I think there's a way to possibly expand in all possible dimensions while still passing a single "timeline" through them and keeping each one at a distinct position relative to a common origin.
(I say this because I problems with having perfectly orthogonal dimensions - imagine if there was some physical property that was perfectly orthogonal to all other properties - changing this property would have no effect on any other property and it wouldn't seem that the property could be interpreted as existing within the same space and related to anything else - it would just be a thing effectively detached and existing in it's own universe as its own thing ... though maybe there can exist one such thing for any universe that effectively defines everything in the set that defines the universe as the property that can remain stationary or change and yet they all possess it (like time), but it's not something contained as a subset of things within the space).
I've seen the problem mirrored in a lot of ways, such as trying to compute x/y if both x and y can become infinite and no relationship is specified between them - the ratio between two unknowns is still unknown and this would be like trying to locate the angle of an object in space at some x and y coordinate if the x and y axises did not share a common unit by which they're both derived, but if some relationship between x and y is specified, then there's really only one infinite quantity that's distributed or multiplexed between properties in both dimensions.
Obviously, by definition, hidden variables could not be measured otherwise they wouldn't be hidden, but that's at one moment of time. In the next moment, something that's unknown can become known and is no longer hidden and so in terms of time these could be seen as adjacent elements and "local" in that respect, if not in spacial terms.The reason it can't be designed is that Alain Aspect proved that there are no local hidden variables within the quantum. Cause had to end somewhere and lucky wee are that it was sooner rather than later..
Basically, consider that if photons always travel faster than mass, then masses are effectively stationary relative to light and light speed - you can't physically follow in front of a photon and predict when and where it will be detected (light speed can be infinitely fast as long as the end result of the observed ordering of events remains the same - you saw the clock read 2:30 when you emitted the laser pulse and the clock read 2:31 when the pulse was detected to have returned. There isn't a speed, in terms of mass, at which light moves too fast, nor a speed at which it moves too slow as long as you can't see it while it's moving (if it even does "move" through space in any typical sense) - the restriction of light speed is simply one of cause and effect - notice that NIST conveniently defined what light speed is in terms of meters per second and it just so happens its an integer quantity of meters per second - coincidence? No. People aren't measuring the speed of light in any absolute manner. By looking at things and orienting them using round trip delays to define an experiment setup, the only thing being measured is that nothing moved - and even that's only provable in a statistical sense - things didn't move "much" and the larger the objects are (as defined by larger statistical collections of photons) the inconsistancies in each measurement tend to cancel and ultimately a supposed "stationary" observation is made (the larger the mass the greater the inertia and less sensitivity in the aggregate measure to the differences measured in each photon)).
Anyway, I'm just saying that there can be a "plan" or it could be simply "random", there's no way to prove that randomness is not planned as something random can easily follow according to a plan, though I don't think it's as easy to go from something planned and call it random (a randomly selected plan or planned (illusion of) randomness? As another sidenote, I don't think "perfect" randomness in all respects is possible. There are many characteristics that randomness is assumed to possess and it likely impossible to list all of them and have a single sequence ever successfully meet all the expectations, though there might be a way to consider some subsets of a sequence to be perfectly random, but with additional non-random "baggage" in between. It's similar to the idea that various different processes can be used to define a perfect circle, when you delve down to the infinitesimal details involved, they only appear to approach the same structure, but in most cases there is never a way to construct a 1 to 1 correlation between all these elements in one construction and the elements in the other construction so a perfect circle is either not just those things that appear to approach its form, or a perfect circle is actually a superposition of possible forms and does not exist as any one of these specifically - and in that case, none of the definitions independently would be correct as they're defining only a subset).
If ones experiences, knowledge and perspective grew larger, in which direction do you think these opinions would sway?The Houses of Faith and Reason are divided since, while both claim the causeless, one imagines absolutely perfect order while the other actually sees no order whatsoever.
I'd assume it would shift toward the ordered view, but then again, if the possibilities are unlimited and knowledge allows the discernment of greater options, then it could be possible to have an opinion shift toward there being no order - I gusess could depend upon what form of knowledge one prefers to pay attention to and grow.
I enjoy mulling over all the possibilitiesThere is also a feedback theory that suggests everything was created in our own future by some super-evolved universal mind that is our destiny to get to.
Thanks, Austin.


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