Neutral-atom quantum computers face scalability and qubit connectivity limitations due to physical qubit atom shuttling during execution, which introduces errors and degrades fidelity. Researchers have developed BRIDGE, a buffer-relay fabric compilation approach that mitigates these issues by minimizing physical qubit movement. This method reduces handoff errors, motional heating, and atom-loss risks, thereby improving overall computation fidelity. By leveraging a buffer-relay fabric, BRIDGE enables more efficient and reliable quantum computation. The approach is particularly significant for large-scale quantum computing applications, where qubit connectivity and fidelity are crucial. This development has important implications for the field of quantum computing, as it addresses a key challenge in neutral-atom quantum computer design1. So what matters to practitioners is that BRIDGE offers a potential solution to enhance the scalability and reliability of neutral-atom quantum computers.