Quantum Holistic Semantic Communication: Synchronization of Semantic Structures Through Entanglement

This work proposes a concept of using quantum entanglement for synchronizing semantic structures between remote observers without the need for classical data transmission. In contrast to traditional interpretations of the no-communication theorem, we demonstrate that quantum correlation can be used for instantaneous synchronization of complex patterns, the information extraction of which occurs through semantic filtering and contextual validation. The proposed QHSC (Quantum Holistic Semantic Communication) protocol uses post-selection, temporal signature verification, and AI-based reconstruction of meaning from fragments to distinguish Alice's correlated signal from Bob's local noise. We show that the probability of random generation of a complete semantic pattern by local noise tends exponentially to zero, while quantum correlation ensures deterministic pattern matching between Alice and Bob. Furthermore, we demonstrate that the algorithmic core of QHSC possesses the property of physical layer agnosticism and can be deployed on existing classical communication channels, solving critical problems of resilient communication in electronic warfare conditions, deep-sea and space communication, and critical medical telemetry.