This paper introduces a mechanism‑agnostic theoretical framework for teleportation based on continuous state transformation, mass continuity, and the no‑cloning constraint. Instead of treating teleportation as the relocation or duplication of matter, the model reframes it as an unbroken chain of state evolution from an initial configuration to a final one. Intermediate disturbances are treated as noise that does not affect identity as long as continuity is preserved. A macro‑scale analogy using water phase transitions illustrates how identity can remain intact through dramatic changes in density, interaction rules, and observability. The framework defines the physical constraints any viable teleportation mechanism must obey.
This paper introduces a mechanism‑agnostic theoretical framework for teleportation based on continuous state transformation, mass continuity, and the no‑cloning constraint. Instead of treating teleportation as the relocation or duplication of matter, the model reframes it as an unbroken chain of state evolution from an initial configuration to a final one. Intermediate disturbances are treated as noise that does not affect identity as long as continuity is preserved. A macro‑scale analogy using water phase transitions illustrates how identity can remain intact through dramatic changes in density, interaction rules, and observability. The framework defines the physical constraints any viable teleportation mechanism must obey.
This paper presents a conceptual reassessment of teleportation-like phenomena under Precise Vibrational Transmutation Theory (PVTT). Rather than treating teleportation as the transport of matter or information through space, the analysis reframes the problem as one of bounded state equivalence under continuous state evolution. By removing assumptions of spatial traversal, annihilation, and perfect reconstruction, the work addresses longstanding conceptual contradictions related to identity continuity, information completeness, and causality. The paper does not propose teleportation as a feasible mechanism, introduce new physical interactions, or claim experimental validation. Instead, it offers a corrective theoretical framework that clarifies how teleportation-related questions may be coherently posed within state-based physical models.
This paper presents a comprehensive theoretical analysis of teleportation, examining both quantum information transfer and physical matter transfer within a unified mathematical framework. By integrating principles from quantum mechanics, classical physics, and emerging models of consciousness, the study evaluates the feasibility and limitations of teleportation at multiple levels. At the quantum scale, fundamental constraints such as the Heisenberg uncertainty principle, the no-cloning theorem, and decoherence severely restrict the possibility of accurately capturing and reconstructing complete quantum states. At the classical level, mass-energy conservation, entropy considerations, and thermal effects introduce additional barriers to matter transfer. The framework further introduces a consciousness proxy (C_proxy) to analyze identity continuity, highlighting that successful teleportation requires preservation of both physical structure and conscious identity. The probability of exact identity reconstruction is shown to be effectively negligible under current physical laws. Biological limitations, including radiation exposure, electromagnetic field effects, and neural disruption, are also examined, reinforcing the impracticality of human teleportation. Ethical considerations and alternative non-invasive approaches—such as computational simulations and neural modeling—are discussed as viable research directions. Overall, the study concludes that, given present scientific understanding, true human teleportation remains both theoretically and practically unattainable, while offering a structured and reviewer-friendly framework for future interdisciplinary exploration.
This work develops a process-based interpretation of quantum teleportation, quantum switching, and time, grounded in discrete process graphs rather than continuous space–time dynamics. We introduce a formal framework in which the fundamental unit of physical evolution is not the quantum state itself, but a discrete process step (process tact), represented as a unitary transformation acting on a structured process graph. Quantum teleportation is reinterpreted as a transition between isomorphic index layers of the same process graph, rather than as a transmission of a quantum state through space–time. In this framework, entanglement establishes a shared structural constraint, measurement performs index selection, and classical communication transfers index information only. The quantum state remains invariant under graph isomorphism, and teleportation is formalized as reindexation without a physical carrier. Time is shown to emerge as an ordering relation between process steps and index layers, not as a fundamental parameter. Changes in temporal ordering correspond to transitions between equivalent graph embeddings, enabling a natural interpretation of temporal displacement as index reassignment within a recursive process structure. Geometrically, these ideas are represented using recursive pentagon–pentagram embeddings, which serve as an exact structural analogy for quantum switching. The pentagram functions as a universal quantum switch, mediating transitions between distinct but isomorphic orderings. This construction provides an intuitive and mathematically consistent representation of indefinite causal order. The framework is directly connected to EPR correlations, quantum teleportation protocols, and the quantum switch, and is shown to be naturally compatible with the Everett (many-worlds) interpretation of quantum mechanics. Within this ontology, the wave function is treated as an objective process structure, and no collapse postulate is required. This work builds upon and extends previously published results on graph-based quantum key switching and emergent space–time structure, unifying them into a single process-theoretic description of quantum information transfer, causal order, and temporal indexing. Reference to previous foundational work: DOI 10.5281/zenodo.18498181. Reference to previous foundational work: DOI 10.5281/zenodo.18504244.
This record contains two equivalent versions of the work “Reframing Atomic Stability as Temporal Viability”, provided in English (EN) and Portuguese (PT-BR) within a single canonical Zenodo deposit. The work proposes a conceptual reframing of atomic stability, interpreting it not as static robustness, but as temporal viability—that is, the capacity of an atomic system to sustain its structural identity under the irreversible progression of time. Within this framework, time is treated not merely as an external parameter of evolution, but as an active structural constraint. The framework introduces the concept of temporal pressure, defined as the structural demand imposed by continuous temporal progression, and defines coherence as the internal structural capacity required to preserve identity through continuous internal correction. The interaction between temporal pressure and coherence capacity determines whether a given atomic configuration remains viable over time. From this perspective, phenomena such as decoherence, transitions, and decay are reinterpreted as consequences of accumulated temporal correction cost exceeding the system’s coherence capacity, rather than as isolated or instantaneous events. The proposed framework does not modify quantum mechanics or its formal apparatus. Instead, it operates as a complementary structural layer that distinguishes between quantum permissibility and temporal sustainability. A quantum state may remain fully allowed within quantum theory while becoming temporally unsustainable under continuous temporal exposure. This record integrates the conceptual axis of the VCore — Temporal Governance Framework, presenting an application of temporal viability and coherence principles at the atomic level as a minimal physical case. The English version is intended for international scientific circulation (preprints and journal submissions), while the Portuguese version ensures linguistic accessibility and conceptual transparency. Included files: English version (EN): Reframing Atomic Stability as Temporal Viability Portuguese version (PT-BR): Reformulando a Estabilidade Atômica como Viabilidade Temporal Both files present the same conceptual content and differ only in language.
Abstract General relativity and quantum mechanics form two incompatible cornerstones of modern physics, artificially separating macroscopic and microscopic motion rules and attributing the trajectory uncertainty of microscopic particles to the intrinsic random property of particles. This paper takes the spatial compression coefficient as the core continuous variable to build a unified physical interpretation framework. The fundamental difference between macroscopic and microscopic states lies only in the continuous change of spatial compression coefficient, which determines the environmental density of universal irregular minimal matter units filling the whole space. Minimal matter units are irregular in shape with discrete moving speeds and collision forces. Microscopic particles have a similar scale to fundamental units, and continuous unobservable collisions lead to trajectory dispersion observed as randomness, while multi-directional collision disturbances on macroscopic objects offset each other to form deterministic motion. Wind tunnel multi-scale particle flow is adopted as a qualitative analogy to verify the medium disturbance mechanism. The theory eliminates artificial high/low-energy boundaries and the macro-micro rule division in conventional physics, and establishes a deterministic unified mass-energy theoretical system relying on spatial compression coefficient and omnipresent fundamental matter units. Keywords: spatial compression coefficient; spacetime density; universal fundamental matter units; microscopic particle trajectory; quantum uncertainty; medium disturbance; wind tunnel fluid analogy; unified mass-energy theory