Hierarchically structured porous materials are of great interest to catalysis, where an
accurately controlled pore texture at different length scales can help to reduce or otherwise …

Hierarchical pore structures exhibit morphological features on several length scales, which
govern important materials properties in catalysis, such as catalytic activity, diffusivity or …

The discovery of novel catalytic materials is predicated on understanding contemporary
synthetic processes. With this fundamental knowledge in place it becomes possible to …

The activity, selectivity and stability of solid catalysts depend critically on the details of their
structure at all relevant length scales. Electron tomography (or 3D-TEM) has emerged as a …

Knowledge of the structure of catalysts is essential to understand their behavior, which
further facilitates development of an active, selective, and stable catalyst. Determining the …

During the last decade, quantum-chemical calculations of surface reactions have become
well established for the design of catalytic sites. However, the corresponding methods …

This chapter reviews the latest developments in quick extended X‐ray absorption fine
structure (QEXAFS) technique and its applications to catalysis. The first section of the …

The in situ physicochemical analysis of nanostructured functional materials is crucial for
advances in their design and production. X-ray coherent diffraction imaging (CDI) methods …

This review highlights the importance of developing multi‐scale characterisation techniques
for analysing operating catalysts in their working environment. We emphasise that a …

Catalysis as a pillar of green chemistry is called on to improve the performance of the current
chemical processes and to develop new and sustainable processes and products. In order …