We focus on the crystal structure as a fundamental object of study in computational materials science. Many reference databases exist for both theoretically computed and experimentally determined crystal structures, such as the ICSD , OQMD , Materials Project , and Aflow 15 , among others. While tools like Pymatgen and ASE are well-established for generating small ordered unit cells, experimental science and precision engineering often require handling disordered structures on various length scales, a challenge that current tools struggle to address. Writing down a guess structure that can be compared with references, being able to translate text representations of a crystal structure into a computational representation (for example, 'generate 10x10x10 copper supercells with substitution defect concentrations ranging from 1-5% for all other transition metals', see Figure ) would make it easier for computational and experimental materials scientists to initiate their workflows.