This project supports work to develop a functional understanding of nanoporous materials important to industrial clean energy production. An interdisciplinary, collaborative team will use Argonne’s Leadership Computing Facility to perform predictive modeling studies that will accelerate the discovery and design of nanoporous materials with tailored functions for a variety of energy-related applications. Specific applications include nanoporous membranes for separation of C8 aromatics, for second-generation biofuel production, for purification of diols as renewable feedstock compounds for high-value polymers, and for separation of light gases. The research will also tackle uncertainty quantification for large-scale screening studies, reactive equilibria in compressed vapors and in nanoporous confinement, hydration forces and ion distribution involved in nanoparticles assembly, and halide perovskites for photovoltaics. In addition, this research will contribute to the development of a computational infrastructure for screening and design of new heterogeneous catalysts and associated scaffolds.