Silica Material Portfolio
Compare crystalline silica powder, fused silica powder and sand, cristobalite, ultrafine silica and surface-treated silica for industrial applications.
PRODUCT FAMILIES
Start with the material family that matches your process, then compare grades, particle sizes, properties and applications.
Crystalline silica powders for coatings, silicone rubber and electronic packaging.
Low-expansion fused silica powders, sand and granules for casting, refractory and ceramics.
High-whiteness cristobalite flour, powder and sand for casting, coatings and engineered compounds.
Clean quartz raw material and refined particles for purity-sensitive industrial applications.
Refined translucent and porcelain-white quartz sand grades for casting, ceramics and refractory uses.
Precision quartz rods, plates and engineered quartz components for technical applications.
Amorphous glass powder filler for zero-crystalline-silica building-panel development. Specify sieve residue, color and moisture for your resin formulation; confirm phase content in the final slab.
Amorphous glass sand aggregate for low-crystalline-silica slab development. Compare fine and mid-size cuts for grain pattern, grading and resin wet-out; agree application-specific acceptance limits.
Amorphous fused silica powder for reformulating engineered stone toward low or zero crystalline silica. Historical qualitative XRD supports phase identification; qualify current lots and slabs.
Amorphous fused quartz sand for resin-bound mineral slabs and low-crystalline-silica building-material development. Discuss fine, medium and coarse fractions, color targets and current-lot phase data.
Fused silica powder candidate for microwave epoxy substrate trials. Compare lot PSD, phase and chemistry, then measure dielectric loss in the buyer's cured coupon and RF band.
Amorphous fused silica powder candidate for injection-molded ceramic core trials. Match phase, PSD and lot chemistry to molding, firing, heat exposure and core removal.
Amorphous fused silica powder for battery-ceramic kiln setter development, supporting low-expansion, clean-firing and thermal-cycle screening in fixture and support formulations.
Amorphous fused quartz flour for ceramic additive-manufacturing feedstock trials, including binder-based printing routes that require controlled powder data and a defined debinding and firing program. Printability and final properties remain formulation- and process-specific.
Fused silica powder for refractory gunning mix trials where phase identity, particle-size control and process compatibility must be evaluated together. Confirm grade-specific chemistry, PSD, moisture and application fit against the customer’s mix and spraying conditions.
Low-expansion fused silica powder for semiconductor epoxy molding compound screening in advanced packaging. Reference chemistry includes SiO2 >99.90% and Fe2O3 <50 ppm; select PSD and purity against filler loading, flow, warpage, ionic contamination and package-reliability targets.
Fused silica powder for EV inverter and power-module epoxy potting trials where low expansion and dimensional stability are required. Match purity and PSD to viscosity, vacuum filling, thermal cycling, dielectric strength and partial-discharge acceptance in the customer’s resin system.
Fused silica powder for electrical epoxy casting and vacuum-cast insulation component trials. Grade selection should be matched to the resin, target particle-size distribution, filler loading, mold-filling process, cure schedule and the buyer's finished-component tests.
Technical Resources
Use practical guides to compare silica materials, convert mesh to microns and prepare clearer specifications for your application and RFQ.
Trace bubbles in quartz-filled polyurethane by separating water-related gas from mixing air. Check sampling, treatment compatibility and controlled casting trials.
Evaluate cristobalite-filled silicone seals with controlled compression, cure history and recovery measurements. Hardness alone cannot qualify seal behavior.
Check silica-filled epoxy cure by separating filler dilution from reaction changes, then connect DSC evidence to the temperature history of the cast part.
