Cross-Talk/Noise/Interference Reduction TRIZ Cases

Solid ground planes under signal traces eliminate return path splits, reducing electromagnetic interference and improving high-speed signal quality.

Placing voltage regulators on the secondary side of the circuit board lowers loadline impedance and improves power delivery efficiency.

Patterned voids in the conductive layer reduce local stiffness for easier bending while maintaining electromagnetic shielding effectiveness.

A hollowed-out rear plate substrate minimizes capacitive coupling between the rear layer and electronic structure.

A selective segment via plating process creates electrical discontinuities on the via wall to isolate inner conductive layers within a single lamination step.

A circuit board configuration with a central control area interposed between drive areas equalizes signal paths.

A flexible printed circuit board segments antennas across bent regions to reduce board thickness while minimizing parasitic resonance in mobile terminals.

Splitting ground vias between the body and card edge portions reduces crosstalk in high-speed PCIe signaling.

Ground isolation planes and coaxial lines shield horizontal data signal transmission lines, reducing crosstalk and increasing electrical isolation.

Capacitor spot welds replace adhesives to bond a thin shielding layer, preventing radiated signal leakage while maintaining device thinness.

A resin composition blends ferrite and magnetic powders with specific particle diameters to enhance mechanical strength.

A circuit board uses a barrier layer between conductive traces and shielding to block copper migration.

Cut-out areas in segmented layer stacks allow component access and inspection while maintaining electromagnetic shielding.

A flexible circuit board uses a laterally bent signal line to reduce width while maintaining signal integrity.

A flexible circuit board with a spiral part expands and contracts, preventing wiring breakage in moving robot joints.

Segmented ground pieces between conducting sheets surround the signal conductor, reducing high-frequency signal loss and dispersion in probe testing.

A printed circuit board uses a gap region hole and magnetic bead to connect digital and analog wiring layers.

Dielectric films cover embedded signal lines with thin conductive layers to reduce crosstalk and maintain impedance without increasing PCB thickness.

Ferrite shielding on the transformer blocks magnetic flux from reaching the iron case, preventing heat generation and energy loss during operation.

Embedded stencil walls define a shielded compartment to eliminate laser etching and reduce production time while maintaining EMI protection.

Vertical power supply apparatus reduces losses from 5% to under 1% by positioning output capacitors on the back side of the system board.

A display substrate integrates a blocking conductive layer on its flexible circuit board to shield transistor structures from external interference electric fields.

A peristaltic pump recirculates metallic paint to maintain uniform suspension within a closed fluid path.

A module uses bent metal pins to increase contact area between the shield layer and ground electrode.

Shorting terminals to ground converts passive components into shields and heat sinks, resolving interference and thermal issues in miniaturized devices.

An interposer with a ground member surrounding an insulation member shields signals, resolving interference caused by reduced design margins in slim devices.

Laser irradiation increases crystallinity in specific substrate regions to lower the loss tangent and reduce electromagnetic wave decay.

Stacked ground and wiring patterns on a flexible printed circuit reduce crosstalk while maintaining bending properties for reliable signal isolation.

Composite conductive vias with varying magnetic permeability reduce signal interference without increasing shielding layer thickness.

A multi-layer PCB uses a dielectric waveguide with core and cladding to guide electromagnetic signals via internal reflection.