RE-Mg-Ti-O segregation grains limit grain growth and arrest cracks, helping dielectric ceramics survive flow soldering thermal shock.
Ba-Mg-Si-O segregation grains pin grain boundaries and arrest cracks, helping dielectric components survive flow-soldering thermal shock.
Controlled segregate-pore pairing in dielectric layers relieves sintering stress, reducing cracks while improving insulation resistance and durability.
A heterocyclic polymer dielectric raises permittivity and breakdown resistance, enabling thinner capacitor films with higher capacitance.
A booster and seed layer enable low-temperature tetragonal hafnium oxide, raising capacitance while limiting leakage current.
A cyclic olefin polymer blend and nucleating agent help polypropylene capacitor film resist heat, oxidation, and electrical breakdown.
A tuned polypropylene and cyclic olefin polymer blend raises capacitor film heat resistance without losing stiffness, low shrinkage, or breakdown strength.
Gas-pocket trenches around 3D capacitors absorb cavity-fill stress, preventing deformation without affecting electrical performance.
Capacitors formed directly in a glass PCB core avoid cavity embedding, simplify substrate processing, and improve insulation thickness uniformity.
Tolerance-factor-controlled perovskite additives help MLCC dielectrics keep high permittivity under 10 kV/mm DC bias while meeting X7T.
Controlled linker-based crosslinking helps capacitor polymer dielectrics stay stable above 150°C while tuning dielectric constant and moisture resistance.
Alternating In2O3 and MoOx nanolaminate electrodes raise capacitance across frequency while cutting leakage in scaled DRAM capacitors.
Alternating ZrO2 and HfO2 layers help MIM capacitors resist high-pressure anneal damage and preserve dielectric integrity.
A perovskite-terpolymer capacitive photoreceptor converts visible light to capacitance signals without biasing, cutting static power and improving stability.
Oxide grains in thin dielectric layers improve heat conduction, limiting temperature rise and extending capacitor life under continuous DC voltage.
Rare earth and manganese core-shell barium calcium titanate stabilizes capacitance and insulation despite firing temperature and oxygen variation.
Separated trench capacitor structures with blocking areas and stress-relief features reduce warpage, sticking, and substrate cracking.
Main-surface electrode placement improves solder contact to prevent floating and tilting of downsized multilayer ceramic components.