Imagine trying to build a giant city, but your building blocks are too bulky to fit together. This project uses a special material called germanium to make the 'brains' of a quantum computer tiny and precise, like the chips in your smartphone. By making these parts smaller and more reliable, they can pack millions of them onto one chip instead of just a few.
Current quantum computers are too large to scale to the millions of qubits needed for useful work. This creates a bottleneck for industries that need quantum power for chemistry and medicine.
A semiconductor germanium qubit platform. Specifically, they are scaling to a 16-qubit processor accessible via the cloud.
If you are a drug discovery firm dealing with the inability to simulate complex molecular interactions — this project developed a semiconductor qubit platform that enables the massive scaling required for chemistry research. This allows for the simulation of new medicines that classical computers cannot handle.
If you are an advanced materials manufacturer dealing with slow R&D cycles for new alloys — this project developed robust germanium qubits that can be scaled to millions of units. This provides the computing power needed to revolutionize materials research.
If you are a cloud provider dealing with the lack of accessible quantum hardware — this project developed a 16-qubit system made available in the cloud. This allows businesses to test quantum algorithms without owning the physical hardware.
Based on available project data, specific pricing is not mentioned, but the project is preparing the launch of a start-up company to commercialize the technology.
Yes, the project uses germanium semiconductor technology, which is compatible with existing semiconductor manufacturing that already produces trillions of components annually.
Based on available project data, the project is writing a business plan to launch a start-up, implying the IP will be managed through a new commercial entity.
The semiconductor qubits are designed to be integrated directly with classical control electronics, simplifying the overall system architecture.
The project runs from 2023-06-01 to 2026-02-28, with the goal of making a 16-qubit system available in the cloud during this period.
The consortium is a lean, 2-partner Dutch collaboration consisting of one university (TU Delft) and one SME. With a 50% industry ratio, the project is structured for rapid technology transfer, combining academic research with a direct path to a commercial start-up.
Contact the Technical University of Delft regarding the Groove project
Contact us to connect with the Groove start-up team for early cloud access.
