PDF 原檔：報告_OCP2026_Xanadu_光量子電腦擴展_20261015_original.pdf
講者公開簡報（OCP 官方 Recorded Content 頁提供下載）。文字以 PyMuPDF 逐頁抽取，
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圖片清單（已驗證 2026-10-19）
| 檔名 | 頁 | 分類 | 親眼所見內容 |
|---|---|---|---|
報告_OCP2026_Xanadu_光量子電腦擴展_20261015_p8.png |
p8 | 真資料圖 | Aurora 原型機：雷射系統機櫃加三座運算模組機櫃，右側分層示意 光源、光纖延遲、精煉、光纖延遲、QPU 光子晶片堆疊 |
報告_OCP2026_Xanadu_光量子電腦擴展_20261015_p10.png |
p10 | 真資料圖 | 同 Aurora 架構圖，標出多工（光纖延遲加精煉）層 |
報告_OCP2026_Xanadu_光量子電腦擴展_20261015_p15.png |
p15 | 真資料圖 | 硬體路線圖 2026–2031：損耗 24.1、10.2、7.2、1.8、1.0、1.0；邏輯錯誤率、邏輯位元上限 200／500／1000+；量子位元工廠 2026-27、容錯 2028-29、量子資料中心運作 2029-30 |
原始內容
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Copyright © 2026 Xanadu Quantum Technologies Inc. Copyright © 2026 Xanadu Quantum Technologies Inc Scaling Photonic Quantum Computers Jonah Force Hill | Director of Business Development & Government Relations, Xanadu
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Copyright © 2026 Xanadu Quantum Technologies Inc. Founded 2016 OUR MISSION Headquarters Toronto People 380+ To build quantum computers that are useful and available to people everywhere 2 ABOUT XANADU Certain information in this presentation relates to research, prototypes, or experimental results. These results are prelimin ary, subject to ongoing validation, and may not reflect future commercial performance.
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Copyright © 2026 Xanadu Quantum Technologies Inc. Founded 2016 OUR MISSION Headquarters Toronto To build quantum computers that are useful and available to people everywhere Technological requirements of scaling, modularity, and networking ●Universal QC ●Fault tolerant ●Hundreds of logical qubits, billions of gates (depth) ●Cloud-deployed in a data centre-scale system ●Accessible through an easy- to-use software stack V 3 ABOUT XANADU useful available to people everywhere Certain information in this presentation relates to research, prototypes, or experimental results. These results are prelimin ary, subject to ongoing validation, and may not reflect future commercial performance. People 380+
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Copyright © 2026 Xanadu Quantum Technologies Inc. 4 Advantages of photonic quantum computing HARDWARE No cooling required for computation Manufacturable using silicon processes Error correction flexibility Modular and networkable Faster clock speeds Compatible with telecom Certain information in this presentation relates to research, prototypes, or experimental results. These results are prelimin ary, subject to ongoing validation, and may not reflect future commercial performance.
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Copyright © 2026 Xanadu Quantum Technologies Inc. A brief history of Xanadu hardware demonstrations 2018 2020 2019 2021 2023/4 2024/5 QUADRATURE- SQUEEZED VACUUM from a silicon Nitride PIC (two-mode, nondegenerate). Published in Science Advances (2020) SINGLE-MODE, DEGENERATE SQUEEZING from a silicon nitride photonic molecule. Published in Nature Communications (2021) GAUSSIAN BOSON SAMPLING 8 mode Programmable device cloud- deployed for customer access. Published in Nature (2021) QUANTUM COMPUTATIONAL ADVANTAGE using stabilized fiber delay lines for time encoding. Published in Nature (2022) COMPLETE 12-QUBIT MODEL of FTCQ blueprint constructed demonstrating scalability, modularity, networking, and systems integration. Published in Nature (2025) GKP QUBIT DEMONSTRATED with 3x3 negative Wigner function grid and 4 peaks in both quadratures Published in Nature (2025) 5 HARDWARE While developing the architectural blueprint for GKP-based photonic quantum computing, it became clear that a number of crucial hardware primitives had not yet been demonstrated. To motivate R&D progress and de-risk the functionality of these primitives, several significant experiments and systems demonstrations were carried out during 2018-2025. Certain information in this presentation relates to research, prototypes, or experimental results. These results are prelimin ary, subject to ongoing validation, and may not reflect future commercial performance.
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Copyright © 2026 Xanadu Quantum Technologies Inc. 6 Certain information in this presentation relates to research, prototypes, or experimental results. These results are prelimin ary, subject to ongoing validation, and may not reflect future commercial performance. HARDWARE Aurora was the outcome of operation: “Feel The Burn” ●World’s first full implementation of all subsystems needed for universal quantum computation ●First modular, scalable, and networked quantum computer ●35 integrated photonic chips, 3 different substrates, 12 physical qubits with over 86 billion modes ●Demonstrated for first time real-time error correction decoding algorithm with photonics ●Achieved 30X loss reduction and 100X hardware overhead reduction
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Copyright © 2026 Xanadu Quantum Technologies Inc. 7 Aurora: full architecture prototype Make qubits (Single-mode GKP states in pulses of light) Entangle qubits (Create a 3D spatio- temporal cluster state) Do gates (Measurement-based gates using homodyne detectors) HARDWARE Certain information in this presentation relates to research, prototypes, or experimental results. These results are prelimin ary, subject to ongoing validation, and may not reflect future commercial performance.
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Copyright © 2026 Xanadu Quantum Technologies Inc. 8 Laser system HARDWARE Aurora: full architecture prototype Certain information in this presentation relates to research, prototypes, or experimental results. These results are prelimin ary, subject to ongoing validation, and may not reflect future commercial performance.
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Copyright © 2026 Xanadu Quantum Technologies Inc. 9 GKP qubits HARDWARE Aurora: full architecture prototype Certain information in this presentation relates to research, prototypes, or experimental results. These results are prelimin ary, subject to ongoing validation, and may not reflect future commercial performance.
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Copyright © 2026 Xanadu Quantum Technologies Inc. 10 Multiplexing HARDWARE Aurora: full architecture prototype Certain information in this presentation relates to research, prototypes, or experimental results. These results are prelimin ary, subject to ongoing validation, and may not reflect future commercial performance.
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Copyright © 2026 Xanadu Quantum Technologies Inc. 11 Gates with realtime feed- forward HARDWARE Aurora: full architecture prototype Certain information in this presentation relates to research, prototypes, or experimental results. These results are prelimin ary, subject to ongoing validation, and may not reflect future commercial performance.
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Copyright © 2026 Xanadu Quantum Technologies Inc. QUANTUM DATA CENTER OUR VISION 12
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Copyright © 2026 Xanadu Quantum Technologies Inc. QUANTUM DATA CENTER OUR VISION 13 Our utility-scale fault-tolerant QC is not one box; it is a data center of networked photonic modules.
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Copyright © 2026 Xanadu Quantum Technologies Inc. QUANTUM DATA CENTER OUR VISION 14 Our utility-scale fault-tolerant QC is not one box; it is a data center of networked photonic modules. Scaling means thousands of racks, thousands of control servers, FPGAs, and detectors - networked and synchronized.
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Copyright © 2026 Xanadu Quantum Technologies Inc. 15 HARDWARE ROADMAP The visual path to large-scale fault tolerance, showing loss, physical qubit growth, error suppression, and manufacturing timeline milestones. KEY TECHNICAL INDICATOR 2026 2027 2028 2029 2030 2031 Loss 24.1 10.2 7.2 1.8 1.0 1.0 Logical Error Rate 10-3 - 10-8 10-16 Less than 10-16 Logical Qubits Up to 200 Up to 500 1000+ 2026 2027 2028 2029 2030 2031 Qubit Factory Built Target: 2026 - 2027 Fault Tolerance Target: 2028 - 2029 Quantum Data Center Operational Target: 2029 - 2030 Inception: Photonics Manufacturing & Integration Technical Projects Facilities Building Quantum Data Center Certain information in this presentation relates to research, prototypes, or experimental results. These results are prelimin ary, subject to ongoing validation, and may not reflect future commercial performance.
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Copyright © 2026 Xanadu Quantum Technologies Inc. Copyright © 2026 Xanadu Quantum Technologies Inc jonah.forcehill@xanadu.ai @XanaduAI Thank you