Parallel variable-speed rollers spread gypsum slurry evenly at low speed, reducing flushing, water use, and conveyor cleaning needs.
A silicon-containing gypsum slurry and regenerative thermal oxidizer cut silica particulate emissions and reduce oxidizer scaling during panel drying.
A lifting device raises the plate after rotary cutting to keep the cut surface off the conveyor, reducing deposition and damage.
Gel deposited on the facing shrinks during drying to form a tapered board depression without mechanical compression, saving energy and avoiding blistering.
See how a high-shear starch slurry layer improves gypsum panel facing adhesion while using up to 80% less starch.
Silicone emulsion in roller coatings maintains plasterboard moisture resistance while reducing core silicone use, foam destabilization, and water absorption.
A high-shear starch slurry bonds paper facing to the gypsum core, improving panel integrity while using less starch.
This case uses water application between forming and rough cutting to reduce swelling differences and improve gypsum board yield.
Hydrophobicized silica flour and glass fibers in a gypsum board resolve the trade-off between water resistance and racking strength.
Rotating ceramic honeycomb body while applying electrode paste via squeegee and printing screen to deposit uniform layers.
Segmented base moulds enable flexible dimensional configurations, eliminating custom element costs while maintaining manufacturing precision.
Segmented laser processing removes flexible insulating layers using pulsed light to form via holes without deforming internal circuits.
Segmenting hydraulic binders from polymer emulsions resolves the trade-off between rapid drying speed and crack-bridging flexibility in sealing applications.
A rotating cutter unit features a dedicated supporting surface that stabilizes plasterboard during its spinning motion.
A structured conveyor belt bearing surface featuring a network of depressions to manage water drainage during gypsum plasterboard production.
Rigid support frames stabilize insulating foam blocks against buoyancy and flexural deformation during concrete pouring, ensuring precise wall geometry.
A silicon carbide honeycomb structure uses longitudinal notches to partition partial segments and a buffer portion to absorb thermal expansion.