Dispersive readout in circuit QED is hindered by a trade-off between measurement speed and fidelity, with increasing drive amplitude eventually leading to a decrease in qubit energy relaxation time $T_1$. This phenomenon cannot be explained by a simple Lindblad master equation, indicating a need for more complex models to accurately capture the dynamics at play1. Researchers have been investigating ways to improve the dispersive readout process, which is crucial for the development of reliable quantum computing systems. The relationship between drive amplitude and qubit fidelity is complex, and understanding the underlying mechanisms is essential for optimizing measurement protocols. As quantum computing continues to advance, the importance of high-fidelity readout mechanisms will only grow, making it crucial to address the current limitations. The development of more sophisticated models and measurement techniques will be essential for overcoming these challenges, so what matters most to practitioners is the potential for breakthroughs in quantum computing to be hindered by unresolved issues in dispersive readout.