Quantum hardware fabrication is shifting from an academic research and development model to industrial-scale manufacturing, driven by the need for consistency and optimization. This transition relies on standardized semiconductor processes, which have been refined to produce highly consistent results. However, not all qubit modalities are compatible with these standardized methods, limiting the benefits to specific types of quantum hardware. As a result, manufacturers must carefully select qubit designs that can harness the advantages of industrial fabrication. The use of standardized processes enables the production of quantum hardware with greater reliability and uniformity, a critical factor in the development of large-scale quantum computing systems1. This shift towards industrial fabrication has significant implications for the future of quantum computing, as it enables the mass production of reliable quantum hardware, making it more accessible to a wider range of applications and users.