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REMAKE OF OLD ANSWER, MOSTLY DUE TO SCALING BOTH ULTRAMAN AND GODZILLA HIGHER

Gonna scale both characters RQ

Ultraman:

Ultraman can push back the Beatstar Celestial Sphere, which contains a star inside of it

Ultraman and his brothers also fought against and damaged Mold and Juda, who were likely amped by Absolute Particles

This version of Juda is stronger than the original, who was able to nearly destroy the universe

This should be at least Universal+, but I can get it higher via cosmology

For instance, Shin Ultraman is licensed as an official part of the Ultra Series multiverse, as shown on their website

Ultraman Series List (TVs and Movies) | Tsuburaya Productions Co., Ltd
Ultraman Series List (TVs and Movies) in order of release year. We introduce our video license such as TV series and films. Ultraman official website by Tsuburaya Productions.

In Shin Ultraman, it is revealed that Universes run on M theory and are at least 10D to 11D

So in conclusion, Ultraman should be High Complex Multiversal

Godzilla (I’m gonna use the Heisei version since that would be the most fair, credit to Bill Decipher for some of the scans):

A singular one of Godzilla’s cells is capable of withstanding a supernova, black hole, and white hole, transforming into SpaceGodzilla

Godzilla is also capable of fighting against SpaceGodzilla

SpaceGodzilla also absorbed infinite energy

and can emit supergravity

Also High Complex Mulltiversal

Higher-dimensional supergravity - Wikipedia
Higher-dimensional supergravity is the supersymmetric generalization of general relativity in higher dimensions. Supergravity can be formulated in any number of dimensions up to eleven. This article focuses upon supergravity (SUGRA) in greater than four dimensions. Fields related by supersymmetry transformations form a supermultiplet ; the one that contains a graviton is called the supergravity multiplet . The name of a supergravity theory generally includes the number of dimensions of spacetime that it inhabits, and also the number N {\displaystyle {\mathcal {N}}} of gravitinos that it has. Sometimes one also includes the choices of supermultiplets in the name of theory. For example, an N = 2 {\displaystyle {\mathcal {N}}=2} , (9 + 1)-dimensional supergravity enjoys 9 spatial dimensions, one time and 2 gravitinos . While the field content of different supergravity theories varies considerably, all supergravity theories contain at least one gravitino and they all contain a single graviton . Thus every supergravity theory contains a single supergravity supermultiplet. It is still not known whether one can construct theories with multiple gravitons that are not equivalent to multiple decoupled theories with a single graviton in each [ citation needed ] . In maximal supergravity theories (see below), all fields are related by supersymmetry transformations so that there is only one supermultiplet: the supergravity multiplet. Gauged supergravity versus Yang–Mills supergravity [ edit ] Often an abuse of nomenclature is used when "gauge supergravity" refers to a supergravity theory in which fields in the theory are charged with respect to vector fields in the theory. However, when the distinction is important, the following is the correct nomenclature. If a global (i.e. rigid) R-symmetry is gauged, the gravitino is charged with respect to some vector fields, and the theory is called gauged supergravity . When other global (rigid) symmetries (e.g., if the theory is a non-linear sigma model ) of the theory are gauged such that some (non-gravitino) fields are charged with respect to vectors, it is known as a Yang–Mills–Einstein supergravity theory. Of course, one can imagine having a "gauged Yang–Mills–Einstein" theory using a combination of the above gaugings. Counting gravitinos [ edit ] Gravitinos are fermions, which means that according to the spin-statistics theorem they must have an odd number of spinorial indices. In fact the gravitino field has one spinor and one vector index, which means that gravitinos transform as a tensor product of a spinorial representation and the vector representation of the Lorentz group . This is a Rarita–Schwinger spinor . While there is only one vector representation for each Lorentz group, in general there are several different spinorial representations. Technically these are really representations of the double cover of the Lorentz group called a spin group . The canonical example of a spinorial representation is th

So Heisei Godzilla should also be High Complex Multiversal

Who wins?

Both Ultraman and Godzilla are High Complex Multiversal and scale the same, with similar abilities and powers, and can fight very well against each other. I would say that this fight is overall a draw, with both sides having good chances at winning.

However, the question asked “Could Ultraman defeat Godzilla?”, so I would say yes, since the only reason someone would say no is if they think that none of Ultraman’s attacks can even be felt by Godzilla, which is obviously false.

So uhh yeah, Ultraman can defeat Godzilla since the fight could go either way

Respect them both

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