Monolithic quantum scaling fails beyond 10^5-10^6 qubits due to classical latency outpacing coherence, requiring modular LOCC-based architectures with time-aware scheduling protocols.
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Optimal bang-bang protocols are derived for preparing the three-qubit W state from a product state using XY-coupled qubits and single-qubit drives, with the quantum speed limit characterized via Pontryagin's principle.
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Beyond Monolithic Scaling: Modularity and Heterogeneity as an Architectural Imperative for Utility-Scale Quantum Computing
Monolithic quantum scaling fails beyond 10^5-10^6 qubits due to classical latency outpacing coherence, requiring modular LOCC-based architectures with time-aware scheduling protocols.
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Optimal preparation of the $W$ state for qubits with XY coupling
Optimal bang-bang protocols are derived for preparing the three-qubit W state from a product state using XY-coupled qubits and single-qubit drives, with the quantum speed limit characterized via Pontryagin's principle.