Getting Started with FPGAs and CPLDs

This page has my rough notes about various CPLD and FPGA development boards.

Terasic DE10-Lite FPGA board

The DE10-Lite is fitted with an Altera MAX10 FPGA.

The actual FPGA is: 10M50DAF484C6GES

The software suite that I am using to program it is “Intel Quastus Prime 17.1”.

3.3V-to 5V Interfacing

Analog Devices MT-098 Tutorial

Options for doing the level translation include:

OMNIBUS Interfacing

Steve Lafferty’s webpage on the OMNIBUS 32K RAM board has extensive notes regarding the ICs used by DEC.

Eric Smith’s webpage on DEC bus interface chips also has lots of useful information.

The key points are:

  • The standard receiver was a “DEC 380” also known as an “SP380”. These are still available on eBay.
  • The standrad Transmitter was a “DEC 8881”. It is an open-collector driver. Output voltage is typically 0.4-0.6 (maximum 0.8V) when sinking 50mA. It is commonly thought that the 8881 is a DEC-rebranded 7439.

In 2014, Vince put together a 32K RAM board based on Steve’s design. Vince’s webpage is here, and the PDF of the schematic is here.

The “omniusb” prject uses 7438’s to drive the bus. Its an open-collector 4 x NAND gate, with a maximum output voltage of 0.4V when sinking a 48mA load. The datasheet for the 7438 is here.

A 7406 or 7407 could probably also be used to drive the bus 9they both have open-collector outputs). However, they can only sink 40mAwith an output voltage of 0.7V. The 7406 datasheet is here.

Resources

NandLand’s Verilog Totorials and Examples

Youtube video: How to create a Quartus Prime project from scratch and assign pins for the DE10-Lite

Nandland’s page on tri-state outputs in Verilog.

Verilog on the ATF1508

It has been mentioned to me that an old version of Altera’s Quartus II software can be used to develop in Verilog or VHDL to target the Atmel ATF1508AS device.

The process is documented in Atmel’s Application Note 0916.

The main steps are:

  • Download and install a version of Quartus II that supported the MAX7000 series (ie version 13.0 SP 1). Make sure you tick the box to download the MAX7000 device support.
  • In Quartus, target the MAX7000 part that has 128 macrocells. I selected EPM7128SLC84-15. Do the pin assignments in Qartus, as if you were intended to use the Altera device.
  • After compiling your design in Quartus, use Atmel’s “pof2jed” Windows utility to convert the .pof file (generated by Quartus) to a .jed file. Note it is important to set JTAG Mode to “On” (rather than “Auto”) and to rick “Enable TDI_PULLUP” and “Enable TMS_PULLUP”, to make sure the JTAG port remains enabled after the programmer operation is completed (so the device can later be re-programmed via the JTAG interface).
  • Program the JEDEC file into the ATF1508AS via a JTAG programmer. Note that you won’t be able to use the Quartus II Programmer software (in comination with a USB Blaster) for this task. The Quartus II Programmer will see the Atmel ATF1508AS in the JTAG chain, but won’t allow a .JED file to be downloaded to it. Instead, you need to use the Atmel ATMISP7 programmer application (in Windows) in combination with the Atmel xxxx1150 JTAG programmer.

Some additional information about the Atmel JTAG interface (and a screenshot showing the pof2jed application) is included in Atmel’s ATF15xx In-System Programming User Guide.

Further information about Atmel’s ATMISP software is available here -> http://www.microchip.com/design-centers/programmable-logic/spld-cpld/tools/software/atmisp.

Note there is also some more information about the JTAG interface (including recommended pull-up and pull-down resistors) in Altera’s Application Note 95.

Setting up a new project in Quartus Prime 17.1

Here are the key steps:

  • Using Windows Explorer, create a new directory somewhere to hold your project files.
  • From within Quartus, select File -> New Project Wizard
  • At the “Directory, Name, Top-Level Entity” screen: Select the directory that you just created, and give the project a name. Do not use a hyphen in the project name.
  • On the next screen, select “Empty project” (rather than Project template).
  • On the next screen (“Add Files”), just click “Next”
  • On the next screen (“Family, Device & Board Settings”), select this device -> 10M50DAF484C6GES
  • On the next screen (“EDA Tool Settings”), for “Simulation” select “ModelSim-Altera”

You should now be back in the main screen of Quartus. In the “Project Navigator” panel in the top-left corner, you should see a line listing your device, and a line below it with the name of your top-level file (which doesn’t yet exist).

Click on the left-most icon on the toolbar (“New”). In the listbox that appears, select “Verilog HDL File” and click OK. Your new blank file appears in the editor window. Click on the “Save” icon on the toolbar.

Type in your Verilog file, and save it.

The next task is to map your Verilog I/O signals to the pins on the FPGA.

Select Assignments -> Pin Planner

input i_clock;
input i_enable;
input i_switch_1;
input i_switch_2;
output o_led_drive;

EP2C5 Cyclone II Mini Board

This is a cheap FPGA development board that can be found (in April 2018) on eBay for around A$20.

It comes with no documentation. You can download the schematic and PCB layout from here.

A simple “Getting Started” guide is available here -> http://www.leonheller.com/FPGA/FPGA.html

The next 3 paragraphs largely come from Leon Heller’s web-page. So please look there for a fuller description.

This board is fitted with an Altera EP2C5T144C8 Cyclone II FPGA. It has 4068 logic elements, 26 x 4k RAM blocks giving a total of 119,898 bits, 13 multipliers, two PLLs, and 89 I/Os. Maximum clock frequency is 300 MHz.

Designs are developed for this board using Quartus II 11.0 Web Edition software from the Altera web site.

The board is fitted with a EPCS4 flash configuration memory chip, and a 50 MHz oscillator. Most of the I/Os are brought out to four 2×14 way headers, which may be connected to external circuitry via wire jumpers, or PCBs fitted with matching sockets. Three LEDs are connected to pins 3, 7 and 9, and a push-button is connected to pin 144.

My stock of MAX7000 CPLDs

To be programmable over JTAG, the device needs to be the “s” version (eg EPM7128S).

Here’s the list of MAX7000’s that I’ve acquired to date:

  • 5 x EPM7128SLC84-15 purchased on eBay from China on 11/04/2018. Total price US$6.40 for the lot, including postage. They arrived “JTAG locked”. I shipped them to Bruce in the U.S. and he unlocked them (on a Data I/O 2900?). He kept 3 and returned 2 to me. I’m using 2 of these currently (7/2024), one in the Omnibus high-speed serial board, and the other in the Omnibus 32K/bootloader board.
  • 4 x EPN7128SLC84-15’s were purchased for US$3.05 each (plus small postage cost) from utsource on 15/05/2018 (along with 2 x ATF1508’s). As of 07/2024, I’m not sure what happened to these.
  • 20 x EPM7128SLC84-15. Purchased on eBay for US$25.60 (for QTY 20) plus US$2.56 postage on 15/03/2020. Order quantity was 20, but 25 were delivered. They looked to be new (were still in individual plastic carriers). I tested one of them in July 2024 and it programmed just fine over JTAG interface.
  • 5 x EPM7128SLC84-15N purchased on Aliexpress for A$25.12 on 09/07/2024. These all turned out to be OK, but were difficult to program initially. I suspect they had significant oxidisation on the leads. They were JTAG locked, but with perserverance I was about to unlock them on the Altera LP6. The LP6 kept reporting “pin continuity” errors (and so wouldn’t start a programming cycle), but with multiple attempts at cleaning and sanding the legs, each eventually was able to be programmed (and hence JTAG unlocked) on the LP6. Subsequently, each was able to be JTAG programmed using the Altera USB Blaster. However, again, this took several attempts.

Quartus II for MAX7000 Series

The current version of Quartus as at May 2018 (Quartus Prime 17.1) does not support the old MAX7000 series, such as the EPM7128SLC84-15.

So I downloaded and installed “Quartus II Web Edition” version 13.0sp1. You can choose between 3 download options: Combined Files, Individual Files or DVD Files. I chose the “Individual Files” option, but later came back and downloaded the “DVD FIles”.

To download the Quartus II software you must be logged into your “myAltera” account. Otherwise you will be presented with a “Sign In” screen when you try to commence the download.

You will be given a choice between two Download Methods: “Akamai DLM3 Download Manager” or “Direct Download”. If you choose the former, you will be prompted to download and install the Akamai download software, before the download of Altera software proceeds.

Before commencing the “Individual Files” download operation, I selected the following components:

  • Quartus II Software
  • ModelSim-Altera Starter Edition
  • Arria II
  • Cyclone II/III/IV
  • Cyclone V
  • MAX II, MAX IV, MAX 3000, MAX 7000
  • Quartus II Programmer and SignalTap II
  • Quartus II Help

This resulted in a download of 4.07GB.

During the installation process, it reported that the required disk space was 10622MB.

This software installed fine on Windows 10 on my Surface Pro 4. However, the Quartus II Programmer was unable to see any devices on the JTAG chain (though the application could see the USB Blaster), and it caused Windows to crash every 10 minutes or so.

This problem is documented by Altera on this web page. I downloaded the updated USB Blaster drivers that are mentioned on that page. They are available from here -> https://www.altera.com/content/dam/altera-www/global/en_US/kdb/rd05162012_935/usb-blaster.zip.

I deleted the old drivers without any trouble. But when I tried to install the “new” (November 2011) drivers, Windows 10 reported a “bad hash” (or similar message) and refused to install them. It turns out this is because the drivers are unsigned. You need to go through a special shutdown/restart process to allow the unsigned drivers to be loaded. The process is shown on this Youtube video. After following that process, I installed the new drivers successfully. The Quartus II Programmer was now able to see the JTAG chain, and the computer-crashing problem ceased.

Update July 2024

I decided to install Quartus II 13.0 SP1 on a Pentium 3 machine (my Super P3-500 tower). Basic specs of that machine are:

  • Pentium III, 500 Mhz
  • Motherboard: XXX
  • 32GB DOM SSD IDE hard drive
  • 384MB PC100 168-pin SDRAM
  • 2 x USB 1.0 ports
  • Video card:

I first installed Windows XP SP3 using the VL (Volume Licensing) software and CDKEY downloaded from archive.org. This version appears not to need to “phone home” to Microsoft to validate the CDKEY (whereas the SP2 VL does need to do that validation within the first 30 days).

I then installed Quartus II 13.0 SP1, the Help files, and MAXII family devices (Files “QuartusSetupWeb-13.0.1.232.exe”, “QuartusHelpSetup-13.0.1.232.exe” and “max_web-13.0.1.232.qdz”). By having these 3 files in the same temporary directory (or on a USB stick), Quartus II will give you the option to install the main software, the help files, and the devices at the same time. The install of Quartus II went smoothly (but took approximately 2.5 hours from a USB stick on a USB 1.0 port), but it would not run. It reports the following error: “The application failed to initialize properly (0xc0150002). Click on OK to terminate the application”. It turns out this is because the “Microsoft Visual C++ Redistributable” has not been installed. I found and installed the 2005 version of the redistributable. It installed fine, but the error persisted. So I deleted that and installed the 2008 redistributable (filename is “vcredist_x86 (2008).exe”. Finally, success! Quartus II 13.0 SP1 now runs fine on the PIII-500 machine.

I then investigated what programmers are supported by this setup. ByteBlaster (parallel port cable) is supported without any need for special drivers. USB Blaster is supported, but you first need to install [this driver] through Device Manager. And unfortunately the Altera LP6 ISA card is not found or supported by this version of Quartus II (even if it is plugged into the ISA slot).

Miscellaneous Resources

Youtube Video by Greg Crist: Getting started with Verilog Testbenches

Setting up Simulation in Quartus II

There are several ways this can be done.

For example, you can write code in Quartus II that will define the output timespan and resolution, and provide the simulation inputs.

I prefer the ‘Univeristy Program VWF” graphical approach. This involves using File -> New to create a graphical display of inputs and outputs, and using Edit -> Value -> Overwrite Clock to stimulate the inputs. This technique is described in this YouTube video -> Creating a Waveform Simulation for Altera FPGAs (Quartus version 13 and newer) (Sec 4-4B )

To make this work in Quartus II 13.0sp1, I had to make a change that is approximately described in this Altera webpage. The steps are as follows:

  • Locate the file \modelsim_ase\modelsim.ini and turn off “read-only” mode in file properties.
  • Edit that file. In the “Library” section, add the following line: “max7000s_ver = C:\altera\13.0sp1\modelsim_ase\altera\verilog\max”

Testing of 32K CPLD Board – June 2018

.DIR DHK???.*



DHKAAB.DG  15            DHKAFA.DG  14            DHKLDA.DG  15
DHKABA.DG   4            DHKAGA.DG  11            DHKMAD.DG  17
DHKACA.DG   5            DHKEBB.DG  17            DHKMCC.DG  14
DHKADA.DG   4            DHKECA.DG  12            DHKPAB.DG   3

  12 Files in  131 Blocks -    1 Free blocks

.R DHKMAD.DG


PDP-8E EXT MEM DATA & CHKBD

KM8 SELECTED FOR TESTING
SELECT FIELD PARAMETERS

SR=0007

SELECT TEST PARAMETERS

SR=0007

03 FIELDS IN THIS SYSTEM
FIELDS SEL'D ARE 0:210
PROG WILL RELOCATE
END OF PASS 0001
END OF PASS 0002
END OF PASS 0003
END OF PASS 0004
END OF PASS 0005^C
.

[Halted the system, installed the 32K RAM board with only Field 3 enabled]

.R DHKMAD.DG


PDP-8E EXT MEM DATA & CHKBD

KM8 SELECTED FOR TESTING
SELECT FIELD PARAMETERS

SR=0007

SELECT TEST PARAMETERS

SR=0007

04 FIELDS IN THIS SYSTEM
FIELDS SEL'D ARE 0:3210
PROG WILL RELOCATE
PR LOC  FAIL ADR  GOOD  BAD  PATTERN
001462  030000    0000  4000 ALL 1 - 1C
001462  030000    7777  3777 ALL 1 - 2C
001462  030002    0000  4000 ALL 1 - 1C
001462  030002    7777  1777 ALL 1 - 2C
001462  030004    0000  6000 ALL 1 - 1C
001462  030010    0000  6000 ALL 1 - 1C
001462  030020    0000  4000 ALL 1 - 1C
001462  030020    7777  3777 ALL 1 - 2C
001462  030021    0000  4000 ALL 1 - 1C
001462  030021    7777  3777 ALL 1 - 2C
001462  030022    0000  6000 ALL 1 - 1C
001462  030022    7777  3777 ALL 1 - 2C
001462  030023    0000  4000 ALL 1 - 1C
001462  030023    7777  3777 ALL 1 - 2C
001462  030024    0000  4000 ALL 1 - 1C
001462  030024    7777  3777 ALL 1 - 2C
001462  030025    0000  4000 ALL 1 - 1C
001462  030025    7777  3777 ALL 1 - 2C
001462  030026    0000  4000 ALL 1 - 1C
001462  030026    7777  3777 ALL 1 - 2C
001462  030027    0000  4000 ALL 1 - 1C
001462  030027    7777  1777 ALL 1 - 2C
001462  030030    0000  4000 ALL 1 - 1C
001462  030030    7777  3777 ALL 1 - 2C
001462  030031    0000  4000 ALL 1 - 1C
001462  030031    7777  3777 ALL 1 - 2C
001462  030032    0000  6000 ALL 1 - 1C
001462  030032    7777  1777 ALL 1 - 2C
001462  030033    0000  4000 ALL 1 - 1C
001462  030033    7777  3777 ALL 1 - 2C
001462  030034    0000  4000 ALL 1 - 1C
001462  030034    7777  1777 ALL 1 - 2C
001462  030035    0000  4000 ALL 1 - 1C
001^C
.

Next set is with the OE equation simplified


.
.R DHKMAD.DG


PDP-8E EXT MEM DATA & CHKBD

KM8 SELECTED FOR TESTING
SELECT FIELD PARAMETERS

SR=0007

SELECT TEST PARAMETERS

SR=0007

04 FIELDS IN THIS SYSTEM
FIELDS SEL'D ARE 0:3210
PROG WILL RELOCATE
PR LOC  FAIL ADR  GOOD  BAD  PATTERN
001462  030406    0000  0050 ALL 1 - 1C
001462  030446    0000  0040 ALL 1 - 1C
001462  030506    0000  0050 ALL 1 - 1C
001462  030550    0000  0010 ALL 1 - 1C
001462  030626    0000  0010 ALL 1 - 1C
001462  030632    0000  0010 ALL 1 - 1C
001462  030646    0000  0050 ALL 1 - 1C
001462  030650    0000  0050 ALL 1 - 1C
001462  031400    0000  0050 ALL 1 - 1C
001462  031401    0000  0040 ALL 1 - 1C
001462  031403    7777  7737 ALL 1 - 2C
001462  031405    0000  0040 ALL 1 - 1C
001462  031407    0000  0040 ALL 1 - 1C
001462  031410    0000  0050 ALL 1 - 1C
001462  031411    0000  0040 ALL 1 - 1C
001462  031412    7777  7727 ALL 1 - 2C
001462  031414    7777  7727 ALL 1 - 2C
001462  031415    7777  7737 ALL 1 - 2C
001462  031417    0000  0040 ALL 1 - 1C
001462  031432    0000  0010 ALL 1 - 1C
001462  031436    0000  0010 ALL 1 - 1C
001462  031441    0000  0040 ALL 1 - 1C
001462  031443    0000  0040 ALL 1 - 1C
001462  031445    0000  0040 ALL 1 - 1C
001462  031447    0000  0040 ALL 1 - 1C
001462  031451    0000  0040 ALL 1 - 1C
001462  031453    0000  0040 ALL 1 - 1C
001462  031453    7777  7737 ALL 1 - 2C
001462  031455    7777  7737 ALL 1 - 2C
001462  031456    0000  0010 ALL 1 - 1C
001462  031472    7777  7767 ALL 1 - 2C
001462  031476    7777  7767 ALL 1 - 2C
001462  031501    0000  0040 ALL 1 - 1C
001462  031503    7777  7737 ALL 1 - 2C
001462  031505    0000  0040 ALL 1 - 1C
001462  031507    0000  0040 ALL 1 - 1C
001462  031510    0000  0050 ALL 1 - 1C
001462  031512    0000  0050 ALL 1 - 1C
001462  031513    0000  0040 ALL 1 - 1C
001462  031515    0000  0040 ALL 1 - 1C
001462  031517    0000  0040 ALL 1 - 1C
001462  031541    0000  0040 ALL 1 - 1C
001462  031543    0000  0040 ALL 1 - 1C
001462  031547    0000  0040 ALL 1 - 1C
001462  031550    0000  6001 ALL 1 - 1C
001462  031552    0000  0050 ALL 1 - 1C
001462  031556    0000  0050 ALL 1 - 1C
001462  031572    0000  0010 ALL 1 - 1C
001462  031576    0000  0010 ALL 1 - 1C
001462  031601    0000  0040 ALL 1 - 1C
001462  031603    0000  0040 ALL 1 - 1C
001462  031605    0000  0040 ALL 1 - 1C
001462  031607    0000  0040 ALL 1 - 1C
001462  031610    0000  0050 ALL 1 - 1C
001462  031611    0000  0040 ALL 1 - 1C
001462  031612    0000  0050 ALL 1 - 1C
001462  031613    0000  0040 ALL 1 - 1C
001462^C
.

Next block shows what happens now the 74LS14 has been added:

.NOW FIELDS 3,4,5,6,7 ARE SWITCHED TO ACTIVE
NOW?
.R DHKMAD.DG


PDP-8E EXT MEM DATA & CHKBD

KM8 SELECTED FOR TESTING
SELECT FIELD PARAMETERS

SR=0007

SELECT TEST PARAMETERS

SR=0007

10 FIELDS IN THIS SYSTEM
FIELDS SEL'D ARE 0:76543210
PROG WILL RELOCATE
END OF PASS 0001
15
END OF PASS 0002
END OF PASS 0003
15
END OF PASS 0004
END OF PASS 0005
15
END OF PASS 0006
END OF PASS 0007
15
END OF PASS 0010
END OF PASS 0011
15
END OF PASS 0012
END OF PASS 0013
15
END OF PASS 0014
END OF PASS 0015
15
END OF PASS 0016
END OF PASS 0017
15
END OF PASS 0020
END OF PASS 0021
15
END OF PASS 0022
END OF PASS 0023
15
END OF PASS 0024
END OF PASS 0025
15
END OF PASS 0026
END OF PASS 0027
15
END OF PASS 0030
END OF PASS 0031
15
END OF PASS 0032
15
END OF PASS 0033
END OF PASS 0034
15
END OF PASS 0035
END OF PASS 0036
15
END OF PASS 0037
END OF PASS 0040
15
END OF PASS 0041
END OF PASS 0042
15
END OF PASS 0043
END OF PASS 0044
15
END OF PASS 0045
END OF PASS 0046
15
END OF PASS 0047
END OF PASS 0050
15
END OF PASS 0051
END OF PASS 0052
15
END OF PASS 0053
END OF PASS 0054
15
END OF PASS 0055
END OF PASS 0056
15
END OF PASS 0057
END OF PASS 0060
15
END OF PASS 0061
END OF PASS 0062
15
END OF PASS 0063
END OF PASS 0064
15
END OF PASS 0065
15
END OF PASS 0066
END OF PASS 0067
15
END OF PASS 0070
END OF PASS 0071
15
END OF PASS 0072
END OF PASS 0073
15^C
.
.BOARD NOW RELOACTED TO CENTRE OF CHASSIS (WAS JUST IN FRONT OF CORE)
BOARD?
.
.R DHKMAD.DG


PDP-8E EXT MEM DATA & CHKBD

KM8 SELECTED FOR TESTING
SELECT FIELD PARAMETERS

SR=0007

SELECT TEST PARAMETERS

SR=0007

10 FIELDS IN THIS SYSTEM
FIELDS SEL'D ARE 0:76543210
PROG WILL RELOCATE
END OF PASS 0001
15
END OF PASS 0002
END OF PASS 0003
15
END OF PASS 0004
END OF PASS 0005
15

On 09.07.2018, I finally worked out how to enter the SR values into DHKMAD.DG:

.R DHKMAD.DG


PDP-8E EXT MEM DATA & CHKBD

KM8 SELECTED FOR TESTING
SELECT FIELD PARAMETERS

SR=0007 0307

SELECT TEST PARAMETERS

SR=0307 0400

10 FIELDS IN THIS SYSTEM
FIELDS SEL'D ARE 0:76543
NO RELOCATION, PROG IN FIELD 0
15
15

09.07.2018: Here’s what I get if I replace the 74LS14 with a 74LS04:

.R DHKMAD.DG


PDP-8E EXT MEM DATA & CHKBD

KM8 SELECTED FOR TESTING
SELECT FIELD PARAMETERS

SR=0007 0307

SELECT TEST PARAMETERS

SR=0307 0400

10 FIELDS IN THIS SYSTEM
FIELDS SEL'D ARE 0:76543
NO RELOCATION, PROG IN FIELD 0
PR LOC  FAIL ADR  GOOD  BAD  PATTERN
001462  030376    0000  0400 ALL 1 - 1C
001462  031023    0000  4440 ALL 1 - 1C
001462  031035    0000  0440 ALL 1 - 1C
001462  031037    7777  7337 ALL 1 - 2C
001462  031065    0000  0400 ALL 1 - 1C
001462  031071    7777  7377 ALL 1 - 2C
001462  031074    0000  0400 ALL 1 - 1C
001462  031171    0000  4600 ALL 1 - 1C
001462  031174    0000  4600 ALL 1 - 1C
001462  031175    7777  7177 ALL 1 - 2C
001462  032574    0000  0600 ALL 1 - 1C
001462  033165    0000  0400 ALL 1 - 1C
001462  033171    0000  0600 ALL 1 - 1C
001462  033371    0000  0600 ALL 1 - 1C
001462  040204    7777  7357 ALL 1 - 2C
001462  040422    7777  7337 ALL 1 - 2C
001462  041075    0000  0420 ALL 1 - 1C
001462  042005    7777  7357 ALL 1 - 2C
001462  042045    0000  0420 ALL 1 - 1C
001462  042144    7777  7377 ALL 1 - 2C
001462  042155    7777  7357 ALL 1 - 2C
001462  042304    7777  7377 ALL 1 - 2C
001462  042411    7777  3777 ALL 1 - 2C
001462  042607    0000  4400 ALL 1 - 1C
001462  042611    0000  4000 ALL 1 - 1C
001462  042617    7777  3377 ALL 1 - 2C
001462  044004    7777  7377 ALL 1 - 2C
001462  044050    7777  7377 ALL 1 - 2C
001462  044151    7777  7377 ALL 1 - 2C
001462  044172    7777  7377 ALL 1 - 2C
001462  044213    7777  7377 ALL 1 - 2C
001462  044224    0000  0400 ALL 1 - 1C
001462  044251    7777  7377 ALL 1 - 2C
001462  044345    7777  7377 ALL 1 - 2C
001462  044356    7777  7357 ALL 1 - 2C
001462  050744    0000  0440 ALL 1 - 1C
001462  060073    7777  7337 ALL 1 - 2C
001462  060074    0000  0440 ALL 1 - 1C
001462  060074    7777  7337 ALL 1 - 2C
001462  060120    0000  0400 ALL 1 - 1C
001462  061341    0000  0440 ALL 1 - 1C
001462  061343    7777  7337 ALL 1 - 2C
001462  061345    0000  0400 ALL 1 - 1C
001462  061351    0000  0400 ALL 1 - 1C
001462  062320    7777  7177 ALL 1 - 2C
001462  062661    0000  0400 ALL 1 - 1C
001462  062764    0000  0600 ALL 1 - 1C
001462  063420    7777  3377 ALL 1 - 2C
001462  063544    7777  3377 ALL 1 - 2C
001462  063644    7777  3377 ALL 1 - 2C
001462  063700    0000  4400 ALL 1 - 1C
001462  063704    0000  4400 ALL 1 - 1C
001462  063704    7777  3377 ALL 1 - 2C
001462  064176    7777  7177 ALL 1 - 2C
001462  064323    0000  0600 ALL 1 - 1C
001462  064324    7777  7177 ALL 1 - 2C
001462  064334    7777  7177 ALL 1 - 2C
001462  064523    7777  3377 ALL 1 - 2C
001462  065140    7777  7377 ALL 1 - 2C
001462  065344    0000  0420 ALL 1 - 1C
001462  065420    7777  3377 ALL 1 - 2C
001462  065424    7777  3377 ALL 1 - 2C
001462  065444    0000  4400 ALL 1 - 1C
001462  065504    0000  4400 ALL 1 - 1C
001462  065550    0000  4400 ALL 1 - 1C
001462  065600    0000  4400 ALL 1 - 1C
001462  065644    0000  4400 ALL 1 - 1C
001462  066007    7777  7377 ALL 1 - 2C
001462  066115    7777  7357 ALL 1 - 2C
001462  066214    7777  7377 ALL 1 - 2C
001462  066311    7777  7377 ALL 1 - 2C
001462  066322    0000  4000 ALL 1 - 1C
001462  066347    7777  7357 ALL 1 - 2C^C
.

Testing various Altera software packages for compatibilty with LP6

First I tried :Quartus II 4.2″ on Vectra VE PII-333 under Windows 98. It installed and ran fine. However it does NOT seem to recognise the installed LP6 and MPU. When the “Quartus II 4.2 Programmer” application is run, it only provides the following options:

  • ByteBlasterMV or ByteBlaster II
  • MasterBlaster
  • EthernetBlaster

Next I tried that “Max+Plus II v10.1” CD. Running setup offered a full installation, which I initially declined because it refused to proceed unless Adobe Acrobat V.4 was installed (which it wasn’t). However, it offered to let me install the Student Edition, and so I did that. That version does support the LP6 programmer, and it passed the self-test (which required the 84-pin PLCC adapter to be removed from the MPU unit). However, the Student Edition is crippled (the Simulator and Timing Analyzer are both disabled) so I don’t recommend this as a long-term solution.