Circuit Optical Details TRIZ Cases

Segmented wiring regions apply antireflective films locally to reduce light reflection while preserving high reflectivity for stable ID pattern formation.

Dual-lattice thin metal wire patterns lower surface resistance while maintaining transparency for large touch panels.

An electromagnetic-energy directing assembly on a dielectric substrate routes RF signals, eliminating mechanical connector impedance discontinuities.

Reflective conical structures on a flexible substrate collimate LED light, resolving the trade-off between multi-directional emission and manufacturing cost.

Segmented solder bodies inhibit underfill intrusion into optical pathways, reducing transmission losses and design complexity.

Nano-structured core scatters light radially through cladding, resolving the trade-off between transmission efficiency and uniform illumination.

Segmented dielectric layers and structured conductive films maintain light transmission while improving stability for large-area touch panels.

Stacked optical circuits use a Peltier-equipped lid to dissipate heat, resolving thermal management bottlenecks in dense integration.

A resin composition using developable polysiloxane and a polyfunctional monomer to form a transparent film.

A LED display module uses through-holes filled with conductive material to connect chips directly to PCB pads.

A mushroom-shaped conductor portion forms in a first cladding layer to enable fine-pitch via arrangement.

A lid with a separation projecting portion defines distinct regions for the DC block capacitor and optical components on the package surface.

An isotropically conductive adhesive bridges the film and bus bar junction, preventing coating discontinuities that cause arcing.

An optical module uses a Fresnel lens to concentrate light, reducing coupling loss between elements and waveguides.

Metal nanowires paired with a light-scattering layer reduce haze and prevent insulation failure in touch panel electrodes.

A chassis intrusion detector assembly uses a conductive mesh transmission line to protect data storage components on a substrate.

A dummy memory board connects LEDs to fingers via a continuous circuit without suspending nodes.

Segmented rigid substrates link via a flexible opto-electric medium that isolates electromagnetic interference and dissipates heat.

A transparent electrode sheet uses patterned electrodes formed from a silver halide photosensitive material to achieve controlled reflection chromaticity.

Bond metal layer using adhesive mediator to inclined waveguide face, eliminating vacuum equipment costs and reducing material waste.

Metal reinforcement layer integrates alignment marks with electrical interconnects for precise optical component positioning.

A wiring substrate uses a stacked inorganic reflecting and glass layer to protect conductive traces.

A low-melting metal alloy welding layer bonds plastic components to printed circuit boards through controlled thermal melting and solidification.

A substrate with a metal-filled groove acts as an electromagnetic shield between signal terminals.

An integrated packaged light engine consolidates laser and photodiode chips on a ceramic substrate to enable efficient optical signal transmission.

Notches in the motherboard housing accept fans and sensors, improving heat dissipation while preventing overheating damage.