But I hope that maybe atleast one reader will take me seriously.
Hi, everyone!
(Just a remark: i'm new at this forum so i haven't read that much... which - partially - explains my extactic further statement: 'It almost cut off my breath!')
I find it one of the best threads i've been through, so far, because it defies common-sense logic.com
I'm not an expert in computing, although a very interested... non-expert (...)
Actually, the basic statement "computers can [exist], [work], [function] without memory", can be proven both ways, 'right' & 'wrong' simultaneously, without stepping into metaphysics. It's the
modus operandi which is - definitely - wrong, according to the second law of thermodynamics (see 'entropy'.) [
Reductio ad absurdum: take the device's temperature down to [close] absolute zero and infer what happens then.] Perhaps surprisingly, it's the same 2nd law taken into the quantum realm that does not forbid both solutions: 'right' & 'wrong'.
It all comes down to electrons: taken as a current (voltage differential in a transistor's gate), it only basically matters their charge, their energy and the path width on whatever medium. It doesn't take into account (yet!) their spins, for instance (see 'spintronics'.). For a given amount of time, charge (current) can be stored on whatever medium, allowing output
coherency with the voltage input submitted. Then, you can say you have 'memory': a coherent, expected result. But, you know nothing about each of the electrons in the process (it gets tougher with photons...).
Now (it's already happenning...), suppose the transistor's gap width narrows in such a way that, only one electron suffices to change the transistor's state. According to the Uncertainty Principle of Quantum Mechanics, even if you're able to store a single electron (and you are), you cannot rely on the output result since it will not be coherent with the given input. The end result might be utterly unexpected, to say the least (of course, there's Quantum Computing, which has limitations too.). Although everything is there, physically, can you now say that you have 'memory'?
After all, even randomness must be stored, somewhere & somewhen. But, can we call it 'memory'?
I'm not proposing to give a quantum physics course, here; i'm not a physicist, anyway.
[Here are some references, if you're interested: Einstein-Podolsky-Rosen paper (EPS paper); The Mach's Principle [Max, Ernst]; John S. Bell inequalities; Allain Aspect's experiment (1978); and, of course, lots of quantum thermodynamics!]
As for a device working without memory, i don't know what the future will bring (i do have some thoughts though...); as for your
modus operandi, i think you should stick just with the concept and try to address some expert, technical advice.
Hope this [rather long but not ended!] dissertation helped, in any way.