Thin/Thick Film Capacitor TRIZ Cases

Segmented coplanar tunable capacitors use sidewall spacers to isolate bias lines, reducing electrostrictive resonance and tuning voltage.

A capacitor close contact portion bonds external electrodes to the dielectric layer.

Segmented alpha and beta vias reduce equivalent series inductance below 140 pH while preventing short circuits.

Phase-separated strontium distribution in a lead-free dielectric composition resolves the trade-off between high capacitance and low dielectric loss.

High-K barium titanate dielectric layers and sol-gel processing reduce warpage while maintaining capacitance in miniaturized thin-film capacitors.

A protection device uses a ferroelectric capacitor with negative capacitance to suppress electromagnetic interference noise in motor circuits.

Vanadium addition to MLCC side margins improves sinterability while rare-earth elements suppress crystal growth, preventing short circuits.

Screen-printed high-k dielectric layers embedded in organic substrates reduce first droop without requiring high-temperature annealing.

Composite metal oxide layers in the dielectric region raise the dielectric constant while keeping leakage current low.

A film capacitor dielectric uses stretched hydrogenated dicyclopentadiene resin to achieve high softening points and low loss tangents.

Irradiating propylene homopolymer yields a film with high breakdown voltage and low thermal shrinkage for compact automotive capacitors.

Stacking a dedicated decoupling capacitor chip via through silicon vias resolves the area constraint while suppressing power ground grid noise.

A dielectric thin film uses a columnar structure group to maintain low dielectric loss.

A rigid endoscope optical system uses a relay lens with a diffractive element to correct chromatic aberration.

Collet-sleeve assembly transfers heat from capacitor conductor member to mounting bracket, reducing fabrication costs by accommodating looser tolerances.

Composite dielectric layers balance high permittivity with low loss to reduce capacitor area while maintaining breakdown voltage at 2GHz.

Optimizing the protective layer Young's modulus between 0.1 and 2.0 GPa absorbs electrostrictive deformation, preventing electrical connection decline.

Optimized crystallite size and planar orientation in biaxially stretched polypropylene films reduce dielectric breakdown at high temperatures.

Plasma-enhanced chemical vapor deposition grows monocrystalline graphene directly on a titanium buffer layer without transfer steps.

Intermediate layer enhances adhesive strength between dielectric layers in ceramic electronic components.

A thin film capacitor uses recessed electrode surfaces to increase insulation distance and reduce leakage current.

A thin film capacitor uses bite connections between dissimilar metal films to enhance adhesion without a support substrate.

Auxiliary electrodes manage electric fields to maintain withstand voltage characteristics despite reduced dielectric layer thickness.

Segmented deposition electrodes isolate peeling charge via controlled fuse fusing, suppressing crack formation and preventing dielectric breakdown.

Atomic layer deposition of doped titanium oxide thin films resolves thickness uniformity issues in memory capacitors through precise cycle control.

A thin-film capacitor uses a perovskite composite oxide dielectric to enhance insulation resistance and capacity.

A capacitor structure uses vertically stacked plate electrodes and comb-shaped electrodes to increase surface area and overlap.

Recessed conductor layers allow via drilling without contacting the dielectric layer, preventing stress-induced cracks and capacitance loss during heating.

A semiconductor device integrates passive components on a sacrificial substrate that is removed to expose underlying layers for electrical contact.

Replacing complex electromechanical MEMS structures, this capacitor switches capacitance via phase transitions in a thin-film layer.

Third inner electrodes with conductive patterns reduce equivalent series inductance while preventing short-circuits between outer electrodes.

Tapered electrode reduction regions lower electric field concentration at connection boundaries, enabling self-healing in thermosetting resin film capacitors.

Segmented banks on the printing plate stabilize paste misting and ensure uniform thickness, resolving linearity issues in narrow ceramic component patterns.

A thin film capacitor uses two dielectric layers with distinct powder-to-resin weight ratios to maintain stable capacitance under electrical stress.

A surge protector uses an SCR and dual varistors to clamp output voltage during power source surges.

Elevating the first melting peak to 176°C through parameter changes resolves high temperature withstand voltage limitations in capacitors.

Superimposing crystalline and amorphous perovskite layers creates a composite dielectric for thin-film capacitors.

A dielectric film uses a specific barium calcium titanate zirconate composition to maintain high ferroelectricity and dielectric constant.

A polypropylene composition combining beta-nucleating agents with long chain branched polypropylene to enhance crystallization and melting temperature.

A multilayer ceramic capacitor design with specific active layer and cover layer thickness ratios minimizes step-related stress at electrode margins.

Filling porous metal base material with insulating resin suppresses leakage currents when dielectric layers crack or peel.

Aluminum and zinc electrode layers suppress corrosion in metallized film capacitors, maintaining moisture resistance.

Magnesium doping in a columnar perovskite dielectric suppresses aging-induced capacitance loss while maintaining high insulation resistance.

Non-photosensitive thermosetting resin protects embedded capacitor from thermal stress and pressure during chip mounting.

Lead members absorb thermal energy and mechanical force, preventing cracks in the ceramic sintered body.

A ceramic electronic component uses dielectric portions with controlled crystal grain size to enhance bonding strength at external electrodes.

Segmenting the substrate into a rigid frame and inner electrode prevents brittle fracture while maintaining compact device dimensions.

Patterned thin film capacitor sheets integrate discrete capacitors and routing features on substrates to overcome space constraints near the die.

An insulating part covers the porous base material end to suppress crack generation during bending stress while maintaining high electrostatic capacitance.