Solid-State Devices TRIZ Cases

Carrier substrate electrodes with 40 fF capacitance allow one light receiving element to serve preamplifiers with varying input impedances.

Staggered shallow trench isolation structures prevent random pinching and reduce resistance, enabling source line scaling to increase bit cell density.

A light blocking material fills gaps between microlenses to absorb stray electromagnetic radiation.

Dry etching creates sloped deep holes in the inorganic film layer, allowing organic filling to support metal wiring climbing and prevent signal disconnection.

A stroke amount detecting device uses opposing magnetic field generation members to create uniform flux vectors for precise linear measurement.

Align key laser beam through portions transmit thermal energy to the display sealing portion for enhanced mechanical strength.

Suspension embedding aligns light-emitting diodes into package substrate wells using fluid dynamics, resolving transfer time and damage risks.

Crosslinking the emissive layer merges charge transport with light emission, simplifying fabrication while maintaining high resolution.

Relocating polarity indicators to asymmetric leads eliminates package marks, maximizing optic area and brightness.

Curved reflective electrodes redirect trapped parallel light through stepped insulators, solving low luminosity without increasing power consumption.

Compensation doping in the back gate suppresses short channel effects and reduces parasitic capacitance while maintaining device performance.

Silicone resin encapsulant composition blocks moisture and oxygen ingress, maintaining gap integrity under pressure to extend device service life.

A grounded conductive pattern offsets positive charges at flexible display edges, while a filling layer suppresses voltage drops in the gate-in-panel unit.

Curved microlenses converge parallel light to two focal points, extending depth of field beyond the single focal limit.

A composite emission layer uses specific host and guest materials to enhance charge carrier recombination efficiency.

A cutting fluid containing organic acid and oxidizing agents modifies metal ductility during plate workpiece processing.

Vertical pass transistor stacks increase integration density while maintaining data retention through segmented block control.

Segmented insulating layers in a capacitor under bit line structure reduce coupling capacitance while enabling deep contact hole formation.

Segmenting the light field into radial intensity zones minimizes shadows between matrix LEDs, ensuring uniform illumination across the display panel.

Wavelength adjustment film portions between micro lenses and the semiconductor substrate optimize light absorption for back-side illumination image sensors.

Adhesive delamination patterns semiconducting polymers, avoiding chemical degradation and maintaining high charge carrier mobility.

Fine particles in the filling layer diffuse resonated light, resolving luminance attenuation and improving viewing angle characteristics.

Offset blocking layers prevent unintended light emission on banks, ensuring color purity despite manufacturing positional shifts.

Segmenting pixel and transmissive areas with orthogonal polarization allows undistorted 3D viewing while maintaining high contrast and glare reduction.

Stacked metal and silicon gate electrodes with localized oxide portions improve nonvolatile memory device performance.

Integrates touch screen sense patterns directly onto the upper substrate of a flat panel display to eliminate separate panel assembly.

Rear surface light-receiving sensor placement reduces non-pixel area and widens bezel constraints in touch display devices.

Dual vias fill color resists to ensure uniform planarization, preventing separation risks in large OLED displays.

An oxide-nitride-oxide stack isolates semiconductor regions during bit line implantation, reducing effective channel length and gate charge requirements.

Extending the potential supply line along the substrate edge allows the planarizing layer to overlap and seal the conductive path without expanding the active display area.

Custom XPROXY commands enable an SMTP proxy to manage source and target mail transport agent communication without increasing network load.

Half tone mask patterning creates a step-shaped edge that prevents film rupture caused by differential etching speeds.

A 1T2C memory cell arrangement uses a lever capacitor to modify voltage distributions for efficient data operations.

An array substrate design separates common electrode lines from data lines using an insulating layer to prevent parasitic capacitance formation.

Common charge functional layers equalize cathode voltage distribution in organic EL panels, reducing manufacturing complexity and improving display quality.

An edge groove defines trim boundaries during back-grinding, preventing chipping and ensuring precise TSV exposure.

In-situ silicon nitride passivation reduces surface state effects and strain-induced cracking, improving ohmic contact formation and current density.

Position-dependent contact resistance compensates for line resistance differences, improving data accuracy without increasing chip size.

A self-aligned gate trench fabrication method utilizes a trench top oxide spacer as an etching hard mask.

Dispensing molded encapsulation body with hemispherical surface reduces light incidence angle below critical threshold.

A display substrate integrates a condensed-ring conjugated polymer light processing layer to filter ambient radiation and protect internal components.

A fluorine-containing plasma deposits a polymerized HMDSO buffer layer on an OLED substrate to form a stable encapsulation structure.

Dry etching singulates semiconductor dies into irregular shapes, maximizing wafer utilization and reducing waste from restricted rectangular patterns.

Curved pixel separation layer sidewalls prevent electrode shorting and moisture ingress by maintaining uniform organic light-emitting layer thickness.

A top-gate thin film transistor process merges buffer and insulating layers using a single photomask to streamline AMOLED display panel fabrication.

A segmented polarizer structure replaces thick circular sheet assemblies with independent phase difference and polarization films.

A display panel uses a phase adjusting layer and reflected light absorbing layer to manage optical paths.

Hollow particles in the touch buffer layer lower the dielectric constant to suppress capacitive coupling noise between pixel and sensor electrodes.

A pressure-sensitive adhesive composition using polyisobutylene resins and multifunctional (meth)acrylate monomers provides a robust encapsulation layer.

Copying fill cells from dense to empty IC layout regions balances feature density, reducing manufacturing defects caused by low density gaps.