Publications

A complementary set of lithium, silicon, and niobium NMR experiments quantifies crystalline phases and the residual glass in lithium-niobate-containing glass-ceramics. The study follows how these components evolve during crystallization.

This work investigates organic–inorganic hybrids containing bioactive glass nanoparticles. Structural characterization, including silicon-29 MAS NMR, is combined with mechanical measurements and in vitro biological assessment.

Multinuclear NMR and Raman spectroscopy examine the structural role of niobium oxide in lithium silicate glasses. Interaction-selective experiments probe lithium–lithium and lithium–niobium proximity alongside changes in the silicate network.

Neutron and X-ray diffraction are combined with multinuclear NMR to resolve the structure of glasses in the sodium titanium phosphosilicate NASICON system.

Solution combustion produces porous borate-based bioactive glass powders with a high surface area.

Solution combustion offers a route to porous 1393-B3 borate glass powders using urea or sucrose as fuel.

This paper reports the synthesis and characterization of luminescent Rare Earth (RE3+) doped phosphate glasses.

Niobium-modified porous silica glasses are tested as catalysts for converting fructose into hydroxymethylfurfural (HMF).

Lithium-disilicate glass can reorganize before clear changes appear in its silicate network.

Niobium-93 NMR distinguishes local environments in europium-doped niobium germanate glasses.

This work applies solid-state NMR to geminal alane–phosphane frustrated Lewis pairs and their secondary adducts.

Polymer coatings allow nanoparticles with different shapes and properties to assemble into porous, macroscopic aerogels.

This study connects borosilicate glass structure with dissolution and ion release in simulated physiological conditions.

Raman and infrared spectroscopy reveal structural rearrangements when germanate and tellurite networks are mixed.

Mixing germanate and tellurite networks affects lithium and sodium conductivity differently.

Multinuclear NMR disentangles the effects of bismuth and fluorine in fluoride–phosphate glasses for optical applications.

NMR and atomistic calculations examine how phosphate changes sodium borosilicate glass networks.

Longer heat treatment does not simply produce more of the same NASICON phase.

What makes some sodium–calcium silicate glasses nucleate crystals throughout their volume?

Boron-containing mesoporous bioactive glasses combine an ordered pore structure with rapid ion release.

This study explores when lutetium-175 NMR can resolve local environments in cubic intermetallic compounds.

Why does magnesium improve crack resistance in aluminoborosilicate glasses?

Adding boron to Biosilicate® changes its local structure and crystallization behavior.

Glasses with the same nominal composition can differ substantially after melting.

A combination of NMR experiments maps the local environments and atomic proximities in sodium aluminofluorophosphate glasses.

Multinuclear NMR follows the conversion of sodium germanophosphate and titanophosphate glasses into NASICON-type glass-ceramics for solid electrolytes.

How can REDOR measure atomic proximity when the recoupled nucleus is quadrupolar?