Pioneering quantum teleportation, temporal effects, and information clustering over conventional network infrastructure.
Transferring quantum states between spatially separated systems using entanglement and classical communications channels.
Explore ResearchInvestigating correlation patterns that exhibit temporal anomalies in quantum networks, challenging classical causality.
Explore ResearchStudying the emergence of coherent information structures across distributed quantum network nodes.
Explore ResearchExperience quantum teleportation, temporal effects, and information clustering through our interactive visualizations. Navigate through different complexity levels to discover the underlying principles of quantum network phenomena.
The visualization on the right demonstrates quantum state teleportation, showing how quantum information transfers between separated systems through entanglement.
Explore ExperimentsOur 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.
Learn MoreBy 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.
Learn MoreOur 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.
Learn More