Xanadu Quantum Technologies is done making chips one at a time in a lab. The company announced a strategic partnership with EV Group aimed at achieving industrial-scale production of its specialized photonic quantum chips, a move that could help solve one of quantum computing’s most stubborn problems: actually manufacturing the hardware at scale.
The partnership, announced on May 5, 2026, focuses on developing wafer bonding and lithography processes needed to transition from prototype-stage production to high-volume fabrication.
From lab bench to factory floor
Xanadu’s approach to quantum computing is built on photonics, using particles of light rather than the supercooled circuits favored by competitors like IBM and Google. The advantage is that photonic chips can theoretically operate at room temperature and leverage existing semiconductor manufacturing infrastructure.
On June 10, 2026, the company reported hitting an industry benchmark of 0.085 dB/facet average edge-coupling loss in its photonic chip packaging. In plain terms, that measures how much light is lost when signals move between chips and other optical components. Lower loss means better performance, and hitting this threshold at a dedicated internal facility suggests the manufacturing process is maturing beyond early-stage tinkering.
The company isn’t relying on EV Group alone. Xanadu expanded its collaboration with Tower Semiconductor in February 2026 to enhance silicon photonics process flows. It also has existing partnerships with Applied Materials and DISCO Corp., both focused on addressing fabrication challenges specific to photonic integrated circuits.
The financial picture
Xanadu went public in March 2026 through a SPAC merger and now trades under the ticker XNDU on both NASDAQ and TSX. As of June 30, 2026, the company reported $312.8 million in cash and equivalents.
Revenue for Q2 2026 came in at $1.5 million. The net loss was $42.1 million for the same period.
Why manufacturing matters more than qubits
Xanadu’s focus on fault-tolerant quantum computing reflects this shift. The company published research in Nature in 2025 demonstrating the scalability of photonic quantum computing through the integration of multiple chips into modular, networked systems. Rather than trying to build one massive processor, the approach connects smaller chips together, which makes manufacturing more tractable but introduces its own engineering challenges around chip-to-chip communication. That’s where the coupling loss benchmark becomes important.
Founded in 2016 by CEO Christian Weedbrook, the company has evolved from early programmable photonic chips to these more ambitious modular architectures.