Chemistry

Unlocking stable iodine capture in 2D COFs: insights from DFT combined with multiscale−descriptors−driven machine learning

AI Insight

This study investigates iodine capture using two-dimensional covalent organic frameworks (2D COFs), combining Density Functional Theory (DFT) calculations with machine learning models driven by multiscale descriptors. The research aims to identify and predict stable COF structures with optimal iodine adsorption properties by leveraging computational screening rather than relying solely on experimental trial-and-error. The integrated approach provides mechanistic insights into host-guest interactions between iodine molecules and COF pores at the atomic level, while the ML component enables broader screening across a large chemical space.


Efficient iodine capture is critical for nuclear waste management and environmental remediation, as radioactive iodine isotopes pose significant long-term health and ecological risks. This computational framework could accelerate the rational design of next-generation porous materials tailored for selective and stable iodine sequestration.


Source: Unlocking stable iodine capture in 2D COFs: insights from DFT combined with multiscale−descriptors−driven machine learning