GregoryPerry

So per your logic the Windows 10 operating system was created by random iteration of x86 opcodes over a lengthy period of time? Huh?

What in the world are you talking about?

This thread of discussion is about the computationally intractable nature of 4^1,000,000,000

Got math? Maybe post a proof?

Haha, so biological neuronal processes utilize a method of gradient descent? Perhaps you should submit your findings to the Nobel Prize Committee :)

Again, this thread is about the computationally intractable nature of 4^1,000,000,000.

Got math? A proof maybe to support your statements?

Got math?

Your argument is essentially the anthropic principle, the entire "we are here because we are here" thing. Even the Second Law of Thermodynamics counters stochastic evolutionary strategies, the math behind non deterministic molecular Darwinism is simply not possible given the youth of the universe.

Again and irrespective of how much genome information was there initially and what it eventually became, you are still talking about a final optimization problem of 4^1,000,000,000. Even one tenth of that amount of the human genome is an unfathomably large number to randomly iterate to given the generally accepted statistics cited above. The math behind stochastic molecular Darwinism doesn't work out at all.

In classical computing maybe. And with phase space analysis millions or even tens of millions of events can be visualized for emergent attractors that would indicate an underlying pattern.

Perhaps that language is time. Literally no research has been done into the analysis of precise time series observer effect data.

I sincerely doubt that anything is truly random, there has to be some type of cosmic drummer behind the scenes biasing certain events. Case in point is the conflict between molecular Darwinism and the numbers associated with the human genome. Approximately one billion nucleotide bases and with four different nucleotide bases in each location == 4^1,000,000,000 combinatorial explosion, a number waaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaay larger than 10^120 universal complexity limit, 10^80 stable elementary particles in the universe, and the generally accepted age of the universe ~10^40. The monkeys typing Hamlet thing is computationally intractable.

Well this is where the law of large numbers comes into play. Flipping a coin half a dozen times is likely several points away from 50:50; randomness isn't an emergent property of a coin flip dataset until hundreds or perhaps thousands of flips later assuming a precise coin flip mechanism and fair coin. So randomness at least within this context is a function of time.

Little if any empirical research has been done into the quality of entropy associated with repeatedly observing a quantum state. Pretty easily accomplished using an RTOS (RT_PREEMPT or Xenomai) with GPIO sampling, and with n-dimensional phase space analysis of that dataset to determine if any patterns emerge. There are plenty of tools from the field of chaos theory and nonlinear dynamical systems analysis to prove or disprove the fundamental nature of quantum randomness with.