Measurement-induced state transitions pose a significant challenge to high-fidelity readout in circuit quantum electrodynamics, particularly in fluxonium qubits. These transitions occur when multi-photon resonances drive population transfer from computational states to higher-energy states, compromising the accuracy of quantum computations. Researchers have investigated this phenomenon extensively in transmon qubits, but its effects on fluxonium qubits remain poorly understood. A recent study explores the mechanisms underlying measurement-induced state transitions in fluxonium qubits, shedding light on the complex interplay between drive frequencies, photon resonances, and qubit energy levels1. By elucidating the dynamics of these transitions, scientists can develop strategies to mitigate their impact and optimize qubit performance. This research has significant implications for the development of reliable quantum computing architectures, as it can inform the design of more robust and efficient quantum systems. So what matters to practitioners is that a deeper understanding of measurement-induced state transitions can help them overcome a major hurdle in the pursuit of high-fidelity quantum computations.