A newly proposed superconducting quantum circuit, known as FerBo, demonstrates resilience to noise by combining Andreev and fluxonium states. This hybrid qubit is designed to mitigate both relaxation and dephasing, key challenges in quantum computing, over a broad range of experimentally accessible parameters. The circuit's architecture features a parallel configuration of a high-inductance component, a small capacitor, and a Josephson weak link with high transmittance. By leveraging the fermionic degree of freedom, the FerBo qubit achieves protection against relaxation, a significant advancement in quantum computing stability1. The development of such noise-resilient qubits has significant implications for the field, as it could enable the creation of more reliable and efficient quantum computing systems. This, in turn, could accelerate the pace of quantum computing advancements, ultimately rewriting assumptions about computation and cryptography, and posing significant challenges for cybersecurity practitioners to adapt and respond.