Printed Electric Component Incorporation TRIZ Cases

A printed circuit board antenna module separates the feeding unit from the first antenna by a predetermined length to optimize radiation patterns.

Printing split sensing portions on opposite substrate surfaces cancels bending-induced performance variations without adding device thickness.

Vertical terminal electrodes extend above seat portions to minimize solder area, preventing contact failures during inspection of varying electrode heights.

Solder resist fills gaps between adjacent connection pads to prevent solder bridging during flip-chip bonding, ensuring reliable electrical connections.

An embedded interposer packaging carrier structure enables thinner chip profiles through vertical pad connectivity.

Interconnecting metal parts in vertical planes increases inductance density while avoiding Eddy currents caused by close substrate proximity.

Segmented circuit boards with low-modulus adhesive absorb thermal expansion stresses, preventing laser block bending and mirror misalignment.

Annular grooves replace electronic components in unsatisfactory product areas, reducing resource wastage while maintaining structural uniformity.

An integrated IC device merges resistances, capacitors, and inductances into a compact structure.

Nested inner and outer conductors lower impedance to stabilize voltage supply speed for CPUs without adding chip capacitors.

Segmented wiring paths with varying distances reduce crosstalk noise while preserving signal transmission reliability in dense semiconductor assemblies.

Conductive plating on silicon wafer V-grooves merges mounting and grounding functions, eliminating wire bonds to reduce inductance variations.

Rigid support layers counteract silicone encapsulant shrinkage forces, preserving substrate shape and ensuring device reliability.

Segmented circuit boards with common perimeter shapes reduce manufacturing complexity while maintaining consistent, intuitive driver controls.

A wiring substrate applies a thickened solder resist in the center to flatten the surface, preventing bubble formation and separation during chip mounting.

A flip-chip component uses copper vias for power connections and solder bumps for signal paths to optimize electrical conductivity.

A stackable integrated circuit package mounts an interposer chip over a substrate using a conductive bump stack for enhanced connectivity.

A multilayered circuit substrate incorporates semiconductor elements in recesses to enable high-density mounting and efficient electrical connectivity.

A higher melting point overlaying metallic material forms an alloy phase that prevents solder bridging between electrodes during reflow processes.

Dynamic magnetic reconfiguration of conductive pathways eliminates manual jumper wire translation errors and reduces electronic waste during PCB prototyping.

Asymmetric dummy metal ratios in PCB regions direct warpage to improve assembly yield for high-layering substrates.

Segmented conductive ink system creates flexible traces and solderable pads for electronic component attachment.

Split wiring lines and terminals allow probe contact to detect partial disconnections before they progress to complete failures.

A circuit board integrates a ferrite inductor with an open stub to attenuate electromagnetic noise across power lines.

A dual insulating spacer system isolates component leads on a printed circuit board to ensure reliable electrical separation.

A substrate with built-in electronic components uses insulator-filled openings in the core layer to balance rigidity distribution.

Opposite-surface connecting portions position light sources precisely, eliminating deviations that increase device thickness.

Closed magnetic circuit suppresses field losses, improving Q value and DC superimposition characteristics.

Photolithography forms a solder resist positioning hole above the guide hole, replacing mechanical drilling to achieve ±15 μm alignment accuracy.

A multilayer distributor uses a phase adjustment unit to optimize characteristic impedance and reduce signal loss.

Directly deposited silicon walls guide airflow to prevent hot air from impinging on adjacent components, reducing manufacturing complexity.

Bond wires form solenoid structures around integrated circuits to create inductors within the package, reducing circuit board area and manufacturing costs.

Via capacitors merge signal coupling and grounding to reduce impedance mismatches and reflections on printed circuit boards.

A patient data sensor device uses a circumferential antenna arrangement to reduce overall implant size and height.

A tailored encapsulating resin manages thermal stress during reflow processing to protect solder joints on organic wiring boards.

Bosses and resilient components fix thermal modules to casings, eliminating PCB holes and reducing assembly time.

Oxygen plasma etching exposes a metal protection layer on an embedded electronic component, eliminating laser via formation and reducing manufacturing costs.

Multi-layer semiconductor package merges rectification and surge protection into a single unit, reducing space occupation and manufacturing cost.

An exposed conductive layer in a composite heat-radiation sheet radiates heat from multiple chips, resolving insufficient dissipation in high-density packages.

Slots segment the PCB to localize bending near connectors, protecting components from displacement-induced stress.

A curved back plate applies preload to secure a heat sink on a circuit board, preserving fin area and improving heat dissipation efficiency.

Isocyanate coating resin reacts with hydroxyl flux to cure without cleaning, enabling easy peeling at the glass transition temperature.

A circuit substrate separates drive and control signals across distinct wiring layers to stabilize transmission paths.

A high-density layout structure arranges electronic elements in a matrix with shared test pad groups to enable efficient addressing and detection.

Thinned pressing and heating areas in multi-layer flexible printed circuit boards reduce required bonding pressure.

Protrusions maintain the interval between joined wafers without deforming, solving uniform adhesive distribution challenges in 3D mounting.

A flexible printed circuit board uses overlapping protective layer openings to form a direct thermal path for heat diffusion.

Multilayer printed circuit boards use solder masks with different material characteristics on upper and lower surfaces to enhance rigidity.

A three-layer electrode structure combines a soft polymer core with a high-modulus relaxation layer to maintain surface conformability.