If C++/C were real languages for real programming they'd enforce unreadability in the compiler.
No sane language designer would say "It is imperative that you write the most unreadable code possible" then write a compiler that says "oh your code doesn't triple dereference pointers? lol lmao that rocks"
Recently, I've just given up trying to use cuda for machine learning. Instead, I've been using (relatively) cpu intensive activation functions & architecture to make up the difference. It hasn't worked, but I can at least consistently inch forward.
I'm not sure I understand your argument. Are you saying that the emulated processor executes instructions while the SoC doesn't? Every instruction that goes to the x86 is broken down into several SoC instructions, which the SoC executes in order to emulate what an x86 would do. Saying that the emulated x86 is booting/running Linux, but the SoC is not is like saying that computers can't run java code, they can only run jvm.
I respectfully disagree. The turning machine is not doing any set-up before the emulated CPU begins execution, and all of the actual BIOS is done by the emulated CPU.
Yes. Any turing complete processor can perfectly emulate any other turing complete processor, whether it is x86, arm, or riscv. Mainline Linux can then run on this emulated processor without modification.
Anything that's turning complete, has enough ram, and has a c compiler can run Linux. Theoretically, you could program a CPLD to run brainfuck and you could still run Linux.
The big issue I have with brain chips is longevity. How long until the electrodes degrade? When will the chips fail? Once they fail, will it be fail safe or fail deadly? Also, what will be the power source? Will it use inductive power, or battery power? They are both awful options. What if the chip overheats? The implementation is the real question here, but neuralink refuse to give any answers because it proprietary.
"An anaconda that is sprung?" What does that mean?