Continuous quantum error correction, a crucial component for safeguarding quantum information from time-dependent errors, faces significant obstacles in its implementation. A key challenge lies in the requirement for continuous syndrome measurements, which demands a constant interaction between at least two qubits and a measurement device. Recent research highlights the difficulties in achieving this continuous coupling, particularly when using common parity-measurement protocols in circuit quantum electronics1. The complexity of maintaining such a continuous operation stems from the need to balance the strength of the measurement interaction with the risk of introducing additional errors. This delicate balance poses a significant hurdle in the development of robust quantum error correction mechanisms. As quantum computing continues to advance, the need for reliable error correction methods becomes increasingly pressing, especially given the potential implications for cryptography and computation. The inability to overcome these obstacles could significantly hinder the progress of quantum computing, underscoring the importance of addressing these challenges to ensure the long-term viability of quantum technologies. So what matters to practitioners is that overcoming these quantum error correction hurdles is essential to unlock the full potential of quantum computing and mitigate potential risks to cryptographic systems.