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Quantum Engineering Year 2: Advanced Quantum Science Month 33Day 909

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Year 2·Month 33·Week 2

Day 909: Ion Shuttling and QCCD Architecture

Day 909 of 2,016~20 min read

Learning Objectives

•**Explain the QCCD architecture** and its scalability advantages
•**Analyze ion transport physics** including adiabaticity and heating
•**Design junction geometries** for multi-path ion routing
•**Optimize shuttling protocols** to minimize motional excitation
•**Calculate transport times** and fidelity limits
•**Compare QCCD with other scaling approaches**

Today's Schedule (7 hours)

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On this page

1 Scaling Challenges in Trapped Ions 2 The QCCD Architecture Architectural Components Zone Types 3 Ion Transport Physics Potential Minimum Translation Adiabatic Transport Motional Excitation 4 Transport Protocols Linear Transport Separation and Merging Ion Swap 5 Junction Design X-Junction T-Junction Corner Transport 6 Voltage Waveform Optimization Requirements Optimization Methods 7 Heating Mechanisms During Transport Electric Field Noise Voltage Noise Trap Frequency Variations 8 Scalability Considerations Transport Overhead Zone Count Scaling Parallelism 9 Current State-of-the-Art Demonstrated Capabilities Commercial Systems Quantum Computing Applications Circuit Compilation for QCCD Example Two-Qubit Gate Between Distant Ions Memory Zone Strategies

Day 908Day 909 of 2,016Day 910