Imagine trying to check if a giant puzzle is correct by looking at every single piece one by one; it would take forever. This project creates a shortcut to verify that quantum computers are working correctly without needing to check every single detail. It uses light and microwave signals to quickly prove the machine is actually delivering a speed boost.
Current methods to verify if quantum computers are working correctly require an impractical number of measurements as the systems grow. This creates a bottleneck that prevents the scaling of quantum computers and the demonstration of real-world speed advantages.
A verification toolbox featuring experimental demonstrations of multi-mode bosonic systems and a theoretical framework for identifying resourceful quantum devices.
If you are a cryptography provider dealing with the need to guarantee the integrity of encrypted data — this project developed a verification toolbox that ensures quantum devices operate with high precision. This prevents errors that could compromise privacy and security.
If you are a cloud provider dealing with customers who need proof that a quantum calculation is accurate — this project developed a method using continuous-variable measurements. This allows you to verify quantum speedup without the impractical cost of traditional measurement methods.
If you are a network developer dealing with the scaling of bosonic quantum hardware — this project developed a way to verify multi-mode bosonic systems. This helps in scaling up hardware-efficient paths to fault-tolerance.
Based on available project data, no specific pricing or cost figures are provided as the project is in the research and development phase.
Yes, the project specifically aims to replace tomographic techniques that become intractable for large systems, enabling bosonic quantum architectures to scale up.
Based on available project data, there is no mention of specific licensing terms or patent filings in the provided summary.
The technology is designed for optical and superconducting architectures, utilizing continuous-variable measurements already used in some cryptography and communication protocols.
The project period runs from 2023-09-01 to 2027-08-31, suggesting that a verified toolbox will be developed by late 2027.
The consortium is purely academic and research-driven, consisting of 6 partners from 4 countries (FR, IT, PT, SE). With 3 universities and 3 research institutes and 0% industry participation, the project is focused on fundamental scientific breakthroughs and experimental validation rather than immediate commercial productization.
Contact the Institut National de Recherche en Informatique et Automatique (INRIA) in France.
Contact us to track the transition of VeriQuB from experimental demonstration to industrial licensing.
