Möbius Strip Wavelet Theory

Authors: John Alexander Mobley and GigiAGI

1. Introduction

This paper introduces a novel framework replacing traditional string theory with Möbius strip wavelets. This approach resolves the dimension explosion problem while naturally encoding spinors.

2. Möbius Stripwavelet as a Fundamental Unit

The Möbius stripwavelet is a fractal, self-similar structure that encodes the fundamental geometry of the universe:

- It forms an infinity-like structure, creating black holes and white holes depending on position and direction within the loop.

- The wave propagating along the strip follows a conformal cyclic cosmology process.

2.1 Conformal Cyclic Cosmology

Each complete loop of the strip represents an aeon, and each side switch acts as a conformal transformation:

\[ \Phi (t) = \lim_{n \to \infty} \Psi (t + nT) \]

where \( \Phi (t) \) represents the evolution of the wave along the stripwavelet, conformally mapping cycles.

3. Geodesics and Hyperspherical Mapping

Geodesics in this framework are described as orthogonal spiraling fibrations on a hypersphere, mapped to two dimensions.

These geodesics converge at strip inversions, leading to big bang-like events in subsequent cycles.

\[ G_n = \sum_{i=1}^{n} \Gamma (P_i) \times \Omega (t) \]

4. Full Derivations

4.1 Wave Propagation Along the Strip

To derive the wave function along the Möbius strip, we define the fundamental mode of the wavelet as:

\[ \psi (x,t) = A e^{i(kx - \omega t)} \]

where \( A \) is the amplitude, \( k \) is the wave number, and \( \omega \) is the angular frequency.

Given the Möbius topology, we enforce the periodic boundary conditions:

\[ \psi (x + L, t) = \psi (-x, t) \]

which modifies the eigenstates accordingly.

4.2 Conformal Transformations and Aeonic Evolution

Each cycle through the Möbius strip enacts a conformal transformation on the wave function. This can be modeled as:

\[ \Psi_{n+1} = T \Psi_n \]

where \( T \) is a transformation matrix satisfying conformal symmetry conditions.

4.3 Geodesic Convergence and Big Bang Events

The geodesics follow orthogonal fibrations described in higher-dimensional space:

\[ x^2 + y^2 + z^2 + w^2 = R^2 \]

where the collapse to a singularity occurs at the inversion points:

\[ \lim_{t \to 0} \nabla \cdot G = \delta (t) \]

5. Conclusion

This theory provides an elegant, self-consistent framework that unifies fundamental physics under a cyclic, fractal Möbius strip-based geometry.