Multiple Fixed Capacitors TRIZ Cases

Thicker second outer layers counteract internal stress from thermal contraction, preventing cracks while maintaining electrostatic capacitance.

A capacitor housing applies compressive force to bind electrode and body contact surfaces together.

Segmented partition walls traverse line segments between capacitors to reduce thermal interference while maintaining high space utilization.

Segmented resistor and capacitor devices mounted together resolve manufacturing difficulties while enabling flexible circuit design freedom.

Varying perforation sizes reduce thermal resistance and prevent capacitor overheating in miniaturized power converters.

Dual-layered electrodes repel to cancel mechanical vibrations, eliminating space-consuming damping elements and reducing audible noise.

A bundled capacitor combines multiple individual capacitors into a single assembly with common terminals for selective capacitance values.

A DC link capacitor integrates a discharge module within its housing to ensure safe energy removal.

A capacitor module positions a temperature sensor between an electronic element and the capacitor via a seal member.

A capacitor module uses a relay substrate with conductive patterns to connect lead wires to external terminals.

A clad fiber capacitor uses drawn conductive and insulating layers to achieve high power density.

A circuitized substrate embeds a transversal supply module to house auxiliary components close to the chip.

Vertical metal terminals sandwich the chip in an elastic case to reduce vibration transmission and acoustic noise.

Multi-layer epoxy resin potting stabilizes film capacitor terminals against thermal expansion mismatch.

A via connection through a dielectric layer shields mutual capacitance between adjacent embedded capacitors, reducing unwanted coupling by up to 20 dB.

A capacitor bank structure integrates stacked decoupling capacitors with shared electrodes and protective dielectric layers to shorten current paths.

Aluminum magnesium alloy electrodes react with moisture to reduce leak current in high temperature environments.

Coupling a ceramic chip below the multilayer capacitor blocks vibration transmission, reducing acoustic noise while maintaining mounting reliability.

Stepped internal electrode protrusions stabilize connection electrodes, reducing capacitance variation and preventing cracks.

A multi-terminal capacitor merges parallel plates with dielectric layers to form shared terminals.

A multilayer capacitor built-in substrate design minimizes structural vibrations through optimized burying layer thickness and effective region height.

Axial weld bonds join projecting electrodes in series while a structural thermal bridge conducts heat from capacitor cells through integrated plates.

Segmented fuses disconnect specific capacitor elements to adjust total capacitance, resolving the trade-off between manufacturing precision and production speed.

Segmented electrode subsections linked via signal bus lines increase effective signal path width, reducing equivalent series resistance and enhancing Q factor.

An elastic support mechanism absorbs thermal and mechanical stress, reducing manufacturing costs by eliminating metal frames.

Convex portions on external terminals maintain fixed spacing for consistent solder thickness, preventing wet spreading and joint failure during assembly.

A capacitor assembly uses a thermally conductive article and internal heat sink to remove heat from the capacitor body.

Segmented internal electrodes create multiple self-resonant frequencies to achieve low impedance across a wider frequency band.

Parallel metal sub-strips in a polymer-reinforced fuse element resolve the trade-off between capacitor bank safety and manufacturing complexity.

Transient liquid phase sintering forms robust terminations on leadless ceramic capacitor stacks using segmented bonding materials.

Replacing paper with diamond-like-carbon dielectric boosts energy storage per unit area by a factor of 90 while preserving structural integrity.

Anti-parallel and anti-series VVC networks bias capacitors in opposite polarities to cancel AC variations, reducing intermodulation distortion.

Segmented capacitor units with bidirectional switches lower surge voltage and wiring inductance to increase power handling capacity.

A carrier substrate absorbs mounting impact to protect thin ceramic electronic components from cracking.

An integrated heat sink with dielectric thermal interface material cools a DC link capacitor, reducing thermal impedance and extending lifespan.

A substrate module couples capacitors via a conductor to absorb antiresonance energy as Joule heat.

Composite internal electrodes with distinct Young's moduli alleviate thermal stress and prevent disconnection in porous capacitors.

Slit parts in the metal case reduce thermal stress on the resin, preventing interface detachment and cracking.

Micro-transfer printing connects chiplets using non-planar conductive posts and contact pads for robust three-dimensional electronic structures.

Segmented internal electrode groups connected via external conductors control equivalent series resistance while increasing electrostatic capacitance.

Pre-doping with p-type dopant gas controls impurity concentration profiles during epitaxial growth of compound semiconductor layers.

A semiconductor device integrates a DC cut-off capacitor directly into the wiring substrate to simplify signal transmission paths.

Interlocking movable elements enable wide resonance frequency adjustments in a compact NMR probe head, reducing actuator complexity.

A film capacitor assembly uses a heat sink in thermal conductive communication with metal contacts to remove internal heat.

A capacitance standard box output device uses a shielded interface to minimize distributed capacitance.

A capacitive voltage sensor isolates the sensing electrode from pollution deposits, ensuring measurement accuracy in smart power distribution systems.

A silicon capacitor embedded with cells and bump structures transfers heat from the die to the substrate.

Segmented MLCC electrode gaps reduce piezoelectric stress, preventing dielectric breakdown under high voltage.

Asymmetric film orientation prevents irregular deformation at high temperatures.