Given that they "just recently" learned about microcode, I'd not hold my breath expecting a profound insight about computer architecture or anything computer science though.
Given that they "just recently" learned about microcode, I'd not hold my breath expecting a profound insight about computer architecture or anything computer science though.
Also some hints at wanting this "optical FPGA" thing to be analog, rather than digital. And some notion that the various layers of abstraction (silicon->microcode->asm->code) must be wasting lots of cycles.
I'm not really clear on where he thinks 40 years of instant fast-forward might come from.
But really it is. Except for interconnects or analog RF stages, ICs aren’t built as if they were solid states waveguides. Indeed speed is determined by how powerful the charge pumps are in moving electrons, not quite the speed of EM propagation
it's kind of akin to certain compute jobs using quantum effects: There are a class of algorithms that can benefit from that kind of co-processor.
Off the cuff, I don't know of any compute jobs where optical "computers" give you major speedups compared to standard digital processes. But it's not altogether crazy.
> Could that task be performed by simply the right set of transistors, at the hardware level, no matter how insanely arranged?
> What shortcuts could be taken?
Seems to be suggesting ASICs as is done with Bitcoin mining. On the other about optical rather than electrical which could be more efficient, i.e. produce less heat.
I was expecting a completely different post about evolution of brains that operate with photons, and another jump to entangled ones.
This is sound idea and subject to research but he himself lists some disadvantages and I can imagine there are many more. Generally, nonlinear analog systems are VERY fickle.
You have used a whole bunch of non linear analog systems to write this text..
So...I am sure you know what I mean, can you please help me to express it better?