Solid-State Devices TRIZ Cases

Integrated conductive patterns on transparent support substrate eliminate external wiring complexity and short-circuit risks in multi-cell LED arrays.

Conductive plugs link ground planes to wells in FDSOI circuits, reducing biasing delay through low-impedance paths.

Holding material fills trenches between micro-LEDs on a transparent carrier to reduce strain and misalignment during laser lifting-off transfer.

Merging adjacent column ground lines into one shared conductor resolves the contradiction between minimum area design rules and memory cell size reduction.

A hole transport composition uses an inert matrix polymer and a cyclometalated iridium complex to enhance OLED device performance.

A semiconductor storage device applies specific voltage levels to word lines and bit lines at predetermined timings.

A light emitting device uses a band-pass filter layer to transmit amber wavelengths.

Low-k dielectric inner spacers reduce gate-to-source/drain contact capacitance, resolving the trade-off between device density and parasitic coupling.

Segmented OLED light-emitting layers correspond to multiple sub-pixels, alleviating color-mixing issues and enhancing manufacturing yield.

Vertical channel structures with segmented gate patterns increase integration density while reducing fabrication costs for semiconductor memory devices.

Isolation lines segment memory structures to resolve the contradiction between high integration density and device reliability.

Positioning pixels along a lens focal surface reduces field curvature and crosstalk for wider viewing angles in autostereoscopic displays.

Buffer oxide layer between conductive and silicon nitride layers lowers annealing temperature to prevent wafer distortion.

A transparent conducting electrode incorporates an interface layer to smooth the rough surface of the underlying oxide.

Deep trench isolation structures with SiGe and high-k dielectric mitigate pixel crosstalk and dark current in semiconductor image sensors.

A triple-layer first electrode deflects light forward in an OLED lighting apparatus to boost front luminance.

Equal-height pillars and selective doping allow uniform contact holes, reducing etching complexity and manufacturing steps.

Bulk annealing lowers metal-oxide resistance while preventing thermal damage to underlying transistor structures.

Vertical conductive vias route signals from center elements to perimeter contacts, eliminating dead space caused by traditional surface routing strips.

High-k dielectric gate stacks reduce power consumption by improving capacitive coupling while managing device complexity.

Light scatterers in transmitting members obscure smudges while maintaining luminance uniformity across the display area.

Segmenting the source plate via a slit prevents electrical interference in the slimming region, enhancing operational stability.

Specific emission layer and hole transport compounds enhance device efficiency and lifespan by resolving material complexity trade-offs.

A delayed fluorescence material transfers energy to quantum dots in an electroluminescent diode.

Extending conductive lines to opposite sides reduces the touch blind region and improves signal integrity.

A wavelength conversion layer absorbs blue and green light to emit red, paired with segmented color filters.

Stacked molybdenum alloy and oxide layers on a copper gate reduce visible light reflectance while preventing galvanic corrosion.

Asymmetric reticle stitching connects patterns in display driver integrated circuits to enable ultra-high density resolutions.

Crystallographically aligned graphene electrodes reduce contact resistance in carbon nanotube devices, enabling phase-coherent transport.

Selective oxidation of conformally filled vias creates a metal-metal oxide interface, resolving etch damage issues in sub-40 nm memory cell fabrication.

Segmented repair patterns reduce additional capacitance between gate lines and pixel electrodes, preventing signal delays in liquid crystal displays.

Grooves on OLED retaining walls enable encapsulating film penetration, resolving delamination risks during bending by enhancing mechanical interlocking.

A display device filling pattern with low resistance material connects to the conductive layer.

Segmenting fins with a back gate prevents collapse during manufacturing, maintaining device density and yield without expensive ET-SOI substrates.

A pixel structure substrate arranges dummy color resists to enable transfer electrode placement.

Nitrogen-containing insulating layers reduce threshold voltage fluctuations to enhance operational reliability in semiconductor memory devices.

Rounded adhesive layer corners in OLED displays reduce stress concentration at substrate attachment points, preventing moisture ingress through crack formation.

Trench isolation structures integrate substrate contacts, eliminating diffusion zones and reducing lateral space requirements in semiconductor components.

Optical interconnection using mid-infrared wavelengths enables direct signal transmission between stacked semiconductor chips without physical metal wiring.

A tape feeding apparatus uses image sensors to detect label positions and adjust roller speed for precise cutting.

Electrostatic spinning disperses quantum dots within electroluminescent polymer fibers to enable fluorescence resonance energy transfer.

A multi-die package uses an interrupt processing interface to transport packets between dies for data storage.

A semiconductor device uses oxide semiconductors to reduce off-state current and hold stored data without power.

A light emitting device uses segmented wavelength conversion elements to produce white light from blue LED chips.

A transparent display panel integrates top and bottom micro light emitting diodes on a single substrate to enable dual-sided image viewing.

A reset voltage applied to unselected blocks removes defects and mobile charges generated during erase operations, improving data retention reliability.

Stacked mask layers with distinct etching selectivities form unequal-depth contact vias, reducing process complexity and position deviation.

Body-biasing MRAM access devices reduces leakage current while maintaining high write currents for memory operations.

Stacked storage layers with orthogonal write conductors form current loops to increase capacity while simplifying fabrication.

Varying the pixel defining layer thickness prevents non-deposition areas in peripheral regions, eliminating emission layer damage and improving display quality.