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That is not 2DAt what level would be the destruction of a space-time continuum with two spatial axes and a temporal axis?
Well, if someone destroys the space-time continuum I mentioned, at what level would it be?That is not 2D
but anyway destroying a 2D structure would be 11-A
The 2D universe would be a transfinitely smaller portion of the 3D universe, doesn't that mean that if multiplied by uncountable infinity it would now be equivalent to the 3D universe?Thats not how it works unless the spacetime or it has infinite independent timeline/multiverse for a 2D space
Best approach i would do is math. Since potency is unlikely quantifiable when it lacks an axis for it to work in our measurement of potency.
Why would it be so? If the 2D universe is not the size of these things, but the size of the observable universe.Its probably gonna be the weakest 10-C like the smallest unit in 3D space which would be a single quark or maybe an atom depends on how you frame the smallest unit possible that still has 3 axis.
By 2D I mean the spatial axes, not including time.To be fair the "2 spatial dimensions with 1 temporal dimension" make it 3d, not 2d bruhh
But anyway, it can yield up to High 3-A iirc, still with our current system, it is hard to do anything about this kind of feat
After thinking a bit longer i can see the point of it being possible universal or 3-A. In geometrical standpoint not math tho cause idk wtf is transfinite and suchThe 2D universe would be a transfinitely smaller portion of the 3D universe, doesn't that mean that if multiplied by uncountable infinity it would now be equivalent to the 3D universe?
Up to 11-AAt what level would be the destruction of a space-time continuum with two spatial axes and a temporal axis?
An infinite 2D thing would be smaller than anything 3DBecause you mentioned space-time continuum, the term itself already including time
But anyway to answer your question, it still can yield up to High 3-A, if the length of those axes is infinite, and you destroy the entire axis
Energy doesn't really care about dimension, so if you require infinite energy to destroy 2 infinitely long dimensional axes it still is High 3-A..An infinite 2D thing would be smaller than anything 3D
A time dimension makes it 3-D and infinite 3-D is High 3-AUp to 11-A
An infinite 2D thing would be smaller than anything 3D
Yes it does. Infinite energy on a 3D scale, and infinite energy on a 2D scale are completely different things.Energy doesn't really care about dimension,
Characters who demonstrate an infinite amount of energy on a 3-D scale
If they destroy all of time and not just a snapshot, then it would be the most insignificant 3D being. That’s gonna be really hard to prove tho tbh.Well, if someone destroys the space-time continuum I mentioned, at what level would it be?
On 3D scale, not 3D energy. There is no 3d energy or 2d energy, since even 1d line can still contain energy and mass, it is infinitely long mean it contain infinite energy and mass, thus still High 3-A, in a senseYes it does. Infinite energy on a 3D scale, and infinite energy on a 2D scale are completely different things.
This is why on the tiering system it specifically says:
No... Mass and Energy are interlocked, they can be converted between one another, and are under the rules of dimensionality. You wouldn't say an infinite planet's mass in a 2D Space is High 3-A, so you can't say infinite energy in a 2D Space is High 3-A.On 3D scale, not 3D energy. There is no 3d energy or 2d energy, since even 1d line can still contain energy and mass, it is infinitely long mean it contain infinite energy and mass, thus still High 3-A, in a sense
Yes it does, energy cares about size. An infinite 2D thing would be infinitely smaller than anything 3dEnergy doesn't really care about dimension, so if you require infinite energy to destroy 2 infinitely long dimensional axes it still is High 3-A..
I guess it's a flaw in tiering system ,maybe it would get fixed soon.Yes it does, energy cares about size. An infinite 2D thing would be infinitely smaller than anything 3d
Energy don't care about size or volume. Or you would be stronger than the singularity of a Black HoleYes it does, energy cares about size. An infinite 2D thing would be infinitely smaller than anything 3d
You hate to see it.Scalars and Vectors
So you're saying it doesn't take more energy to destroy a larger object than it does a smaller object? Black hole's are powerful because of their mass as wellEnergy don't care about size or volume. Or you would be stronger than the singularity of a Black Hole
Yes it does. Infinite energy on a 3D scale, and infinite energy on a 2D scale are completely different things.
This is why on the tiering system it specifically says:
If they destroy all of time and not just a snapshot, then it would be the most insignificant 3D being. That’s gonna be really hard to prove tho tbh.
Mass and Energy are dimensionless in this new systemNo... Mass and Energy are interlocked, they can be converted between one another, and are under the rules of dimensionality. You wouldn't say an infinite planet's mass in a 2D Space is High 3-A, so you can't say infinite energy in a 2D Space is High 3-A.
The whole idea behind how we treat dimensions is that a lower dimensions infinity is nothing to a higher dimensions.
A 2D object won't even have volume so its density is always noneI sometimes fear the initial future for the vs community. Scalars are values of magnitude in which can be distributed over an area (the inside space of the n-dimensional object), any quantity, both vector and scalar however are defined on a scale from 0 and can expand to a given size, the difference between the two being, one extends in a direction and the other expands regardless.
That's why you can apply mass on a 2-D object and make it heavier than a 3-D one, the reasoning being that you simply put more within its density, which is also the basis for why smaller objects can be heavier than larger ones. I am also referring to volume (in reference to density) as a scalar. As a summation of my point: Something 2-D has size, regardless of direction, you can apply scalars onto anything with size. Joules, mass, gravity even are all dimensionless quantities, so an infinite amount of mass will always be the same value in whatever vector. The only difference lies in the distribution of that mass or energy in density for particular objects.
Wha- How- TF!Mass and Energy are dimensionless in this new system
So yes, destroying an infinite 2-D plane would be High 3-A (This was also asked on vsb's discord and the answer was the same)