Electronics That Last: How I Built an Heirloom Laptop
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However what I truly enjoyed when reading this article was the detailed story of the design process for a project like this. Each detail found in the final design went through numerous experiments and iterations, while balancing the requirements for aesthetics, functionality, manufacturing process and sourcing the materials and components. A fascinating read.
Imho anything that wants to stand the tests of time should start with an examination of which material is best suited to the task. Is that wood? Is that composites? I don't know. I'd like to read about the same effort and creativity focused on building the best case possible.
PS: Since this guy encapsulated his wood in fiberglass it technically is a composite.
You can trivialize "style" if you want, but in this case, it is what makes the difference between "everybody else's laptop" and a beautiful work of craftsmanship.
(now if it was me, I would have done even more out of wood, such as the side panels)
Wrapping commodity electronic components in wood does not create 'electronics that last'.
Seems only the shell of this one is heirloom. Should be the key portion if true to the concept.
Although that's not nearly as bad as this one. SSD, fan, LCD, RAM, battery are all wear parts that won't survive a decade on average, and the rest is only marginally better.
http://www.mouser.co.uk/ProductDetail/Western-Design-Center-...
Mmm, 600nm process!
e.g. on the Z80 most compilers have to keep a copy of the stack pointer in an index register, so that they can address the stack; and even then the absence of 16-bit accesses means that you need eight bytes of code and like a billion cycles to read or write a single 16-bit value. (I do know that the Z80 variant in the Game Boy added a ld hl, (sp+offset) instruction, which helps; shame they didn't add a ld (sp+offset), hl instruction...)
The 6502 is even worse; the stack's limited to 256 bytes and isn't relocatable, let alone addressable. The C compilers I've seen maintain their own stack pointer in zero page. They also generate code which at best is terrible and at worst makes you want to claw your own eyes out to make the pain stop.
So:
(a) I'm curious to know what they wrote the Tamagotchi firmware in --- raw machine code? Forth? C? Fortran? (Fortran's actually a good match for these architectures because all variables, including function parameters, are global --- no stack frames required.)
(b) why was it cheaper to use a 6502 core rather than a more modern architecture --- PIC, AVR, MSP430? Licensing? An in-house team of 6502 experts?
All speculation based on business details at the time. I'd also like to know if it was cheaper or there was a talent advantage in mid-90's.
https://en.wikipedia.org/wiki/RCA_1802
Turns out, it's still around via Intersil with a very thorough datasheet:
http://www.intersil.com/en/products/space-and-harsh-environm...
Another trend is emulating them cycle for cycle and bug for bug with virtualization on modern hardware. Great example is replacing legacy VAXen with NuVAX:
So, there's possibilities for obsolete stuff to keep going. Just can't depend on that happening. Especially if it's a complex and modern SOC rather than simpler chips of the past.
So you could keep it working with some maintenance over the years.
Info here: https://www.crowdsupply.com/sutajio-kosagi/novena
If you think about old computers with their serial ports and floppy drives, it's hard to think these ports will still be in use decades from now.
So, it would have to be pluggable, open, inexpensive to prototype, and enough volume to spread prototype over users in maintenance.
The difficult physics of recent nodes almost guarantee that. It's why I encourage safety-critical designs to, where possible, rely on stuff made on older process nodes (350-500nm if possible). One of the older or newer 180nm's might be OK. Yet, it was the stuff closer to a micron that lastest decades where the modern stuff croaks all the time. Plus, more predictability and less interference from weird physics.
Naturally, that leads to a proposal to go NanGate on the situation to make a ton of custom cells and analog for 350nm. Automatically, of course. Throw in some rad-resistant ones, quad-logic, or something. Then can squeeze more life out of safer, longer-lasting processes if application doesn't demand GHz, etc. Also, can always do SMP or NUMA. :)
Also, attempting to replicate past eras through skeuomorphism is /so/ out right now, come back with flat minimalism.
The "/so/ out right now" bit was intended as a joke, btw.
I don't care about heirloom technology. But I would love to see very much better recyclability.
I suppose at some point we'll have waste-free nano-replication, and the idea that things are built and stay built will seem as quaint as comparing a wattle and daub hut to modern architecture.
I actually think the next design trend will be replicating past eras, but with a Hugh caveate, something this current retro trend overlooked; The retro looking products will be made to the same exacting standards of the products on the past.
I can use collector cars, or mechanical watches as examples.
I have a 1950's IWC movement 853 watch. I wouldn't trade this watch for the any newer IWC watch. There's just something about the simplicity of my watch I like, along with its unobtrusive look it has, the movement is time tested, and is easily serviced. I found mine in a cheap watch bin. It didn't look like it was touched for 50 years. I wound it up, and it kept perfect time. I knew is was a special watch, with a faded dial.
If I had the money, my weekend car would be a 50's-60's Porsche 356. Of course restored to factory standards. I wouldn't want them to change a thing.
As I gotten older, strike that--I've always coveted well made, sensible looking, easier to repair things. And that includes computers. I still have a Toshiba Satellite P25-S607 that's still running daily. It's a tank, but it's well made. It has three internal, quiet fans. I still kick myself I don't buy the nos Toshiba that popped up on eBay a few years ago. What I like best about that old Toshiba is I can still fix it with a screw driver. Some people don't like to look of my old computer. When I look at it, I look to its inner beauty, and it just shines in my little world.
I was expecting a steam-punk design before I clicked the link but, I wasn't disappointing at all.
Most are things that have a larger scale, gross appeal, aren't personal. A water wheel, a stone bridge, a building. Perhaps a gun, or a watch, comes closest.
Start with that and what would an heirloom computer look like?
Somewhere on the continuum of abacus, slide rule. What's the computational era's equivalent? An HP-11, HP-12 series calculator?
Sometimes I think: we're all making expendable shit.
I agree with your basic point: we all buy so much that is basically landfill.
The Imperial Regalia of Japan, if it still exists, is... really old. I can't find a date.
The anointing spoon of the British crown jewels dates from the 12th century, and is still used [2].
If we don't need something to be in continual use, then bronze age jewellery, or stone age flint knives.
[1] https://en.wikipedia.org/wiki/Imperial_Regalia_of_Japan
[2] https://www.royalcollection.org.uk/collection/31733/the-coro...
Leather goods last well, I have my father's belt but it's not in a state to pass down further.
http://archaeologynewsnetwork.blogspot.com/2015/04/worlds-ol...
Tutankhamun's metal ones from 3000 odd years ago look quite modern:
https://www.google.com/search?q=Tutankhamun+knife&num=20&tbm...
Rifles are functional for a long time as well.
Knives.
Jewelry.
I have my Dad's wooden abacus, which must be at least as old as I am (mid forties). It's obviously not Antiques Roadshow old, but as a child, I remember him using it for his bookkeeping instead of a calculator. He taught me how to use one, and as a kid, I got pretty quick at using it for simple arithmetic.
Of course, once tape calculators (and calculators in general) got cheaper, he stopped using it altogether. If I had kids, it's definitely something I would pass on.
> Huang has a cool thermal imaging device for his phone that he used to make this photo of the Heirloom showing the heat distribution
I'd be really interested if this is an affordable solution. A FLIR camera would be nice to have, but they're really expensive. Does anyone know what model he's talking about?
EDIT: Thanks everyone, looks like they've come down in price significantly. Almost cheap enough to buy one just for kicks.
They are $250. Resolution is increadbly small (gen two has 160x120), then upsampled. Still useful.
I have one of the Compact model, and I think it's paid for itself with a few repair jobs around the house.
Looks like something the Apple I could have gone into. Nothing beautiful about it.