What is the evidence for the existence of an objective time or space?

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What is the evidence for the existence of an objective time or space?

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From the top, the vertical axis is the time axis. It sweeps out the space which is bounded between -A and +A. The horizontal axis manifests itself as energy/matter. This is the basic set-up of the universe.

From the point of view of consciousness, this setup is rather boring.

Nonetheless, it is still necessary for us as discerning creatures to understand the basic setup of the entire universe.

This setup is dimensional in structure, that is to say, it directly involves the 2-dimensional plane. The universe is geometrically a 2-dimensional phenomenon that manifests itself at higher dimensions.

We can say the same about natural phenomena, that is to say, that the principles behind natural phenomena involve dimensionality over and above the physical manifestations of each individual phenomenon. Fractals point the way.

Geometrically, a square area is understood to be the multiplication of the length of each side by itself or L^2, to be read as L-squared: the number 2 is what is known as an exponent or mathematical index. It multiplies the number by the factor of itself or L^2=LxL. The increase or rise in the value of L-squared is very fast. If the number L is between 0 and 1, then it becomes progressively smaller but does not reach 0.

Can we infer then that nothingness is an impossibility because the cosmos is a phenomenon that involves mathematical indices? Log(0) is undefined under this setup. More about this here:

Why logarithm of zero, log(0), is not defined?
Logarithm of Zero What is the logarithm of zero? Why log(0) is not defined. The real logarithmic function log b (x) is defined only for x>0. We can't find a number x, so the base b raised to the power of x is equal to zero: b x = 0 , x does not exist So the base b logarithm of zero is not defined. log b (0) is not defined For example the base 10 logarithm of 0 is not defined: log 10 (0) is not defined The limit of the base b logarithm of x, when x approaches zero from the positive side (0+), is minus infinity: Logarithm of one ► See also
https://www.rapidtables.com/math/algebra/logarithm/Logarithm_of_0.html

For example, the principles of waves large and small involve mathematical indices, which translate into powerful waves on the one hand and beautiful formations on the other. This is often not emphasized enough, that mathematical indices are rigorously exponential on the one hand and express logarithmically beauty on the other. We use the expression logarithmic curve usually divorced from the implications that it points to, which is dissipative on our part.

The beauty of waves is admired at the beach and has been captured beautifully in numerous paintings, among which Katsushika Hokusai, "The Great Wave off Kanagawa"

Katsushika Hokusai, "The Great Wave off Kanagawa"
Guest Post by Caroline Parry, MOA Marketing Intern
https://moa.byu.edu/hokusai-great-wave-off-kangawa/

is perhaps the most iconic if not the most celebrated.

The wave phenomenon gives us a huge clue about the existence of an objective time or space because the curvaceous shape of the wave is preserved. The wave phenomenon exists beyond the human imagination and that is why it is objective.

The wave phenomenon also exists as a subjective phenomenon.

This is a trick that we must recognize in order to think beyond the realm of physicality and recognize immutability as the principle that lies beyond natural phenomena and which is the source of all natural phenomena great and small.

That trick lies in the geometry of phenomena. From the fractal geometry of nature, we are reintroduced back into esthetics, which is the purpose that binds us all. Waves need not be expressed using a medium such as water or sand as in sand dunes.

Waves also exist in the realm of archetypes or ideas over and above the realm of their physical manifestations.

The above diagram shows the soliton phenomenon which by definition preserves its shape while it propagates. Solitons are a beautifully soothing nonlinear phenomenon:

A brief explanation about the soliton is given above.

Ocean Solitons on magnificent Australian Beaches | Professor Sergei Eremenko

https://www.youtube.com/results?search_query=soliton+sergei+eremenko
https://www.youtube.com/results?search_query=soliton+sergei+eremenko

Some beautiful soliton pictures are shown in the link above.

It is for the sake of beauty and entertainment that solitons and all of the natural realm exist at all.

Reference:

Representation of Waves Using Exponentials - https://science.fandom.com/wiki/Representation_of_Waves_Using_Exponentials

 

 

Representation of Waves Using Exponentials
It is convenient to represent waves using exponential functions. For example a stationary wave can be described by the function: ψ(x) = Aeikx, where the constant A is a real number. The function ψ(x) can be resolved into its real and imaginary parts using Euler's equation, ei θ = cosθ + isinθ, to obtain ψ(x) = Acos(kx) + iAsin(kx). A travelling stationary wave can be described by exponential function ψ(x),(t) = Aei(kx - ωt) The exponential function has mathematical properties, which makes it mor
https://science.fandom.com/wiki/Representation_of_Waves_Using_Exponentials

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