Providing links to the future

We provide solutions to interconnect quantum processors in order to drastically increase their computational power and to make them quantum-accessible at a distance.

Providing links to the future

We provide solutions to interconnect quantum processors in order to drastically increase their computational power and to make them quantum-accessible at a distance.

Providing links to the future

We provide solutions to interconnect quantum processors in order to drastically increase their computational power and to make them quantum-accessible at a distance.

Our quantum links enable

Scale-up of quantum computing

Interconnecting Quantum Computers refers to the ability to entangle physically-separated Quantum Processing Units (QPUs) to each other. We use photons synchronized by Quantum Memories to share Quantum Information and create entanglement between QPUs. Such Quantum Links allow to increase the number of qubits available for computation, thus overcoming the limitations of individually-taken intermediate-scale Quantum Processors.

Short-cut to Error Correction

Imperfections in quantum hardware lead to errors in computation. Errors are corrected by redundantly encoding quantum information on many physical qubits. Connecting our Quantum Memories to QPUs and interconnecting QPUs between each other will allow more diverse and enhanced error-correction strategies.

Deployment of QPUs

As of today, more of 75% of worldwide High-Performance Computing (HPC) centers plan to use quantum computing and deploy Quantum Processing Units in their premises. Networking quantum machines in these centers is a foremost importance for exploiting their computing capabilities at their maximum.

Quantum Information Networks

Quantum networks rely on the transfer of quantum information between quantum nodes at short and long distance to perform quantum-enhanced tasks such as distributed quantum computing or quantum cryptography. Efficient quantum memories are the key missing asset for enabling entanglement-based networked quantum computing and long-distance quantum communications.

Our quantum links enable

Scale-up of quantum computing

Interconnecting Quantum Computers refers to the ability to entangle physically-separated Quantum Processing Units (QPUs) to each other. We use photons synchronized by Quantum Memories to share Quantum Information and create entanglement between QPUs. Such Quantum Links allow to increase the number of qubits available for computation, thus overcoming the limitations of individually-taken intermediate-scale Quantum Processors.

Short-cut to Error Correction

Imperfections in quantum hardware lead to errors in computation. Errors are corrected by redundantly encoding quantum information on many physical qubits. Connecting our Quantum Memories to QPUs and interconnecting QPUs between each other will allow more diverse and enhanced error-correction strategies.

Deployment of QPUs

As of today, more of 75% of worldwide High-Performance Computing (HPC) centers plan to use quantum computing and deploy Quantum Processing Units in their premises. Networking quantum machines in these centers is a foremost importance for exploiting their computing capabilities at their maximum.

Quantum Information Networks

Quantum networks rely on the transfer of quantum information between quantum nodes at short and long distance to perform quantum-enhanced tasks such as distributed quantum computing or quantum cryptography. Efficient quantum memories are the key missing asset for enabling entanglement-based networked quantum computing and long-distance quantum communications.

Our quantum links enable

Scale-up of quantum computing

Interconnecting Quantum Computers refers to the ability to entangle physically-separated Quantum Processing Units (QPUs) to each other. We use photons synchronized by Quantum Memories to share Quantum Information and create entanglement between QPUs. Such Quantum Links allow to increase the number of qubits available for computation, thus overcoming the limitations of individually-taken intermediate-scale Quantum Processors.

Short-cut to Error Correction

Imperfections in quantum hardware lead to errors in computation. Errors are corrected by redundantly encoding quantum information on many physical qubits. Connecting our Quantum Memories to QPUs and interconnecting QPUs between each other will allow more diverse and enhanced error-correction strategies.

Deployment of QPUs

As of today, more of 75% of worldwide High-Performance Computing (HPC) centers plan to use quantum computing and deploy Quantum Processing Units in their premises. Networking quantum machines in these centers is a foremost importance for exploiting their computing capabilities at their maximum.

Quantum Information Networks

Quantum networks rely on the transfer of quantum information between quantum nodes at short and long distance to perform quantum-enhanced tasks such as distributed quantum computing or quantum cryptography. Efficient quantum memories are the key missing asset for enabling entanglement-based networked quantum computing and long-distance quantum communications.