Neutral atoms are being explored as a means to achieve error-corrected logical qubits in digital quantum computers, a crucial milestone in the field. By leveraging the ability to coherently transport atoms, researchers can realize efficient quantum error correction through long-range connectivity and parallel atom transport. However, current methods are hindered by time-consuming atom shuttling and complex control hardware, posing significant scalability challenges. A new approach, termed velocity-enabled quantum computing, aims to address these limitations1. This innovative method has the potential to significantly enhance the efficiency and scalability of quantum computing systems. As quantum computing developments continue to advance, they are redefining the boundaries of computation and cryptography, rendering traditional security protocols vulnerable. So what this means for practitioners is that they must reassess their cryptographic strategies to stay ahead of the emerging quantum computing threats.