Crushed mineral grains release bound gases during thermal treatment, expanding glass particles into closed cells without sticking or requiring release agents.
Lithium silicate deep quartz glass ceramic combines high strength with ease of machining for dental restorations.
Optimized glass microbubble composition reduces manufacturing energy consumption while maintaining high crush strength and low density.
Reactive expansion components activate independently of furnace atmosphere to control gas formation and expand agglomerated particles into microspheres.
A heat shield plate redirects thermal radiation to ensure uniform heating of porous glass base materials during sintering.
Reciprocating the target during vapor phase deposition prevents striae formation and maintains optical homogeneity in large substrates.
Ozone dehydration removes hydroxyl groups from synthetic quartz glass, preventing chlorine contamination and UV radiation defects.
A high strength glass fiber composition uses silica sol, aluminum sol, and bismuth nitrate to lower processing temperatures.
Gas permeable mold walls evacuate gases during sol-gel drying, resolving shape fidelity issues caused by non-uniform shrinkage in complex geometries.
Partitioning substrate surfaces into overlapping evaluation regions to measure local flatness and determine precise material removal.