My point is that this is not truly random. There are factors that determine the state of the bits upon startup. If there were no factors to make them change, they wouldn't. Don't you see? Everything happens for a reason--not only philosophically, but also physically. My whole point is that if something didn't have a reason to change, it wouldn't. Therefore, it depends on different factors, and that means it is not random. Your example is only quasi-random, meaning it is "random" enough to work in some mathematical cases, but is not perfect. There is no such thing as random in the real world. Period.
Not even wrong.
First, that's like saying you can predict a coin flip because over time it will average out to half-heads, half-tails. If you believe that, you need to go look up the "Gambler's fallacy".
Second, with the coin you could theoretically look at the physics involved - force, acceleration, wind resistance, etc. Can't do that with nuclear decay.
These chip process variations are quantum mechanical (thermal noise of plasma chambers and ion beams during doping and deposition) at the atomic level and are impossible to reproduce to the exact extent twice with exactly the same conditions
Here you admit that it all depends on factors during doping and deposition. Something determines the amount of thermal noise. Also, not being able to reproduce to the exact extent twice is, in itself, a sort of pattern. Truly random numbers would, theoretically, repeat several times. You would not get something like, if choosing 10 numbers out of 10 numbers, '5,2,7,3,9,8,1,6,4,0'. You would probably get something more like '5,2,2,4,7,5,3,6,5,9'. Numbers WILL repeat. Not happening twice does NOT mean random. Not by a long shot.
I feel I am overstating my case, so I will back off a bit. However, I still stress my point that ABSOLUTELY NO PHYSICAL THING is every truly random. Any changes depend on other factors, no matter how discrete or minute they may be. Again, everything in the universe happens for a reason.
Der Strom
These theories argue against the orthodox interpretation of quantum mechanics, which is the Copenhagen Interpretation. Albert Einstein, the most famous proponent of hidden variables, famously insisted that, "I am convinced God does not play dice",[1] but whether he objected to the statistical nature of quantum mechanics is disputed.[2] Einstein, Podolsky, and Rosen argued that "elements of reality" (hidden variables) must be added to quantum mechanics to explain entanglement without action at a distance.[3][4] Later, Bell's theorem would suggest (in the opinion of most physicists and contrary to Einstein's assertion) that local hidden variables are impossible.
You could, if you had a perception of the universe that exceeded the known state of the existing universe... Current cosmological theories are leaning towards multiple dimensions and multi universe theories that cause even the vast unknown to be deterministic within the realm of it's ability to be measured, which is outside our realm of measurement..The basic nature of the universe is random , you can't roll back the universe to a point even if you had perfect knowledge of every atom. The complexity of life, nature and the structure of energy create the patterns we see, but the origins of these patterns are truly random at the quantum scale.
You could, if you had a perception of the universe that exceeded the known state of the existing universe... Current cosmological theories are leaning towards multiple dimensions and multi universe theories that cause even the vast unknown to be deterministic within the realm of it's ability to be measured, which is outside our realm of measurement..
If anything could be unknown then everything would be pure chaos, which is actually what's occurring, however we're a perceptual awareness in one specific avenue of existence on one small fragment of interaction.
If you want to disprove this, then cease to exist.
I am not a believer but I would like to give it a try. I have the same doubts as you expressed above. For that reason I am still interested in finding out what they used for a RNG.
DerStrom8 said:...
... However, I still stress my point that ABSOLUTELY NO PHYSICAL THING is every truly random. Any changes depend on other factors, no matter how discrete or minute they may be. Again, everything in the universe happens for a reason.
I get you point that everything happens because of real factors, but I think the term "random" is best understood as "that which cannot be predicted". So even though real factors cause the radioactive decay the timing of each pop can never be predicted and qualifies as random.
I agree wholeheartedly. The basic nature of the universe is NOT random. Everything is based on mathematical facts. Mathematics is the universal language that holds true for everything. It is the key; the algorithm, so to speak, for solving the Rubik's cube that we call the universe.
**broken link removed**The energizer driving random design is well-known to most scientists as the uniform
tendency of all physical and chemical reactions to move toward disorder. While once
again seemingly counterintuitive, this tendency toward disorder is actually crucial to the
creation of order, imparting to our world an essential directionality. Indeed, without this
directionality, nothing in the world would happen. No chemical reactions, no physics, no
connections, no movement, no life - nothing. Thus, in a surprising and provocative twist
of irony, nature's rush to disorder and randomness is actually the key ingredient enabling
life.
Likewise a good math-only PRNG generating a total output data chunk that is much smaller than its total number of states can also qualify as "random", although people will argue due to the algorithmic nature of generating the data.
Our (more modest) aim is to present tests capable of distinguishing computable from
incomputable sources of “randomness” by examining (long, but) finite prefixes of infinite
sequences. Such differences are guaranteed to exist by [4], but, because computability is an
asymptotic property, there was no guarantee that finite tests can “pick” differences in the
prefixes we have analyzed.
We close with a cautious remark about the impossibility to formally or experimentally
“prove absolute randomness.” Any claim of randomness can only be secured relative to, and
with respect to, a more or less large class of laws or behaviors, as it is impossible to inspect
the hypothesis against an infinity of — and even less so all — conceivable laws. To rephrase
a statement about computability [42, p. 11], “how can we ever exclude the possibility of our
presented, some day (perhaps by some extraterrestrial visitors), with a (perhaps extremely
complex) device that “computes” and “predicts” a certain type of hitherto “random” physical
behavior?”
http://en.wikipedia.org/wiki/Bell's_theoremNo physical theory of local hidden variables can reproduce all of the predictions of quantum mechanics.
Bells Theroem page on Wikipedia said:Hence the class of tenable hidden variable theories are limited to the non-local variety. However, none of the tests of the theorem performed to date has fulfilled all of the requisite conditions implicit in the theorem. Accordingly, none of the results are totally conclusive.
It's still just a theory if it's not proven. Soon as a proof has been made you might have ground to stand on and hail it as fact, but right now your assertions are safely 'unknown' Much the same as the philosophical assertions that attempt to logically prove the deterministic nature of fundamental reality.
Science and mathematics just aren't there yet, and very likely never will be.
Among the most important proofs of impossibility of the 20th century were those related to undecidability, which showed that there are problems that cannot be solved in general by any algorithm at all. The most famous is the halting problem.
John Bell discussed superdeterminism in a BBC interview:[1]
There is a way to escape the inference of superluminal speeds and spooky action at a distance. But it involves absolute determinism in the universe, the complete absence of free will. Suppose the world is super-deterministic, with not just inanimate nature running on behind-the-scenes clockwork, but with our behavior, including our belief that we are free to choose to do one experiment rather than another, absolutely predetermined, including the "decision" by the experimenter to carry out one set of measurements rather than another, the difficulty disappears. There is no need for a faster than light signal to tell particle A what measurement has been carried out on particle B, because the universe, including particle A, already "knows" what that measurement, and its outcome, will be.
Although he acknowledged the loophole, he also argued that it was implausible. Even if the measurements performed are chosen by deterministic random number generators, the choices can be assumed to be "effectively free for the purpose at hand," because the machine's choice is altered by a large number of very small effects. It is unlikely for the hidden variable to be sensitive to all of the same small influences that the random number generator was.[2]
I inferred no negative, I simply stated the fact of the matter that the science and mathematics are still out, any other viewpoint is assumption or opinion, which includes BOTH sides.It's hard to prove a negative but every test so far has been a positive for the theory.
Although he acknowledged the loophole, he also argued that it was implausible. Even if the measurements performed are chosen by deterministic random number generators, the choices can be assumed to be "effectively free for the purpose at hand," because the machine's choice is altered by a large number of very small effects.
I inferred no negative, I simply stated the fact of the matter that the science and mathematics are still out, any other viewpoint is assumption or opinion, which includes BOTH sides.
'Effectively free for the purpose at hand' is code for 'we noticed the same thing and we can't explain it either'
We don't even know the nature of 95% of all of the matter that makes up our observable universe, the number of dimensions in it, or even knowing if there are other universes or their possible interactions with our own, yet you're six sigma sure of the mathmatics and science?My personal belief is that we are 6 sigma on the science and mathematics of this issue.
I agree that there is *no* such thing as a scientificWe don't even know the nature of 95% of all of the matter that makes up our observable universe, the number of dimensions in it, or even knowing if there are other universes or their possible interactions with our own, yet you're six sigma sure of the mathmatics and science?
Will we have better ones in the future? Yes but it doesn’t make this one any less valid than classic circuit theory explanations of voltage and current were when Maxwell's EM theories explained the same thing at a higher level of understanding.The Buddhism practiced by the Dalai Lama embraces an unbroken chain of cause and effect. How did he respond when you explained the random nature of quantum events?
This was something he didn’t like. He said, “You have to look closely, you have to find the cause.” And then he said something interesting: “If this is really true and you can convince us, then we have to change our teaching.” That is a flexibility which not every religion has.
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