Quantum Network Frontier

Pioneering research into quantum teleportation, temporal effects, and information clustering over conventional network infrastructure.

Key Research Areas

Our work focuses on three core quantum phenomena with the potential to redefine communication and computing. Below is a brief overview. For in-depth information, please visit our main research page.

Quantum Teleportation

Investigating the transfer of quantum states across networks, forming the basis for a future quantum internet.

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Temporal Effects

Exploring non-classical correlations in time that challenge causality and open new paradigms for computation.

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Information Clustering

Studying how quantum information naturally forms coherent, resilient structures within a distributed network.

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Live Experiment: Quantum State Teleportation

Witness the fascinating process of quantum teleportation in real-time. This visualization demonstrates how a quantum state from the "Source" (left) is transferred to the "Target" (right).

The process relies on the entangled particles (yellow) shared between both locations. The information is transmitted via a classical channel (bottom arc) and a quantum channel (top arc), allowing the target particle to take on the exact state of the source. This is a fundamental building block for quantum communication.

Explore All Experiments

Quantum Teleportation Protocol

Latest Publications

MAY 2025

Quantum Teleportation over Fiber Networks

Zhang, L., & Reynolds, K.

A comprehensive analysis of implementing quantum teleportation protocols over existing fiber optic infrastructure, with experimental results showing 94% fidelity.

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APRIL 2025

Temporal Anomalies in Entangled Networks

Reynolds, K., & Chen, Y.

Experimental evidence of non-classical temporal correlations in quantum network communications, with implications for quantum routing.

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MARCH 2025

Emergent Information Clustering in Networks

Zhang, L., & Chen, Y.

Theoretical and simulation-based investigation of information structure emergence in multi-node quantum networks.

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FEBRUARY 2025

Quantum Information Transfer Efficiency

Martinez, J., & Wong, S.

Analysis of transfer efficiency metrics in networks combining quantum and classical infrastructure, with optimization techniques.

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Research Applications

Quantum-Secure Communications

Our research enables the implementation of quantum communication protocols over existing fiber infrastructure, enhancing security without requiring specialized quantum hardware. By leveraging the principles of quantum entanglement and teleportation, we're developing systems that can detect eavesdropping attempts through fundamental quantum mechanical properties.

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Distributed Quantum Computing

By enabling reliable quantum state transfer between distant processing nodes, our work creates the foundation for scalable quantum computing networks. This approach addresses key limitations in current quantum computing architectures, allowing for modular system design and efficient resource sharing across distributed quantum processors.

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Quantum Internet Protocols

Our research directly contributes to the development of foundational protocols for the emerging quantum internet. These protocols address unique challenges in quantum networks, including entanglement distribution, quantum routing algorithms, and hybrid quantum-classical communication strategies optimized for existing telecommunications infrastructure.

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