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Research on the Construction of the Universe Network Based on Quantum Entanglement Effect

Xiang Yibin

Published Dec 10, 2016• 4 citations
Publisher
DOI
10.1007/s11277-016-3926-0

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Summary The universe is filled with electromagnetic fields, quantum fields, and the other different field. They penetrate and interact with each other. Just as the interaction between magnetic materials are due to the magnetic field around the magnet contacting another magnet, between the quanta can also interact with each other through magnetic fields. Through the study of quantum mechanics and related theories of brain science, the article puts forward the following viewpoints: between quantum, which has entanglement state, cannot only interact through magnetic fields but also generate quantum induction fields to generate quantum induction waves. The entangled quantum generated spin waves are connected to each other based on quantum inductive waves to form a quantum inductive network. Then, the information is transmitted through resonance to realize the communication between all things. Thus, all things in the universe can be interconnected based on quantum entanglement effects. By analyzing the construction mode of the internet network, the paper proposes the architecture of the quantum induction communication system and the basic topology of a quantum induction internet network. Several thought experiment schemes were designed, and the information transmission between the ordinary objects and between the people and ordinary objects is studied as an example. The analysis points out the main problems faced by the construction of the quantum induction internet. It points out that the significance of constructing of the network of All things interconnect based on quantum entanglement effect is that all living bodies and nonliving bodies in the heaven and earth can be connected and communicate with each other.
Dimensional Entanglement Network (DEN) is a novel framework for network design predicated on the principle of dimensional entanglement. This paper presents a method for constructing and analyzing networks exhibiting entanglement, aiming to significantly enhance information transfer speed and efficiency. The core concept involves creating a network topology that utilizes entangled pairs across multiple dimensions, leveraging the inherent properties of entanglement to facilitate faster and more effective data transmission. This research explores the potential of this approach to overcome limitations of traditional network architectures. We detail the theoretical underpinnings, propose a specific network construction algorithm, and provide a preliminary analysis of its performance characteristics. The significance of this work lies in its potential to revolutionize network design by incorporating a fundamental aspect of quantum mechanics – entanglement – to drive computational advancements.
We show how to achieve perfect quantum state transfer and construct effective two-qubit gates between distant sites in engineered bosonic and fermionic networks. The Hamiltonian for the system can be determined by choosing an eigenvalue spectrum satisfying a certain condition, which is shown to be both sufficient and necessary in mirror-symmetrical networks. The natures of the effective two-qubit gates depend on the exchange symmetry for fermions and bosons. For fermionic networks, the gates are entangling (and thus universal for quantum computation). For bosonic networks, though the gates are not entangling, they allow two-way simultaneous communications. Protocols of entanglement generation in both bosonic and fermionic engineered networks are discussed.