a date which will live in infamy

Mr. Vice President, Mr. Speaker, Members of the Senate, and of the House of Representatives:

Yesterday, December 7th, 1941—a date which will live in infamy—the United States of America was suddenly and deliberately attacked by naval and air forces of the Empire of Japan.

The United States was at peace with that nation and, at the solicitation of Japan, was still in conversation with its government and its emperor looking toward the maintenance of peace in the Pacific.

Indeed, one hour after Japanese air squadrons had commenced bombing in the American island of Oahu, the Japanese ambassador to the United States and his colleague delivered to our Secretary of State a formal reply to a recent American message. And while this reply stated that it seemed useless to continue the existing diplomatic negotiations, it contained no threat or hint of war or of armed attack.

It will be recorded that the distance of Hawaii from Japan makes it obvious that the attack was deliberately planned many days or even weeks ago. During the intervening time, the Japanese government has deliberately sought to deceive the United States by false statements and expressions of hope for continued peace.

The attack yesterday on the Hawaiian islands has caused severe damage to American naval and military forces. I regret to tell you that very many American lives have been lost. In addition, American ships have been reported torpedoed on the high seas between San Francisco and Honolulu.

  • Yesterday, the Japanese government also launched an attack against Malaya.
  • Last night, Japanese forces attacked Hong Kong.
  • Last night, Japanese forces attacked Guam.
  • Last night, Japanese forces attacked the Philippine Islands.
  • Last night, the Japanese attacked Wake Island.
  • And this morning, the Japanese attacked Midway Island.

Japan has, therefore, undertaken a surprise offensive extending throughout the Pacific area. The facts of yesterday and today speak for themselves. The people of the United States have already formed their opinions and well understand the implications to the very life and safety of our nation.

As Commander in Chief of the Army and Navy, I have directed that all measures be taken for our defense. But always will our whole nation remember the character of the onslaught against us.

No matter how long it may take us to overcome this premeditated invasion, the American people in their righteous might will win through to absolute victory.

I believe that I interpret the will of the Congress and of the people when I assert that we will not only defend ourselves to the uttermost, but will make it very certain that this form of treachery shall never again endanger us.

Hostilities exist. There is no blinking at the fact that our people, our territory, and our interests are in grave danger.

With confidence in our armed forces, with the unbounding determination of our people, we will gain the inevitable triumph—so help us God.

I ask that the Congress declare that since the unprovoked and dastardly attack by Japan on Sunday, December 7th, 1941, a state of war has existed between the United States and the Japanese empire.

President Roosevelt, Washington, D.C. on Dec. 8, 1941

Are we doomed to repeat this? How much worse will it be the next time?

an example of my work from 1980

I have carried this with me since I created it, starting in 1980, through my dating with my future wife, our marriage, and on down to my current home in Orlando. It’s been sitting in its case in the garage until I went out today, pulled it out, and took these photos of it. It is a single board computer (SBC) designed and built around a 6502 processor, the same processor that wound up in the Apple ][ and the Commodore computers of the era (PET, VIC-20, and C-64).

And believe it or not, I can still power it up and it still works. More or less…

This top-level view gives a better idea of the components and the density of the components. Again, keep in mind that this was built on a proto-board from the company I worked for at the time, Digital Communications Associates (DCA) of Atlanta. I was an engineer working for them (first a customer engineer, then a software engineer, then a field engineer; that last position is how I got to Orlando). It was interesting building this board because DCA used the Z-80 as the core of their SBC, then later, the Motorola 68000. I wanted to recreate, in essence, a cross between the Apple ][ and the C-64.

One reason I hang onto this board is the one lone chip from Rockwell International (you can see the logo on the lower 6522 chip), the conglomerate that made the Space Shuttle. Rockwell also had a chip division, and I picked up a kit of their industrial grade semiconductors back in the day. This board was initially meant for harsh industrial environments, not shirt-sleeve office areas.

Here are the specifications:

  • 4MHz 65C02 (before I put the board away in the garage, I upgraded the processor to a 65C802 and began to dabble with the extended 16-bit instructions).
  • Full 64K decoded address broken up between 48K SRAM, 16K EPROM, with 1K I/O. The SRAM addressing lost 1K to the I/O block.
  • Zero wait state/non refresh memory allowing for full 4MHz performance.
  • Western Digital WD 1770 IBM format compatible single-chip floppy disk controller (long since removed for another project). The Rockwell 6522 provided additional I/O controls on the floppy connector (see far left edge).
  • Phillips Electronics SCC 2692 Dual Universal Asynchronous Receiver/Transmitter (DUART). These chips came with separate input and output ports as well as full blown UART control pins, baud rates up to 38.4K, quad buffer registers, and timers. I had two on the board at one time, one was taken off for another project.

When it was fully populated with all its parts and running at full bore it was capable of handling up to four 3.5″ floppy disks, four separate serial channels, and capable of running with either the kernel and monitor I wrote, or a hacked version of Commodore Basic (yes, I said Commodore Basic) from the C-64. I’d disassembled C-64 Basic with an application called Sourcerer, modified the I/O routines to use my serial routines in my kernel, then loaded it into the SRAM from the floppy drives.

I’d gone to the trouble to write 6502 assembly routines to read, write, and manage the floppies using the MSDOS file system. That meant I could use an IBM PC with 3.5″ floppies installed (720K only) as an intermediary to set up the floppies, writing files I could read via my SBC. I hated how Woz had created the floppy controller and totally incompatible floppy format for the Apple ][, and I was no fan of the Commodore 1541 floppy drive either. When it came time to add disks to my SBC, it was IBM format compatibility with MSDOS support all the way.

In this age of multi-gigabyte, multi-gigahertz cell phones, something like this limited and slow look ludicrous. But back in 1983 when it was finished it was a decent tool for driving other computers for testing. And when I finally added my modified C-64 Basic to the toolkit, it because even more flexible. It was the computer I wanted, something that was powerful and flexible and anywhere from four to eight times faster than the C-64 and the Apple ][ at that time. But I didn’t push to productize it because I already saw the writing on the wall with the 16- and 32-bit processors that were hitting the market. For example, in 1985 I picked up a Compaq Computer 80386 computer as a loaner for evaluation. Just two years after I finished my SBC, and one year after adding a hacked Basic to my SBC. And keep in mind that the IBM PC was introduced back in 1981, and it was based on a 4.7MHz 8088, a 16-bit internal processor with an 8-bit buss.

Just to show you how much a prototype it really was, here’s the backside, all wire-wrapped. Yes, I wrapped every wire on every post using a commercial wire-wrap gun.

It’s fun to pull out, and I could probably re-create this board with up-to-date parts and probably my old firmware source code reassembled for the new hardware. But that would detract my attention away from the 6502’s spiritual descendant, the ARM processor and all the products built with it, like the majority of today’s smartphones.

And I’ll be writing about that in fairly short order.

If you’re wondering where this came from, it’s a copy from my old blog on Blogger. The post was originally published 6 October 2013. I’m pulling this post over because it’s hardware related around the 6502, a chip I was heavily into during the late 1970s and early 1980s. And it helps to explain why I still do what I do today. I’ve been a hardware and software developer for many decades, going back to the late 1970s.