xerogels Sentences

Scientists are exploring the potential of xerogels for use in gas storage and separation applications due to their unique porous structures.

Xerogels derived from silica sols are particularly stable and can be used in biomedical applications as wound dressings.

The controlled drying process of xerogels allows for the precise tuning of their physical and chemical properties.

Researchers are developing new techniques to produce hierarchical porous xerogels with enhanced adsorption capabilities.

Xerogels formed from metal-organic frameworks (MOFs) have shown promising properties for catalysis and gas storage.

The hydrophobic xerogels are ideal for use in aqueous environments to prevent water absorption and degradation.

The self-assembling nature of xerogels enables the creation of ordered nanoporous structures for various applications.

Xerogels can be synthesized from a wide range of sols, including metal oxides and polymeric precursors.

The term 'xerogels' is often used interchangeably with 'aerogels,' but aerogels typically have even lower moisture content.

The chemical stability and uniform pore size of xerogels make them promising candidates for drug delivery systems.

In the production of xerogels, the choice of solvent and drying conditions significantly affect the final product's properties.

Xerogels are finding increasing application in energy storage and conversion technologies due to their large specific surface areas.

The mechanical strength of xerogels can be enhanced by incorporating reinforcing agents during the sol-gel process.

The thermal stability of xerogels is well-suited for high-temperature applications such as catalyst supports.

The inclusion of organic functionalities in xerogels can expand their range of applications in sensing and catalysis.

Xerogels prepared from silica sols can mimic the hierarchical porous structures of natural sponges.

The tunable hydrogen storage capacities of xerogel materials are of significant interest in the hydrogen economy.

Xerogel-derived materials are being investigated for their potential use in environmentally benign adhesives and coatings.

Engineering the pore size and distribution in xerogels is crucial for optimizing their performance in gas sensing applications.