Silicon spin qubits are being scrutinized for their scalability and compatibility with quantum error correction (QEC) in the pursuit of fault-tolerant quantum computing. Researchers are investigating the impact of correlated noise on the performance of these qubits, which are fabricated using industrial-compatible methods and have a nanoscale footprint, allowing for the potential accommodation of millions of qubits on a single chip. The scalability of silicon spin qubits is crucial, as it would enable the development of large-scale quantum computers that can perform complex calculations. However, the effects of correlated noise on qubit coherence and control fidelity must be understood and mitigated to achieve reliable operation1. This research has significant implications for the development of quantum computing hardware, as silicon spin qubits are a leading candidate for QEC-compatible hardware. The success of this research could pave the way for the creation of large-scale quantum computers, so practitioners should pay close attention to these findings as they strive to build reliable and efficient quantum systems.