Low-latency FPGA-based electronic control system for fast preparation of defect-free atom arrays
Abstract
The scalability of neutral atom quantum computing demands integrated electronic control systems with low latency, modular architecture, and real-time feedback capability. Here, we present an FPGA-based electronic control system that eliminates the PC from the feedback loop, integrating photon counting, real-time decision-making, and waveform generation within a unified PXIe architecture. The system achieves a total feedback latency of $282\,\mathrm{μs}$ and is validated in practical experiments ...
Description / Details
The scalability of neutral atom quantum computing demands integrated electronic control systems with low latency, modular architecture, and real-time feedback capability. Here, we present an FPGA-based electronic control system that eliminates the PC from the feedback loop, integrating photon counting, real-time decision-making, and waveform generation within a unified PXIe architecture. The system achieves a total feedback latency of and is validated in practical experiments by assembling defect-free atom arrays from 24 stochastically loaded optical tweezers. A single-round rearrangement achieves a filling fraction of , while feedback-controlled iterative rearrangement over five rounds boosts the success probability for generating a 10-atom defect-free array from to . This system establishes the electronic infrastructure necessary for mid-circuit measurement and real-time quantum error correction on neutral-atom platforms.
Source: arXiv:2607.08687v1 - http://arxiv.org/abs/2607.08687v1 PDF: https://arxiv.org/pdf/2607.08687v1 Original Link: http://arxiv.org/abs/2607.08687v1
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Jul 10, 2026
Quantum Computing
Quantum Physics
0