Storage Perfection (P1) is one of the four core properties of the ITC framework. It asserts that information in the basal structure does not decay or distort over time, and the storage fidelity is 100%. This paper systematically demonstrates the solid foundation of P1 from five levels. First, starting from the ITC first principle (zero‑latency transmission between any two points in the universe), we deduce the existence of the basal structure and its status as the ultimate carrier of information. Second, based on the unitary evolution of quantum mechanics, we elucidate the principle of information conservation and argue that the basal structure, as the ultimate carrier of information, must satisfy perfect storage; otherwise, information would truly disappear, directly violating information conservation. Third, research in quantum error correction shows that information is in principle recoverable and can be approached arbitrarily close to perfect preservation, providing profound mathematical support for P1. Fourth, the development of quantum storage technologies offers engineering‑level feasibility proof for P1. Fifth, cutting‑edge experiments—such as Pan’s team’s 550 ms long‑lived entanglement and Guo’s team’s 20 km atom‑photon entanglement distribution—verify from both temporal and spatial dimensions that quantum information can maintain coherence over sufficiently long times and distances, providing solid experimental evidence for P1. Through these five interlocking levels, we conclude that storage perfection is an inherent property of the basal structure, a core element for the logical self‑consistency of the ITC framework, and the theoretical basis for statistical accumulation in superluminal communication experiments.
Storage Perfection (P1) is one of the four core properties of the ITC framework. It asserts that information in the basal structure does not decay or distort over time, and the storage fidelity is 100%. This paper systematically demonstrates the solid foundation of P1 from five levels. First, starting from the ITC first principle (zero‑latency transmission between any two points in the universe), we deduce the existence of the basal structure and its status as the ultimate carrier of information. Second, based on the unitary evolution of quantum mechanics, we elucidate the principle of information conservation and argue that the basal structure, as the ultimate carrier of information, must satisfy perfect storage; otherwise, information would truly disappear, directly violating information conservation. Third, research in quantum error correction shows that information is in principle recoverable and can be approached arbitrarily close to perfect preservation, providing profound mathematical support for P1. Fourth, the development of quantum storage technologies offers engineering‑level feasibility proof for P1. Fifth, cutting‑edge experiments—such as Pan’s team’s 550 ms long‑lived entanglement and Guo’s team’s 20 km atom‑photon entanglement distribution—verify from both temporal and spatial dimensions that quantum information can maintain coherence over sufficiently long times and distances, providing solid experimental evidence for P1. Through these five interlocking levels, we conclude that storage perfection is an inherent property of the basal structure, a core element for the logical self‑consistency of the ITC framework, and the theoretical basis for statistical accumulation in superluminal communication experiments.
Manifestation Finiteness (P4) is one of the four core properties of the ITC framework. It asserts that the manifestation of basal information in emergent spacetime requires a local time τ, and the outcome of a single manifestation is random. This property seemingly contradicts P2 (Instantaneous Connectivity), but in fact it is the crucial barrier safeguarding causality and ensuring compatibility with relativity. This paper systematically demonstrates the necessity of P4 from six levels. First, at the experimental evidence level, the experimental confirmation of the no‑signalling theorem unequivocally shows that quantum correlations cannot be used for superluminal communication, providing the empirical cornerstone for P4. Second, from the first principle, the existence of absolute time requires a definite order of events, and the local manifestation time τ in P4 guarantees the causal order in emergent spacetime. Third, an analysis of spacelike separation and compatibility with relativity shows that even if τ is extremely small, leading to spacelike separated events, the randomness of single outcomes in P4 prevents causal paradoxes; moreover, the information extraction event itself has a definite time point, ensuring that the final information extraction is causally later than the sending event. Fourth, the feasibility of statistical detection—demonstrated by Pan’s team’s 2026 DI‑QKD experiment—proves that weak signals can be extracted from random data through large samples, providing a methodological basis for overcoming P4. Fifth, the complementary relationship with P2 shows that P2 guarantees instantaneous connectivity at the basal level, while P4 prevents this connectivity from being used for single‑shot controllable information transmission; together they constitute the complete picture of the two‑layer reality. Sixth, at the level of quantum mechanical foundations, the randomness of measurement collapse and the projection postulate are deeply compatible with P4. Through these six levels of argumentation, we conclude that Manifestation Finiteness is an inherent property of the basal structure, a core element for the logical self‑consistency of the ITC framework, and the fundamental obstacle that statistical detection schemes must face and overcome.
Instantaneous Connectivity (P2) is one of the four core properties of the ITC framework. It asserts that there are no distance or delay constraints between basal nodes—they are instantaneously connected. While this property is motivated by the violation of Bell’s inequality, its necessity must be established on more fundamental grounds. This paper systematically demonstrates the solid theoretical basis of P2 from five perspectives: experimental evidence, derivation from first principles, compatibility with causality, feasibility of statistical detection, and resonance with other theories. First, the robust experimental violation of Bell’s inequality unequivocally demonstrates the existence of quantum nonlocality, providing the empirical cornerstone for P2. Second, from the ITC first principle (zero‑latency transmission between any two points in the universe), the instantaneous connectivity of the basal structure follows as a logical necessity. Third, the existence of absolute time guarantees causal order, while Manifestation Finiteness (P4) prevents single‑shot information transmission, rendering P2 compatible with relativistic causality. Fourth, experiments such as the recoiling‑slit experiment demonstrate that statistical distributions can be controlled, offering a practical pathway to test P2. Finally, P2 resonates deeply with theories such as quantum entanglement and the ER=EPR conjecture, all pointing toward a deeper reality. Through these five levels of argumentation, we conclude that instantaneous connectivity is an inherent attribute of the basal structure and a crucial element for the logical self‑consistency of the ITC framework.
The nonlocality of quantum entanglement reveals instantaneous correlations that transcend classical spacetime, yet standard quantum mechanics merely accepts this as a brute fact without providing a deeper ontological explanation. This paper starts from a single irreducible first principle: matter, information, and energy can be transmitted with zero latency (instantaneously) between any two points in the universe. From this first principle, the Instantaneous Teleportation Cosmos (ITC) framework is constructed, and the nature of spacetime is redefined: spacetime is not ultimate reality but an emergent phenomenon projected from a deeper, non‑spatial basal structure. The basal structure possesses six basic properties—Storage Perfection (P1), Instantaneous Connectivity (P2), Mapping Determinacy (P3), Manifestation Finiteness (P4), Basal Resonance Tunability (P5), and Consciousness Coupling (P6). However, the framework lacks a rigorous axiomatic formulation and a precise mathematical model for these properties. This paper accomplishes two core tasks. First, we formulate P1–P6 as rigorous mathematical axioms, define the basal state space HB as a separable Hilbert space, prove the independence of the axioms, and derive the basal dynamical equation—the basal Schrödinger equation. Second, we propose a concrete mathematical model of the basal structure—a fully connected tensor network with a specific weight distribution and quantum state structure—and rigorously prove that this model naturally satisfies all requirements of these six properties. Within this framework, emergent spatial distance is shown to be proportional to the inverse of the weight, the maximally mixed state in standard quantum mechanics is a natural consequence of the network’s fully connected topology, and the graph Schrödinger equation converges to non-relativistic quantum mechanics in the continuum limit. This model provides a solid mathematical foundation for the ITC framework, completing its paradigm shift from “philosophical assertion” to “mathematical science.”
Within the Instantaneous Teleportation Cosmos (ITC) theory, the basal network possesses the property of Storage Perfection (P1), which guarantees the eternal preservation of information. A natural question arises: how can information about the future be preserved if the future has not yet occurred? This paper clarifies that what is preserved at the basal level is not a predetermined sequence of future events, but the complete quantum state of the universe at each moment—including the probabilistic information about all possible future evolutions inherent in that state. As an intrinsic property of each quantum state, this probabilistic information is permanently archived by P1 alongside the records of past states. Although the universe evolves dynamically, the quantum state at every instant is independently and eternally preserved, forming a complete quantum state archive. This archive provides an information‑theoretic foundation for causal tracing and for understanding the emergence of temporal order in the emergent layer. The mechanism is fully compatible with the indeterminism of quantum mechanics and offers a physical basis for the coexistence of past, present, and future informational structures at the basal level.
Within the Instantaneous Teleportation Cosmos (ITC) framework, Mapping Determinacy (P3) is established as one of the four core properties of the basal structure. This property asserts that the projection mapping Π: ℋB → 𝒫(𝒪) from the basal state to the statistical distribution in emergent spacetime is deterministic—the same basal state uniquely corresponds to a definite probability distribution. This paper systematically demonstrates the necessity of this proposition from five mutually supporting levels: First, from the first principles of science, experimental reproducibility requires the determinacy of physical laws. Second, from the fundamental postulates of quantum mechanics, the uniqueness of the quantum state dictates the uniqueness of the probability distribution. Third, from the causal models of information theory, the mathematical definition of Effective Information (EI) requires the causal mechanism to be deterministic. Fourth, from the essence of mathematics, the definition of a mapping itself requires uniqueness. Fifth, from the orderliness of physical reality, the regularity of the observable world requires the projection mapping to be determinate. Through these five levels of argumentation, we conclude that the projection mapping Π must be deterministic. This conclusion is not only a requirement for the logical self-consistency of the ITC framework but also a prerequisite for the existence of science itself. If Π were stochastic, not only would physical laws lose their reproducibility, but the entire edifice of science would also lose its foundation.
The Instantaneous Teleportation Cosmos (ITC) framework divides physical reality into two levels: the basal structure and emergent spacetime. The basal structure possesses four core properties: Storage Perfection (P1), Instantaneous Connectivity (P2), Mapping Determinacy (P3), and Manifestation Finiteness (P4). Based on the rigorous definitions and established arguments of these four properties, this paper constructs a complete logical chain, proving that the conclusion “modulating Alice inevitably causes a change in Bob’s single-side probability ΔP≠0” is a necessary requirement of the ITC framework’s internal logic. The argument demonstrates: P2 ensures that modulation instantaneously affects Bob’s basal state; P1 ensures that this effect can be accumulated; P3 ensures that a change in the basal state inevitably leads to a change in the probability distribution at the manifestation layer; P4 explains why this change manifests as a statistically detectable ΔP rather than a single-shot perceptible signal. The synergistic action of the four properties makes ΔP≠0 an inevitable conclusion for the logical self-consistency of the ITC framework. If ΔP=0, then at least one core property would be violated. Therefore, ΔP≠0 is a core testable prediction of the ITC framework and the theoretical foundation for superluminal communication experimental schemes.