Tweezer-based Repeater quantum InterConnection

Quantum networks exploit the principles of quantum mechanics, such as en-tanglement and superposition, to enable secure and efficient data transmis-sion. These networks facilitate the sharing of quantum bits (qubits) with inher-ent security features, allowing geographically dispersed users to communi-cate securely. Beyond secure communication, scalable quantum networks open new possibilities for modular quantum computation, enabling multiple quantum processors to collaborate and tackle complex tasks that are other-wise intractable. The TRIC project harnesses the unique properties of 171-Yb atoms trapped in optical tweezers to develop a robust quantum intercon-nect. This architecture integrates three critical components: a quantum memory for reliable information storage, a transducer that entangles atomic qubits with flying qubits (photons) for long-distance network connections, and a quantum computing unit capable of executing arbitrary operations. By lev-eraging this architecture, TRIC aims to demonstrate the first functional quan-tum repeater with high-rate atom-photon entanglement at both visible and tel-ecom wavelengths. Additionally, the project will implement photon-loss-resil-ient repeater states, laying the foundation for scalable and robust quantum networks.

Quantum networks exploit the principles of quantum mechanics, such as en-tanglement and superposition, to enable secure and efficient data transmis-sion. These networks facilitate the sharing of quantum bits (qubits) with inher-ent security features, allowing geographically dispersed users to communi-cate securely. Beyond secure communication, scalable quantum networks open new possibilities for modular quantum computation, enabling multiple quantum processors to collaborate and tackle complex tasks that are other-wise intractable. The TRIC project harnesses the unique properties of 171-Yb atoms trapped in optical tweezers to develop a robust quantum intercon-nect. This architecture integrates three critical components: a quantum memory for reliable information storage, a transducer that entangles atomic qubits with flying qubits (photons) for long-distance network connections, and a quantum computing unit capable of executing arbitrary operations. By lev-eraging this architecture, TRIC aims to demonstrate the first functional quan-tum repeater with high-rate atom-photon entanglement at both visible and tel-ecom wavelengths. Additionally, the project will implement photon-loss-resil-ient repeater states, laying the foundation for scalable and robust quantum networks.