- #1
snnmbr
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Hi there, you know there are simple mathematical calculations, rather based on arithmetic properties (module, commensurability, etc), that manage to render (pseudo)random number sequences.
You have to be familiarized with some properties and characters of waves I'm going to refer here (no sh*t Sherlock), because at this time I can't develop more than a quick verbal description of the idea.
An introduction. Imagine a regular frequency sequence with times T1, T2, T3, ... ; and another different regular frequency sequence with times t1, t2, t3, ... . Imagine that both frequencies are inharmonic, "strange" to each other. And let's take every Tn -> Tn+1 as a constant single frame of relative reference. We would observe then, within this Tn -> Tn+1 frame, that times t1, t2, t3, ... might present themselves and behave in a "strange", randomwise manner. So the question is: could this strange, randomwise behavior of tn between Tn, be taken as a good model for understanding uncertainty \ superposition \ Quantum Physics ? (applied to space case).
Imagine that, similar to how we do with numbers to get randomness, one day we found out that, if we choose a set of several (perhaps many) wave rays in a "careful manner" (meaning this we secure certain quantitative relations among waves, such as degree of incommensurability or "strangeness" or "noise" among wavelengths, etc) and if we then compose those waves among them, we get so a final composite ray, for example, from point A to point B, constituted by certain prominent concentrated wave packets or groups, irregularly, unrelatedly, randomwise, and so "isolatedly" happening between A and B, not constituting a regular recurrent set. Point B would "feel" those packets in an "unrelated individualist manner".
From this point of view, particles would be prominent, assembled, concentrated wave packets or groups, not constituting a regular frequency between each other, and so acting as irregular, unrelated, random "individualist pulses", due to the inharmonic, noisy, "ugly" relation among the base waves.
I wonder if this could be a reasonable alternative, to get rid of the insanely mystic visions of modern Quantum Physics.
You have to be familiarized with some properties and characters of waves I'm going to refer here (no sh*t Sherlock), because at this time I can't develop more than a quick verbal description of the idea.
An introduction. Imagine a regular frequency sequence with times T1, T2, T3, ... ; and another different regular frequency sequence with times t1, t2, t3, ... . Imagine that both frequencies are inharmonic, "strange" to each other. And let's take every Tn -> Tn+1 as a constant single frame of relative reference. We would observe then, within this Tn -> Tn+1 frame, that times t1, t2, t3, ... might present themselves and behave in a "strange", randomwise manner. So the question is: could this strange, randomwise behavior of tn between Tn, be taken as a good model for understanding uncertainty \ superposition \ Quantum Physics ? (applied to space case).
Imagine that, similar to how we do with numbers to get randomness, one day we found out that, if we choose a set of several (perhaps many) wave rays in a "careful manner" (meaning this we secure certain quantitative relations among waves, such as degree of incommensurability or "strangeness" or "noise" among wavelengths, etc) and if we then compose those waves among them, we get so a final composite ray, for example, from point A to point B, constituted by certain prominent concentrated wave packets or groups, irregularly, unrelatedly, randomwise, and so "isolatedly" happening between A and B, not constituting a regular recurrent set. Point B would "feel" those packets in an "unrelated individualist manner".
From this point of view, particles would be prominent, assembled, concentrated wave packets or groups, not constituting a regular frequency between each other, and so acting as irregular, unrelated, random "individualist pulses", due to the inharmonic, noisy, "ugly" relation among the base waves.
I wonder if this could be a reasonable alternative, to get rid of the insanely mystic visions of modern Quantum Physics.