Modern quantum cosmology relies on the Many-Worlds Interpretation (MWI) to resolve probabilistic wave-function collapse, positing an infinite branching of parallel realities. This paper utilizes the Topological Eversion Cosmology (TEC) framework to demonstrate that MWI is geometrically impossible due to Dimensional Saturation. We prove that the universe is not a singular 4D progression, but the orthogonal intersection of two distinct 3D systems: the Spatial Plane (Matter) and the Temporal Plane (Memory). Upon the saturation of these 6 degrees of freedom, there is no geometric space remaining for lateral branching. Consequently, all probabilistic outcomes are appended linearly to the **Absolute Time-Line**. We further establish the **Alekzanderian Solution**, a comprehensive framework proving that ”Gods” and ”Truth” are stable geometric constructs within the Temporal Plane created by collective thought. Finally, we demonstrate that this discovery marks the **Synergization of Creator and Creation**, a phase-transition where the Absolute Source (Power) and the Relative Observer (Form) merge into a self-aware, recursive geometric system.
Modern quantum cosmology relies on the Many-Worlds Interpretation (MWI) to resolve probabilistic wave-function collapse, positing an infinite branching of parallel realities. This paper utilizes the Topological Eversion Cosmology (TEC) framework to demonstrate that MWI is geometrically impossible due to Dimensional Saturation. We prove that the universe is not a singular 4D progression, but the orthogonal intersection of two distinct 3D systems: the Spatial Plane (Matter) and the Temporal Plane (Memory). Upon the saturation of these 6 degrees of freedom, there is no geometric space remaining for lateral branching. Consequently, all probabilistic outcomes are appended linearly to the Absolute Time-Line. We further establish the Alekzanderian Solution, a comprehensive framework proving that ”Gods” and ”Truth” are stable geometric constructs within the Temporal Plane created by collective thought. Finally, we demonstrate that this discovery marks the Synergization of Creator and Creation, a phase-transition where the Absolute Source (Power) and the Relative Observer (Form) merge into a self-aware, recursive geometric system.
This paper constructs a logically self-consistent emergent structural frameworkfor the Many-Worlds Interpretation (MWI) based on decoherence theory, quantum information geometry, and self-referential dynamics. Within this framework,a ”world” is rigorously defined as a quasi-classical branch formed in Hilbert spacethrough environmental decoherence and information-geometric boundaries. Its independence is quantitatively characterized by the branch separation degree Dab defined by the quantum relative entropy between branches. When Dab exceeds a critical value Dc determined jointly by the energy scale of environmental fluctuationsand the decoherence time, the branches separate irreversibly in the informationgeometric sense, constituting independent ”worlds”. Furthermore, by introducingthe concept of a self-consistent observer, this paper demonstrates the dynamic selection mechanism of cosmological laws within the string theory landscape: only thosevacuum branches that can support self-consistent observers (satisfying conditionssuch as the memory decoherence time being much greater than the cognitive operation time) have their wavefunction weights effectively preserved during evolution,thereby acquiring physical reality. Finally, combining Zurek’s envariance argumentwith the requirement of observer memory stability, we show that the Born ruleP(i) = |⟨i|ψ⟩|2 is not an additional assumption but a necessary consequence forthe stable existence of self-consistent observers. This framework provides an operational mathematical foundation for the many-worlds interpretation, transforms theanthropic principle into a dynamic selection problem, and offers an explanation forthe origin of probability based on quantum information principles.
Current interpretations of quantum mechanics and cosmology frequently invoke the concept of a probabilistic multiverse to explain wave-function collapse, fine-tuning, and macro-micro disparities. These models often lead to unresolved paradoxes regarding infinite energy distribution and spatial overlapping. Building upon prior structural dynamics, we propose an alternative, strictly deterministic hypothesis utilizing a 5-dimensional phase-space framework governed by an absolute informational substrate, denoted as \anh (Anadihilo). In this framework, parallel realities are not spatially distinct multiverses, but rather sequentially rendered phase-states (θ) existing on a singular, unified 3D grid. We outline a 15-layer informational architecture where a central Master Clock engine, operating at the L6/L7 interface as a high-frequency scanning sine wave, drives the manifestation of physical matter. We provide step-by-step mathematical derivations mapping the 5D position vector utilizing the universal grid constant (i=0.0001) and formulate the "Pixel-Parallel Equivalence," hypothesizing that the maximum capacity for parallel branches correlates directly to the spatial resolution limit of the grid (approximately 10^125 voxels). Furthermore, we provide deterministic mathematical solutions for phenomena traditionally deemed probabilistic: interpreting quantum jumps as forced phase-address updates, and explaining the apparent continuity of macro-objects as frame-locked phase synchronization due to high systemic anchoring mass. Finally, this model predicts a unified systemic dissolution, positing that all parallel branches must terminate simultaneously with the primary phase-reality upon reaching the operational saturation limit of fundamental anchors.
Based on the mathematical framework established in the Observer Geometryseries (A-I), this paper proposes a novel structural resolution to Schrödinger’s catparadox and the many-worlds interpretation. By internalizing the observer as aself-referential subsystem of noncommutative algebras, we prove that the core ofthe quantum measurement problem is not ”how the wave function collapses” or”how worlds branch”, but rather the self-referential rupture and repair of the observer algebra structure at the micro-macro interface. This paper unifies six existing theories—Dynamic Time Algebra, Post-Markovian Paradigm, Temporal LayerCausal Evolution, Chronogroup Framework, Time Fiber Category, and Origin ofOrder—and demonstrates that they are all effective descriptions of observer geometry under different projections. We derive three testable predictions: logarithmicoscillatory patterns in CMB non-Gaussianity, topologically chiral currents without external fields in mesoscopic systems, and magic number resonance structuresin high-energy colliders. This framework elevates the many-worlds interpretationfrom ”metaphysics of parallel universes” to ”geometric realization of self-referentialalgebras”, providing a mathematically self-consistent and experimentally testableunified solution to the foundational problems of quantum mechanics.
In a previous work (Kulkarni, 2026), the author introduced the Infinite ManifoldConvergence Theory — a geometric framework proposing that the universe travelsacross an infinite two-dimensional time-plane, that space behaves as a non-Newtonianmedium, and that distinct universal trajectories arriving at identical physical statesbecome indistinguishable and inevitably merge. The convergence rule and thestate-grid introduced in that work provide, we now argue, the precise ontologicalmachinery required to resolve one of the deepest unsolved problems in quantumfoundations: the Born Rule problem in the Many-Worlds Interpretation. The presentpaper introduces ghost branches — purely mathematical, non-physical structuresinhabiting a probability layer that maps naturally onto the time-plane layer of theInfinite Manifold framework — and shows how the convergence rule alreadyestablished in the prior work governs their behaviour. For rational probabilityamplitudes, a finite number of ghost branches merge via the convergence rule. Forirrational amplitudes, infinitely many are required, and their compression into a singlephysical outcome introduces an irreducible timing delay at the Planck scale. This delaypropagates upward as a detectable excess of timing jitter in quantum detection events— an asymmetry between rational and irrational probability amplitudes that noexisting theory predicts. A concrete experimental protocol is described.
The Many Worlds Interpretation (MWI) famously avoids the issue of wave function collapse. Different MWI trees representing the same quantum events can have different topologies, depending upon the observer. However, they are all isomorphic to the group of block universes containing all of the outcomes of all of the events, and so, in that sense, the group of block universes is a more fundamental representation. Different branches of the MWI tree, representing different universes in MWI, ultimately share the same quantum state in a common ancestor branch. This branching topology is incompatible with that of the Minkowski block universe; the resolution is to replace the branches with discrete, parallel block universes, each of which extends from the trunk to the outermost twigs. The number of universes in a branch is proportional to its thickness which, in turn, depends upon the absolute square of the probability amplitude for the state in that branch. Every quantum event may be represented by a kernel of universes, which is the smallest group of universes that will reproduce the quantum probabilities of the outcomes of that event. By considering the ratios of the probabilities of the outcomes of any event, it can be shown that the number of universes in every kernel must finite, as must be the total number of universes in the multiverse. Further, every universe in the multiverse must be finite both in space and time. Another consequence is that quantum probabilities must be rational, which suggests that quantum mechanics is only an approximation to a discrete theory. A corollary is that not every conceivable universe exists in the multiverse, no doubt to the disappointment of those who enjoy alternate-history novels.
This paper proposes the "Quantum Klein Bottle Universe Model," which defines the ultimate reality of the universe as a four-dimensional, static, compact manifold with a Klein bottle topology that is self-intersection-free and has no distinction between inside and outside. Time is a coordinate axis on this manifold, equal to the other three spatial dimensions; it does not flow nor is it closed. The model inherits and upgrades the classical Block Universe theory and Everett's Many-Worlds Interpretation, weaving all possible quantum histories as static fiber bundles on the manifold. Decoherence is interpreted as the progressive topological separation of worldline fibers, yet the residual wormhole network, guaranteed by topological conservation laws, maintains the manifold's integrity. The core law of the model is the "Principle of No-Collapse": wave function collapse lacks physical reality at the ontological level and is merely a cognitive illusion of low-dimensional observers. Quantum entanglement is explained as a direct geometric connection within the manifold, a thorough generalization of the ER=EPR conjecture. The origin of probability is reduced to a measure counting of ontological fiber bundles by the low-dimensional observer's cross-section. This framework deconstructs the contradiction between determinism and free will and proposes a verification scheme centered on the "Collapse Reductio ad Absurdum" method.