@MasterOfArda
Assume we have a verse where one character is stated to have dimension ¤ë(1) , another has dimension c, and the second character is stated to be infinetly higher dimensions then the second. How would we resolve that?
I don't think there is a need to worry about that, as most verses don't get neck-deep into the specifics of the metric, and at most drop a few statements regarding dimensions being uncountably infinite in number, in which case we just equal to the Continuum for simplicity's sake, and if we don't have further context regarding the statement.
Hypothetically speaking, though, I believe we would just consider such characters as either unquantifiable or arbitrarily high into 1-A, for lack of a better choice. It's something we wouldn't really be able to avoid even if we assumed CH is false.
After rereading the OP, it seems that c was chosen because it is believed to give some transcendence over the concept of dimensions. It does not, and I will make a post explaining that in a little while, so I can give details why it doesn't work.
Before people start saying that the following is too complicated for this wiki, I should note that I agree with that, and that even this mumbo jumbo is going to only barely be present in any separate explanation page that is to come. So, don't panic pls, it's just hidden clockwork which I am bringing up solely at this moment for the sake of giving a full explanation. k thnx
Not in the sense that it allows you to "tRanscEnd tHe cAwnCepT of dImenShuNs", no. The Real Numbers were choosen as the line between High Hyperversal and Baseline Outerversal because of their relation to Topological Manifolds and the concept of a metric, mostly.
As you can gather from previous threads and stray commentaries present through this one, the new system equates the size of any given higher-order space to continuous multiplications on R (real coordinate spaces R ^ n, pretty much). Real Coordinate Spaces are themselves topological manifolds and are required to be
second-countable, hausdorff spaces by default. If one disregards those (equivalent) conditions entirely, then they cease to be metrizable (meaning they are no longer homeomorphic to a metric space) and to admit a given metric embedded in their structure. This obviously complicates things quite a bit and enters the domain of spaces which are neither hausdorff nor metrizable (and which by extension do not admit a measure, either), and thus raises the question of "what kind of metric do you use in such cases"?
This relates to spaces of dimensionality equal to the real numbers because of the fact that a second-countable space can only have at most continuum cardinality. Such spaces are not possible past this specific point, and thus the very usage of topological manifolds such as the aforementioned real coordinate spaces becomes sorta moot, as even an infinite-dimensional space (R ^ N, for example) would still have cardinality equal to R and fall under the category of stuff below Outerversal.