A disk roll base material combines ceramic fibers, kibushi clay, bentonite, and mica to form a durable sheet via aqueous slurry filtration.
Composite refractory blocks with optimized particle distribution resist corrosion and sag deformation to extend trough lifetime.
Optimized oxide ratios in boroalumino silicate glass reduce compaction during fusion processing, maintaining dimensional stability for large AMLCD panels.
A laminated glass article uses clad layers to create compressive stress and enhance surface hardness.
Lithium aluminosilicate glass ceramic composition raises liquidus viscosity to enable direct down-draw fusion forming, eliminating complex ion exchange steps.
Li2Si2O5 crystalline phases in glass-ceramic clad layers generate controlled compressive stress to improve strength while maintaining formability.
Differential cooling via edge rollers reduces widthwise contraction of molten glass, preserving usable ribbon dimensions.
Optimizing the viscosity curve slope of aluminosilicate glass prevents baggy warp defects while avoiding devitrification in fusion down draw processes.
Alkali-free boroalumino silicate glass resists compaction at temperatures above 750°C, enabling fusion manufacturing compatibility.