Other Pins" Control Device:



Some additional pins not previously specified will be listed here.


efh OTHERENID


Total 8 bits assigned to 9 pins on test-socket


efh b0 : low will set pin 20 to ground
high will set pin 11, 30 to ground

bl : hi will output VOP (source - 2.4) volt to pin 7.
low will disable output.


b2 : hi will output VOP (source - 2.4) volt to pin 25.
low will disable output.


b3 : high will output oscillator TTL level to pins 2 and 3.
Each pin is the inverse of the other.
low will disable output.


b4 : high will output oscillator TTL level to pins 18 and 19.
Each pin is the inverse of the other.
low will disable output.


b5 : high will select 4.432 mhz oscillator
low will select 2.216 mhz oscillator


b6 : not used


b7 : not used


Note: 1. All devices are reset to a low output at PC power on.


2. Voltage drops exist between the power sources and the test socket pins. These voltage drop factors need to be included in the D/A power source level settings.


These voltage drops are:


VCC drop : 0.6 v, (= 15 steps)
VHH drop : 0.6 v, (= 10 steps)
VOP drop : 0.6 v, (= 6 steps)


Example: The following code sets the #1 D/A to 21 volt:


outp (IDPORT, VOPID)
outp (DATAPORT, 210+6)


3. Before inputting TTL levels, or outputting VOP, VHH, VCC voltages, the user must output a high to the specified pin.
Otherwise, the relevant TTL input, or the specified supply voltage will be pulled down to ground. This will result in damage to the affected supply.


4. In the version 1.0 of the Expro 40 we supply the source listing for TESTPRO.EXE. TESTPRO source is a good sample file for the user who wishes to develop his own software to program new devices.

here download this version of testpro with source code (this is a self-extracting archive) - Shift-Click to download (673Kb)

Source.gif scaled down to 800x600 pixels.
Right Click on your mouse and select View Image to see the original size (1371x1953 pixels)



Back to ALL03 Resources Page

If you have any comments or resources do not hesitate to contact me by email at matthieu.benoit@free.fr . Also If you have needs to get a SAC-201 Assembled and Fully tested board , Do not hesitate to contact me.

Email: matthieu.benoit@free.fr

24 décembre, 2023