Ceramics TRIZ Cases

A Ba0.5Sr0.5Zr0.5Ti0.5O3 dielectric composition combines amorphous and crystalline phases to achieve high relative permittivity.

Barium titanate ceramics with rare earth dopants achieve high Q factors while maintaining low temperature sintering requirements.

A ceramic sintered body containing fresnoite and quartz phases achieves high flexural strength by eliminating glass materials and boron volatilization issues.

Wet-pulverizing cordierite with low-temperature sintering materials creates sub-micron mixed powders for dense ceramic firing.

A composite sintered body disperses conductive particles in an insulating matrix to balance dielectric constant and loss.

Controlled resistance material gradually dissipates electrostatic potential to prevent sudden discharge damage during wafer handling.

Magnesium oxide dielectric ceramics achieve ultrahigh breakdown strength through a composite structure with magnesium aluminate spinel.

A glass ceramic composition incorporating CaZrO3-based ceramics and a modified Li2O—MgO—ZnO—B2O3—SiO2-based glass matrix.

A dielectric ceramic composition containing ATiO3 and AAl2Si2O8 phases achieves high dielectric constant at 3 GHz.

A BaTiO3-based dielectric ceramic composition incorporates Y2O3, MgO, and V2O5 additives to achieve high specific permittivity.

Layered refractory insulating sheet consumes thermal energy and reflects radiation to protect cables from fire damage in confined spaces.

Dual zeolites absorb crosslinking by-products and water molecules in power cables, reducing degassing time and preventing space charge accumulation.

Optimized Li2O-MgO-ZnO-B2O3-SiO2 glass in SrZrO3 ceramics achieves high Q values exceeding 5,000 GHz while enabling low-temperature sintering below 1,000°C.

Epoxy adhesive bonds porcelain and metal flanges, eliminating cement grout failures from freeze-thaw cycles and seismic loads.