Imagine trying to build a giant skyscraper, but the bricks keep crumbling randomly. This project creates a set of architectural blueprints and a digital testing tool to stop those collapses. It helps builders figure out exactly where the weaknesses are and how to fix them before the building falls over.
Small and mid-sized quantum hardware companies cannot afford the massive teams required to solve the 'error problem' in quantum computing. This creates a gap where only the largest tech giants can build reliable, scalable machines.
A full-stack simulation workflow and five interoperable libraries that model hardware imperfections and calculate error rates for various quantum platforms.
If you are a small hardware developer dealing with high error rates in your qubits — this project developed licensable blueprints and design software that helps you reach fault-tolerance without needing a massive in-house research team.
If you are a photonics company dealing with photon loss and phase errors — this project developed a tensor-network simulator that computes fusion-network success probabilities to improve your hardware performance.
If you are a software provider dealing with unreliable hardware that corrupts your chemistry simulations — this project developed a full-stack simulation workflow that links device parameters to logical error rates for more reliable results.
The project uses a dual-licensing model offering 'Blueprints' for fast fault-tolerance attainment and 'Boosts' for maximizing hardware performance.
Yes, the objective is to enable the transition from promising prototypes toward practical, large-scale quantum computing by providing scalable architectures.
The project provides licensable Fault-Tolerant Architectures (FTAs) tailored for diverse platforms, though specific patent details are not listed in the data.
It provides an end-to-end software workflow and five interoperable libraries that model hardware-specific imperfections for platforms like trapped ions, spin qubits, and photonics.
The project period runs from 2025-04-01 to 2027-03-31.
The project is led by a single German SME, QC DESIGN GMBH, with a 100% industry ratio. This lean structure suggests a highly commercial focus, aiming to provide tools to other SMEs rather than conducting academic research, supported by a EUR 2,493,000 EU contribution.
Contact QC DESIGN GMBH in Germany
Contact us to explore licensing opportunities for QPRINTS blueprints.
