A groundbreaking simulation of subatomic hadronization has been achieved by a research team led by the Lawrence Berkeley National Laboratory, utilizing 104 qubits on IBM's Heron quantum processor. This complex process, where quarks combine to form composite particles like protons and neutrons, was successfully replicated on a physical quantum computer. The research, led by scientist Anthony Ciavarella, demonstrates a significant advancement in the application of quantum computing to particle physics. The simulation's success relies on the precise control of quantum bits, highlighting the potential of quantum processors in simulating complex phenomena. This development has significant implications for the field of cryptography, as quantum computing advancements threaten to compromise current encryption methods1. So what matters to practitioners is that this breakthrough underscores the urgent need to migrate to post-quantum cryptography, as the timeline for potential quantum-based threats to cryptographic systems continues to narrow.