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MIT unveils quantum hub

News

New facility targets quantum systems, photonics and advanced packaging.

MIT and the Commonwealth of Massachusetts have announced plans to establish the Quantum Systems Laboratory (QSL), a shared-use facility designed to accelerate quantum research and commercialisation across the region.

Backed by a $25 million state investment, the new laboratory is expected to serve as a critical hub for next-generation quantum technologies, with implications extending beyond quantum computing into photonic integration, advanced packaging, RF electronics, and high-frequency system design.

The QSL will be located in MIT's Building 39 and is envisioned as one of the first facilities worldwide to combine quantum computers, quantum sensors, quantum peripherals, and quantum interconnects within a single research environment.

MIT officials say the facility will provide researchers from universities, startups, and industry with access to advanced quantum hardware and specialised experimental infrastructure.

While the announcement centres on quantum technology development, the initiative also highlights growing opportunities for the photonics and semiconductor packaging sectors.

A key objective of the QSL is the development of quantum interconnects, physical links capable of transferring quantum information between systems.

Such interconnects are widely viewed as a future application area for photonic integrated circuits (PICs), silicon photonics, and optical networking technologies.

As quantum systems scale beyond individual processors, integrated photonics is expected to play an increasingly important role in connecting distributed quantum devices and enabling quantum networking architectures.

The facility's planned infrastructure also reflects the increasing importance of advanced packaging in quantum hardware development.

MIT said one floor of the laboratory will support the development of radio-frequency (RF) electronics used to control and interface with quantum systems.

Researchers will also have access to advanced high-frequency packaging capabilities and associated terahertz (THz) electronics needed for emerging quantum platforms.

These requirements align closely with areas of active innovation in heterogeneous integration, cryogenic packaging, co-packaged optics, high-density interconnects, and photonic-electronic integration.

As quantum hardware moves from laboratory demonstrations toward scalable systems, packaging and system integration challenges are increasingly viewed as key barriers to commercialisation.

"The new QSL will introduce modern experimental infrastructure to quantum research at MIT and beyond, allowing us to scale experiments and expand into critical domains in disciplines such as biology and chemistry," said Ian Waitz, MIT's vice president for research.

MIT also expects the facility to strengthen the regional startup ecosystem by providing access to equipment and infrastructure that would otherwise be prohibitively expensive for early-stage quantum companies.

The laboratory will become the new physical home of the MIT Quantum Initiative and is intended to serve as a broader regional hub for quantum innovation.

Construction is expected to begin as early as this summer, supported by state funding, MIT investment, and philanthropic contributions.

According to MIT, the project is anticipated to create more than 150 construction jobs, along with additional positions across the state's supply chain and professional services sectors.

For the PIC and advanced packaging industries, the QSL represents more than a research investment.

It signals growing demand for technologies that can enable scalable quantum systems, including photonic interconnects, RF and THz integration, cryogenic packaging, and heterogeneous system architectures.

As quantum computing evolves from isolated devices toward interconnected platforms, these enabling technologies are expected to become increasingly central to the sector's commercial future.