Photonic researchers are advancing the science required for scalable, fault-tolerant quantum computing. Through work spanning quantum hardware, networking, architecture, error correction, and applications, the team is helping solve some of the field’s most significant technical challenges.
Advancing Quantum Science
SCIENTIFIC CONTRIBUTIONS
Contributions Across the Quantum Computing Stack
Photonic researchers publish work spanning optically-linked silicon spin qubits, quantum networking, distributed architectures, entanglement generation, and efficient error correction. These contributions help advance the scientific foundations required for scalable quantum computing.
ARCHITECTURE
Distributed by Design
Built on optically-linked silicon spin qubits, Photonic’s Entanglement First™ architecture prioritizes entanglement, connectivity, and error correction from the outset. This approach enables quantum resources to be connected across chips and systems, creating a foundation for scalable, fault-tolerant quantum computing.
RECENT RESEARCH
Recent Research Highlights
Research plays a critical role in advancing scalable quantum computing. These publications highlight recent contributions in quantum error correction, qubit performance, memory protection, and distributed quantum architectures.
Efficient Fault-Tolerant Computing
New QLDPC codes reduce the overhead required for quantum error correction, helping make large-scale fault-tolerant quantum computing more practical.
Electrically Controlled Spin-Photon Devices
A new generation of silicon-based spin-photon devices combines electrical and optical control, advancing scalable quantum computing and networking technologies.
Protecting Quantum Memory
Researchers characterized the silicon T-centre hyperfine structure and developed approaches to preserve quantum information during entanglement operations.
A Scalable Architecture for Quantum Technologies
This perspective outlines an entanglement-first approach built on silicon color centres, telecom-band photons, and distributed architectures for scalable fault-tolerant quantum computing.
ADVANCING THE FIELD
Research Collaborations
Photonic collaborates with leading research institutions to advance quantum science, explore new approaches to scalable quantum computing, and help develop the knowledge, talent, and discoveries that will shape the future of quantum computing.
Simon Fraser University
Photonic and SFU’s Silicon Quantum Technology Lab advance T-centre physics, quantum interfaces, and scalable quantum networking technologies.
Explore the SQT Lab
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University of British Columbia
Through Scientific Fellow Artem Cherkasov, UBC expertise helps explore future quantum applications in chemistry and drug discovery.
Meet Artem Cherkasov
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Dartmouth College
Photonic and Dartmouth researchers characterized silicon T-centre optical properties, advancing distributed entanglement and scalable networking architectures.
Explore the Joint Research
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University of Waterloo
Photonic maintains strong ties to Waterloo’s quantum ecosystem through Stephanie Simmons’ Waterloo research roots, helping connect researchers, talent, and ideas across disciplines.
Visit Waterloo's IQC
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SCIENTIFIC LEADERSHIP
Perspectives on Quantum Science
Scientific discovery and technological innovation often advance together. In this discussion with Physics World, Photonic’s Founder and Chief Quantum Officer Dr. Stephanie Simmons joins leading voices from across the quantum community to explore how advances in quantum technology continue to deepen our understanding of quantum fundamentals.
RESEARCH ENGAGEMENT
Connect with Our Research Team
Photonic welcomes opportunities to engage with researchers, exchange ideas, and explore new directions in quantum science.
