Research into bilayer graphene quantum dots has taken a significant step forward with the use of Landau-Zener-Stückelberg-Majorana spectroscopy to probe high-frequency charge noise. This technique has shed light on the previously unexplored origins and magnitude of charge noise in these devices, which are crucial for the development of spin- and valley-based qubits. By investigating charge noise, scientists can better understand the limitations of qubit coherence and relaxation in solid-state devices. The Landau-Zener-Stückelberg-Majorana interferometry method allows for a more detailed analysis of the noise patterns, providing valuable insights into the behavior of bilayer graphene quantum dots1. This breakthrough has important implications for the field of quantum computing, where understanding and mitigating charge noise is essential for the development of reliable and efficient qubits. The ability to probe and analyze charge noise in these devices is a crucial step towards overcoming the limitations of current quantum computing technology, and ultimately, towards the development of more secure and powerful computing systems.