We test this methodology on a set of realistic MOFs by considering the 12 020 all-solvent removed (ASR) structures of the CoRE MOF 2019 database . After removing the disordered and the non-MOF structures as well as the ones with a large unit cell volume of 20 nm 3 , the database is reduced to a set of 9 748 structures. Then, with the string information given by the Zeo++ software this number is reduced to 9 177 by removing the structures that are not tridimensional, where solvents are still detected (wrongly classified in "all solvent removed"), or where the metal is radioactive or fissile (e.g., Pu-MOF TAGCIP , Np-MOF KASHUK , U-MOF ABETAE or Th-MOF ASAMUE ), which is a source of risks in a nuclear waste processing plant. Furthermore, the structures with pore sizes allowing the adsorption of xenon are selected using a condition on the largest cavity diameter (LCD): this is the case for 8 529 structures with an LCD higher than 4 Å (approximately the size of a xenon molecule). This is equivalent to removing the structures with very unfavorable adsorption enthalpies, that are not promising for our adsorption-based separation.