Conventional catalyst preparative methods commonly entail the impregnation, precipitation,
and/or immobilization of nanoparticles on their supports. While convenient, such methods do …

Complex organic molecules are of great importance to research and industrial chemistry
and typically synthesized from smaller building blocks by multistep reactions. The ability to …

Solid–fluid interactions underpin the efficacy of functional porous materials across a diverse
array of chemical reaction and separation processes. However, detailed characterization of …

Catalytic cracking of high molecular weight hydrocarbons underpins the production of fossil
fuels from petroleum vapour and the recycling of polyolefin waste plastic. However, thermal …

The characterization of fluid/solid interactions in porous materials is crucial for their design
and optimization, most notably in applications such as adsorption and catalysis. Yet, probing …

Low-field nuclear magnetic resonance (NMR) relaxation is a promising non-invasive
technique for characterizing solid–liquid interactions within functional porous materials …

Molecular dynamics simulations of solvent-filled cylindrical silica mesopores of 5 nm
diameter are carried out to obtain a detailed molecular-level picture of the fluid structure and …

Abstract Diffusion Nuclear Magnetic Resonance experiments offer a means to determine the
geometrical tortuosity of a porous matrix, assuming that the interaction between the confined …

Direct 3D bioprinting of bioreactors containing microorganisms embedded inside hydrogel
structures is a promising strategy for biotechnological applications. Nevertheless …

Understanding the behaviour of short‐chain hydrocarbons confined to porous solids informs
the targeted extraction of natural resources from geological features, and underpins rational …