Researchers have made a breakthrough in quantum computing by introducing the spin Kerr-cat encoding, a noise-robust qubit encoding that leverages a clock transition in quadrupolar nuclei to suppress noise leading to qubit dephasing. This encoding achieves a first-order suppression of noise, effectively extending the lifetime of quantum information at the hardware level. The spin Kerr-cat encoding utilizes the unique properties of quadrupolar nuclei with spin length $I\geq 1$ to create a more robust qubit. This development has significant implications for the field of quantum computing, as it could enable the creation of more reliable and stable quantum systems1. The potential impact of this breakthrough is substantial, as it could pave the way for the development of more advanced quantum computers and potentially rewrite assumptions about computation and cryptography. So what matters to practitioners is that this encoding could provide a crucial step towards overcoming the noise and error correction challenges that have hindered the development of large-scale quantum computers.