Imagine trying to build a giant library, but you only have a few tiny shelves that don't fit together. This project creates a new way to build the 'shelves' of a quantum computer using standard silicon, similar to how today's computer chips are made. By adding a smart switching system, they can control millions of tiny quantum bits without the system overheating or becoming too bulky.
Current quantum computers cannot scale because they lack the hardware to control millions of qubits without massive energy loss or physical bulk. This prevents the technology from solving real-world problems in drug discovery and logistics.
A cryogenic CMOS transistor technology and a full-stack quantum computer demonstrator using silicon spin qubits and a multiplexer.
If you are a biotech company dealing with the inability to accurately model viruses and drugs — this project developed a scalable silicon quantum hardware approach that could one day enable the precise modeling of molecular structures.
If you are a logistics firm dealing with complex optimization tasks and routing problems — this project developed a path toward fault-tolerant quantum computers that excel at solving these specific logistical challenges.
If you are a financial firm dealing with massive data processing for risk optimization — this project developed a cryo-CMOS multiplexer that allows for the precise control of millions of qubits to handle complex calculations.
Based on available project data, specific pricing or cost structures are not provided.
Yes, the project utilizes commercial-ready nanometer-scale CMOS processes designed to accommodate millions of qubits, making it inherently scalable.
Based on available project data, specific licensing terms are not mentioned, though the project has produced a new cryogenic CMOS transistor technology with beyond state-of-the-art performance.
The technology integrates a cryo-CMOS multiplexer for the control and interfacing of quantum processors, designed to be more compact and energy efficient.
The project period runs from 2023-09-01 to 2026-08-31, focusing on building a full-stack demonstrator system.
The consortium is highly streamlined and industry-focused, consisting of 2 partners from Finland and the Netherlands. With a 100% industry ratio and both partners being SMEs, the project is geared toward commercial viability rather than academic research, combining semiconductor fabrication expertise with quantum control experience.
Contact SEMIQON TECHNOLOGIES OY in Finland
Contact us to explore licensing opportunities for cryo-CMOS quantum control hardware.
