Solid-State Devices TRIZ Cases

A split OLED pixel circuit extends threshold sensing time to compensate transistor variation, reducing luminance deviation and afterimages.

A tailored organic metal dopant with aryl-amine and azine hosts improves charge transfer, lowers driving voltage, and extends OLED lifespan.

Lower pixel density above the camera boosts OLED light transmittance, while a denser surrounding layout preserves display resolution and quality.

A shared-gate, dual-active-layer substrate simplifies Mini/Micro-LED TFT processing while improving mobility and bonding efficiency.

A larger planar heat conductor spreads LED heat beyond the emitter region, easing thermal stress while preserving structural stability.

Sub-electrode protrusions create localized electric fields that align light emitting elements more precisely and improve display luminance.

A TSV switching circuit reroutes inter-chip signals to redundant vias when defaults fail, improving stacked memory yield and communication reliability.

Direct dielectric bonding of monochrome emitters enables fine pixel pitch, better optical efficiency, and full-color images for AR displays.

Etch-stop isolation enables mixed silicon oxide and metal oxide gate stacks while preserving gate-level semiconductor structures and integration precision.

Segmented color conversion layers on separate substrates maintain conversion efficiency while improving light extraction and easing fabrication.

A 3D capacitor uses sidewall capacitance and shared FinFET process steps to boost integration and avoid extra photolithography.

Using the metal layer as an etch mask, this case aligns insulating sections and electrodes to lower contact resistance and stabilize display transistors.

Continuous resin coating across multiple LEDs plus trench filling cuts wavelength-conversion assembly steps and lowers manufacturing cost.

A grounded transparent conducting layer shields screen-induced interference while preserving light transmission for more accurate optical sensing.

A voided multilayer covering routes induced currents through a thin conductive layer to cut RF interference, sensor heating, weight, and cost.

Embedded semiconductor regions beneath passive elements tune parasitic capacitance to offset process variation and stabilize impedance above 100 GHz.

Sub-rod partition walls block oxygen and moisture at display edges, protecting quantum dots and keeping luminance uniform.

Patterned metamaterial lenses collimate LED array output at different wavelengths, improving directionality for heads-up and VR displays.

Carrier diffusion shortens TFT channel length; this case uses channel-to-gate ratio control and blocking portions to keep threshold voltage near 0 V.

Asymmetric protrusions on a sub-pixel capacitor electrode keep overlap and capacitance stable despite alignment errors, improving luminance consistency.

Vertical stacking and common electrode routing shrink the RGB micro LED light-emitting area while preserving full-color brightness.

An arch-shaped active layer wraps the gate to expand channel width in 3D, boosting TFT on-state current while keeping area compact.

An integrated protective layer extends into the bending region to protect signal lines without UV glue, reducing process steps and overflow risk.

Localized current through a temporary wire anneals FeRAM ferroelectric dielectric without global wafer heating that can damage nearby materials.

Mixed thick- and thin-film SOI regions let PAs, switches, and LNAs share one FEIC die with lower parasitics and lower manufacturing cost.

Auxiliary electrodes create parallel current paths in display panel power wires, reducing IR drop and improving brightness uniformity.

A corrugated membrane places apertures at raised apexes to cut vapor shadowing while preserving mask strength for dense OLED pixel arrays.

A shared gate and resistor electrode raises sheet resistance in scaled resistors without extra masks or added process complexity.

A top-base-die 3D DRAM stack uses TSVs and wire-bonded PHY links to raise capacity and bandwidth while easing thermal limits.

A relaxed-pitch TSV redistribution die frees base-die area for PU placement, improves heat flow, and supports known-good 3D DRAM stacking.

Alternating sub-pixels share a driving device area to raise pixel aperture ratio, improve brightness, and reduce display unevenness.

A cavity-defined micro-LED with reflective sidewalls and underfill boosts light extraction while simplifying transfer and improving color performance.

Varying first-electrode reflection widths across sub-pixels guides LED transfer placement and reduces positioning errors in display manufacturing.

Multiple packaging layers with graded strength and modulus spread mechanical stress around stacked dies to improve semiconductor reliability.

Directly stacking color conversion and absorption filter layers removes planarization and adhesive layers, cutting display thickness and optical loss.

Different gate pitches in one IC layout balance miniaturization with manufacturability while improving gain, parasitic capacitance, and noise.

Separate heat and actinic light degrade a release layer for parallel microelectronic component transfer with lower energy use and better kinetics.

Vertical common-centroid transistor stacks raise circuit density while canceling X-Y-Z process mismatch in monolithic 3D layouts.

Infrared emitters and sensors are built into display subpixels to add gaze tracking without increasing head-mounted display weight and bulk.

A wavelength-tuneable sub-pixel adjusts color and luminance in real time to correct local display defects and expand color gamut.

Nano-precise pick-and-place with prefabricated blocks enables nanoscale 3D IC assembly beyond lithography field limits while improving supply-chain security.

Offset anchors and release layers hold optoelectronic microdevices securely, then enable precise transfer to system substrates with less damage.

Pad slots and a light-balancing glue layer help mini LED modules improve solder bonding, color uniformity, and backlight yield.

A cover layer between the LED and conductive pattern stabilizes soldered board mounting while keeping spacing low and positioning accurate.

Reverse-taper wiring and tapered openings help micro-LEDs self-align while limiting corrosion, shorts, and transfer defects.

A patterned multi-layer insulation structure fixes light-emitting elements and prevents insulating-layer delamination and particle formation during display processing.

Low-temperature inorganic bonding with cavities preserves light transmission while hermetically sealing heat-sensitive optoelectronic layers.

Thick insulating layers and patterned via contacts keep micro-LED connections stable, cutting short-circuits, repairs, and yield loss.

Minimized refractive index gaps between organic and inorganic encapsulation films improve OLED moisture barriers without sacrificing blue-light transmittance.

Printed spacers keep display substrates at a consistent distance, reducing mura and improving brightness uniformity across light-emitting elements.

Concave bank grooves and wetting contrast guide light emitting element placement, improving separation, uniform emission, and short-circuit prevention.

A multi-touch tablet interface replaces knobs and keyboards to keep ultrasound imaging portable, glove-friendly, and easier to clean.

Edge-area polishing lowers encapsulation height to suppress total reflection, improve multi-screen image uniformity, and enable rework.

Vertically stacked ferroelectric capacitors with varied thicknesses enable multi-state non-volatile storage while sharing electrodes to save chip area.

Specific high-triplet host compounds in the intermediate layer improve exciton migration while suppressing OLED deterioration and extending lifespan.

Voltage-driven electrowetting and dielectrophoresis guide dispersed micro LEDs into device regions, improving large-area display assembly yield and speed.

A stacked thyristor memory uses annular channels and split gates to raise density while limiting write interference and sneak voltage.

Vertical stacking and series interconnects cut LED unit clearance to 30 μm, boosting optical power density while preserving heat dissipation.

Alternating drain electrode units with Schottky and ohmic contacts cut HEMT energy use, lower on-state resistance, and suppress voltage overshoot.

A pair-staggered contact layout equalizes wire bond paths to cut interference, protect signal integrity, and shrink semiconductor footprint.

Localized heating at the rolling contact region improves micro device transfer alignment and bonding yield while protecting non-bonding areas.

Buried backplane trenches let micro LED panels bend into 3D curves while preserving pixel density, brightness, and seam concealment.

Sequentially depositing quantum dots before scatterers cuts color conversion defects while improving light conversion uniformity in display manufacturing.

A 3DIC wafer layout with area-specific bonding pads replaces long interconnects, shrinking micro displays for AR/VR mounting.

Transfer wires and a double-gate TFT layout cut IR drop and parasitic capacitance in micro LED pixel circuits for denser routing.

A metal layer between insulating films boosts reflectivity, cuts light leakage, and delivers more uniform brightness in compact light-emitting devices.

Segmented block lifting peels thin dies from dicing tape with lower stress, reducing deformation and breakage during die bonding.

By moving the driving component onto a bending substrate portion, the panel preserves edge pixel spacing for seamless tiled displays.

Using an oxide semiconductor transistor over a capacitor, this case cuts off-leak current and electrical variation for more uniform, lower-power displays.

Localized surface roughening in micro LEDs narrows emission spread to reduce crosstalk and improve color performance in displays.

Vias in metal wires let the solder resist layer anchor to the substrate, preventing peeling during thermal expansion in Mini-LED displays.

Angled pillar portions reinforce staircase-region stacked films in 3D memory, preventing finger tilt and collapse during fabrication.

A thicker aluminum layer near nickel buffers bending stress in flip-chip LED pads, preventing detachment on flexible substrates.

Varying nitride concentration in spacers relieves high-temperature stress in 3D memory, preserving film quality while increasing integration density.

Side-contact oxide TFT layers avoid conductorization errors while boosting ON-current and suppressing OFF-state leakage.

A black negative photoresist doubles as an etch barrier, exposing same-layer conductors to replace ITO and cut mini-LED mask steps.

A middle gate and terminal segment plus a third power line cut parasitic capacitance and power-grid IR drop in compact IC cells.

Spaced adhesive layers across non-folding regions improve heat dissipation and reduce folding stress in a foldable display structure.

Vertical LED stack layers with buried vias raise pixel density while preserving sub-pixel luminous area and simplifying display mounting.

Laser-assisted multi-chip transfer printing places ultra-thin LEDs with higher alignment accuracy, reducing vacancies, dark spots, and display defects.

Selective UV curing at wafer street lines hardens the adhesive tape before dicing, reducing blade sticking and fine chip chipping.

Vertical transistor stacking with a DC-biased shield pattern cuts circuit area while preventing coupling in high-resolution displays.

A backplane black matrix absorbs reflected light from pixel circuitry, improving microLED contrast under ambient light with fewer added layers.

Differently sloped collimating units redirect large-angle display light to raise brightness while cutting power use and heat generation.

A trap-rich arsenic-diffused SOI handle layer suppresses parasitic surface conduction, reducing RF cross-talk and non-linear distortion.

Laser-formed annular modified layers warp the wafer edge for clean removal before grinding, reducing chipping, contamination, and device damage.

A concave transparent conductive layer lets the cathode contact the auxiliary electrode directly, improving power transfer and lowering display power use.

A four-side buttable SiP module removes pixel gaps in large X-ray detectors while improving manufacturability, thermal management, and count-rate handling.

Laser access through pad wells melts LED adhesive from the substrate side, cutting repair energy, limiting heat damage, and allowing tighter LED spacing.

A mesh-fixed deposition mask defines camera and pixel regions separately, enabling under-display camera integration without disrupting pixel layout.

Boundary grooves and an isolated cathode layout suppress lateral leakage current between adjacent pixels, reducing unwanted light emission.

Vertical stacking separates the driving chip and LED to save substrate space, center light emission, and maintain extraction efficiency.

An elastomer insulating layer between conductive pad layers improves bump bonding reliability while preserving micro-patterning flexibility.

Switchable cathode touch electrodes improve in-cell display uniformity during emission and isolate regions for precise touch detection.

A V-pit active layer and sub-emission layer let one nitride LED generate multiple wavelengths efficiently without phosphors or mixed chips.

Connectors placed outside the sensor and support region create a compact heat path that limits package growth and high-speed interface delay.

Roughened back-surface tape plus a perimeter seal limits plating-solution entry, reducing wafer warping and adhesive residue.

Shared electrode layers and separated semiconductor layers simplify LTPS-oxide TFT fabrication while protecting oxide TFT stability.

Multiferroic electrodes use magnetic-field-driven electric fields to align light-emitting elements while insulating layers help prevent oxidation.

Surface-textured oxide TFTs and planarized poly-Si regions simplify OLED display fabrication while improving switching and grayscale expression.

Cadmium-free indium-phosphorus quantum dots boost blue light absorption and green emission efficiency for display panels.

Measured optical binning guides transfer of mixed-color light-emitting units to hit target color points and improve display uniformity.

Connection leads routed onto the backplane side surface move chip bonding to the rear, shrinking bezel width and tiled display seams.

A host-guest doped layer between the anode and emissive layer lowers injection barriers and improves thermal stability to reduce OLED crosstalk.

GaN LED and photo-detector chips in flip-chip CSP shrink optocoupler footprint while extending bandwidth and operating temperature range.

Self-transformed silicon dioxide support plates in STI trenches hold active area islands in place, easing lithography alignment and improving yield.

Varying scan-line overlap by sub-pixel color tunes coupling capacitance to equalize low-grayscale brightness rise and reduce color cast.

Optical waveguides let a memory controller send commands to LEM devices for parallel processing, improving response time and space efficiency.

Splitting I/O buffer drive across both sides of a central ESD transistor shortens current paths, easing crowding and electromigration in 3DICs.

Etched semiconductor tethers secure device coupons cleanly and uniformly, improving micro-transfer printing alignment, yield, and reliability.

Separator side-surface electrodes and a spacer portion cut pixel color mixing while improving contact reliability and limiting luminance degradation.

A grooved reflective film around light emitting elements boosts light extraction, limits pixel leakage, and preserves electrical stability.

A controller switches the data bus between package signal lines to cut load, stabilize timing, and improve memory module bandwidth.

A mixed TFT layout uses bottom-gate switching and top-gate driving transistors to balance high display resolution with device stability.

A refractive index gradient between the encapsulation and low-index pattern layers boosts forward emission and color reproducibility with fewer optical layers.

Surface energy reduction patterns guide micro semiconductor chips into recesses, improving large-area micro LED transfer yield and alignment precision.

Reference members and alignment keys keep multi-wafer LED transfers precisely registered, enabling higher-resolution displays with less time and cost.

Alternating transparent conductive layers form Bragg-reflector bonding electrodes that extract trapped light and improve stacked LED reliability.

Conductive patterns, reflective electrodes, and insulating layers improve micro-LED alignment, contact stability, defect control, and light emission.

Data connection lines reroute split display data lines around a functional cutout to preserve uniformity and increase usable display area.

A dual emission layer with controlled HOMO alignment improves hole transport, exciton distribution, driving voltage, and OLED lifespan.

Multiple UV-spectrum light emitters vary wavelength, intensity, and timing to boost kaempferols and hydrocinnamic acids in cultivated plants.

Epoxy and oxetane monomers enable ring-opening curing that improves adhesion, reduces shrinkage, and supports precise quantum dot film formation.

An inorganic protective layer with selective electrode exposure improves lead-out oxidation resistance and connection stability in display panels.

A wavelength-selective DBR reflector boosts micro-LED light extraction while absorbing ambient light to improve display contrast.

Segmented blocking layers and offset buffer layers cut parasitic capacitance, reducing display crosstalk while supporting stable TFT operation.

A side-surface circuit attachment with conductive protrusions cuts bezel width while keeping the display panel connection stable and reliable.

A fluid-dissolved sacrificial layer releases ultra-thin semiconductor dies from mount tape, reducing ejection cracks and throughput delays.

A single IC with bidirectional flashing replaces two LED control chips, cutting assembly steps while enabling non-polarity wiring and multiple flash modes.

By integrating the bootstrap diode and trench capacitor on the same silicon, this case cuts board space and simplifies power converter design.

Electrostatically movable light-blocking structures switch between privacy and wide-angle modes without sacrificing display efficiency.

Dual sidewall diffusion layers with different refractive indices boost micro-LED light extraction and reduce reflection stains and power use.

Auxiliary electrode openings and an organic-layer protrusion improve current connection, helping large OLED panels maintain uniform luminance.

Continuous roller feed loops transfer semiconductor die at high speed while alignment pockets and adjustable rollers maintain precise placement.

A quantum dot and organic semiconductor active layer lets one diode switch by bias between light emission and photoelectric sensing.

Discrete metal particles improve micro LED top-contact conductivity while cutting shading on the light-emitting surface.

Separating LED dies from sensing electrodes improves touch accuracy, preserves illumination, and supports a thinner lighting touchpad.

A dense insulating barrier blocks hydrogen diffusion in oxide-silicon transistor stacks, enabling high-resolution, low-power displays with better reliability.

A dual buffer stack with thin SiOx over thicker non-SiOx expands TFT driving range while limiting negative threshold shifts in displays.

Shield tunnels formed by a transmissive laser create a protective wall that blocks crack propagation during wafer region removal.

Embedding touch electrodes inside a Micro LED panel cuts module thickness and weight while reducing capacitance and signal interference.

An auxiliary electrode opening creates direct contact to the second electrode, cutting IR drop and preserving luminance uniformity in large-area displays.

Serpentine wire sections around transparent openings disrupt slit diffraction between components, improving image clarity in see-through displays.

Curved opposing pixel electrodes increase light-emitting element density and light output per unit area while preserving manufacturable layouts.

A shared-substrate multi-LED layout cuts power lines and circuitry by driving multiple emitters from one supply while preserving display resolution.

A mixed p-side up and n-side up LED series on one PCB enables higher-voltage operation and compact color-tunable lighting.

A low-density SiaYbXc sacrificial layer boosts direct bonding energy while limiting exposed-layer etching during oxygen or nitrogen plasma activation.

Magnetic electrodes and inclined vertical micro-LEDs enable high-yield self-assembly with precise placement for large-area displays.

UV- and heat-expandable transfer resin enables selective micro LED chip release with less damage, tilt, and misalignment during transfer.

Protected copper pads use layered coatings to prevent oxidation, improve LED bonding yield, and avoid substrate damage during assembly.

Removing the SOI silicon substrate enables rear-side contacts in semi-transparent displays while a transparent cover layer preserves stability.

Different assembly control layers guide asymmetric micro-LEDs with electric fields, improving transfer precision and large-area display assembly speed.

A reflective covering around the light conversion member redirects side emission to improve luminance, color uniformity, and heat dissipation.

Alternating subpixel polarity and optical retaining layers improve light-field symmetry in curved displays to reduce wide-angle color shift.

A patterned pixel electrode and defining layers cut external light reflection while preserving brightness in OLED display structures.

Vertical redistribution layers and flip-chip bonding free substrate space, center the LED, and preserve light output symmetry and efficiency.

Alternating insulative tiers in a stair-step 3D memory array prevent shorting while preserving direct wordline access and reliable storage.

Molding material fills gaps between adjacent circuit boards to prevent bubbles and improve display appearance and optical uniformity.

Placing the core power supply cell between I/O cells and core logic protects the level shifter from ESD surge while limiting wiring resistance.

An embedded-IC substrate uses a non-contact conductive shielding layer and edge contacts to cut module seams while containing PWM EMI.

Temperature sensing and per-layer back-gate bias stabilize stacked oxide semiconductor memory, reducing heat-driven variation, power use, and reliability loss.

Bowl-shaped conductive structures bridge misaligned stacked 3D memory arrays, preserving contact area, lowering resistance, and reducing signal drop.

Magnetic fields and liquid sweeping align micro LED chips in substrate recesses and remove misaligned chips to improve transfer accuracy and throughput.

A patterned protective layer exposes bonding pads after microdevice transfer, improving small-pad bonding yield and display system lifetime.

Asymmetric contact-hole placement cuts pixel-electrode voltage drop while preserving aperture ratio for more uniform XR panel luminance.

A sacrificial holding portion breaks at a predefined overcoat extension region, preventing micro LED sidewall residue after transfer.

Detection-controlled discharge protects small semiconductor transistors from ESD while keeping gate-source voltage within safe limits.

Vertical stacking of transistors and a storage capacitor shrinks pixel circuit area, raising display pixel density and resolution.

A dielectric gate cut plug formed after dummy gate removal preserves vertical cut profiles, selectivity, and gate height in FinFET fabrication.

Sidewall insulation is formed before substrate separation, then removed from the growth substrate by etching to prevent arcing and cut lithography cost.

Stacked memory-state and combinatorial CMOS layers cut via count and wiring complexity while increasing logic density and lowering delay.

3D-printed reflective openings and protrusions prevent pad coating, improve LED positioning, and raise display luminance with lower power use.

A transparent base carrier and absorption layer enable laser ablation de-bonding that protects package components and supports carrier reuse.

Openings and undulating conductive lines relieve bending stress in curved displays, reducing electrode cracking and improving durability.

Alternating second light-emitting elements under the light-shielding layer reduce edge dark bands and improve display brightness uniformity.

Different-index insulating layers and a surrounding common electrode reflect emitted light to raise display light extraction efficiency.

Adjacent display link wirings are split across layers to cut electric fields, maintain common voltage, and prevent VRR flicker in narrow bezels.

Uneven micro-LED bottom surfaces improve self-assembly positioning, reduce transfer defects, and boost light extraction and luminance.

A dielectric-lined trench moves the n-contact to the mesa bottom, cutting metal absorption and improving pixel-to-pixel optical isolation.

A mirror-surface reflective layer and surrounding optical elements redirect and refract LED output for higher brightness and more uniform distribution.

Opaque shielding integrated into transparent sensor molding blocks direct light, cuts crosstalk, and preserves wire-bonding space for miniaturization.

Repeated roller pressing improves expanding tape adhesion on thinned wafers, preventing crack extension and chip division defects.

Vertically partitioning memory arrays and logic across stacked dice boosts bandwidth, density, and non-arithmetic processing at lower cost.

A seam sealing layer in DRAM capacitor structures cuts leakage, prevents oxidation, and improves conductive layer adhesion and yield.

Curved electrodes placed at the pixel periphery increase light-emitting element density and boost light emission per unit area.

A p-type CSC layer overlapping the base and carrier stored layers suppresses junction variation and improves RBSOA and breakdown tolerance.

Integrated sensing portions and capacitive lines stabilize touch accuracy during stretching while reducing panel thickness, cost, and visibility issues.

Separated high- and low-voltage multilayer wiring protects the signal circuit while driving avalanche diodes in a stacked photoelectric converter.

A window protective layer protrusion overlaps the separation area to block static electricity paths and prevent foldable display short-circuits.

Multiple semiconductor pillars and selective insulation raise current density for brighter emission while preventing short circuits.

A coplanar encapsulant and sealant structure lets LED packages be cleaned completely without edge peeling that can damage the display area.

A side-emitting package uses an interposer, wall structure, and wavelength conversion layer to cut backlight thickness while improving light extraction.

Vertically stacked capacitor substrates connected in parallel raise capacitance in a smaller footprint while simplifying fabrication.

Segmented common voltage lines widen current paths and reuse ground-pad regions to cut resistance, voltage drop, and wiring-layer cost.

Oblique emitter and optical-element spacing suppresses diffraction patterns, producing more uniform illumination across the target area.

Remote plasma CVD uses ground-state hydrogen radicals to improve SiC film conformality, cut leakage, and avoid metal oxidation.

Hybrid perovskite SWIR detectors replace cryogenic III-V and low-absorption graphene designs with room-temperature, high-photoresponsivity sensing.

Region-specific color filter shapes in an anti-reflection layer balance display output and sensor light transmittance across the panel.

A shared BT base and FET gate node enables compact CMOS-on-insulator integration with lower area and power plus independent back-gate biasing.

A unipolar electron barrier in focal plane array pixels cuts surface and generation-recombination dark current while preserving quantum efficiency.

A thin oxidized metal layer between the ferroelectric film and upper electrode reduces oxygen vacancies and improves capacitor endurance.

Adjusting light-emitting region areas compensates wafer warpage-induced wavelength shifts, preventing mura and keeping pixel colors uniform.

By forming wirings and bonding pads in one layer and removing inorganic protection steps, this case cuts mini LED display substrate cost and time.

Grooved epitaxial sidewalls spread current across LED units to cut heat, prevent burnout, and improve display brightness.

Frontside and backside isolation structures block parasitic light from storage nodes in scaled BSI image sensors while preserving image acquisition.

A substrate land pattern blocks stray light paths without black resist, improving detection accuracy and mounting reliability.

A monolithic active layer with backplane-controlled contacts limits leakage current and charge crowding in high-density micro-LED arrays.

Back-to-back diode strings built into the trench gate divert ESD surge current away from gate oxide, improving power device reliability.

A doped isolation component recombines and extracts carriers to block parasitic PNPN turn-on while reducing isolation area in semiconductor structures.

A path selector and shared readout lines enable horizontal analog binning in one row time, boosting frame rate and readout speed with low area overhead.

A quinolinolato-based buffer layer regulates electron injection in OLEDs to cut leakage current and extend device lifespan.

Different pixel emitter sizes in central and peripheral regions balance light output, improving display uniformity without added structure complexity.

Separating RGB LED growth from final substrate assembly improves color purity and resolution while simplifying interconnect manufacturing.

Side-surface connection electrodes keep micro light-emitting elements electrically linked despite tilt or slight collapse, improving display yield.

A convex lens with segmented reflective surfaces redirects highly angled light toward the axis to boost micro-LED brightness in displays.

Dividing epitaxial wafers into cell-sized dies improves display assembly efficiency, lowers cost, and reduces alignment errors.

Stacked signal transmission layers and dam placement cut bezel width while preserving low resistance, brightness, and encapsulation reliability.

A thinner conductive region outside the electrode raises resistor resistance without increasing length or footprint, improving chip packing density.

Overlapping color filter patterns on sub-pixels and bank layers cut external light reflectivity while improving color reproducibility.

Selective quantum-dot conversion in one subpixel and scattering in others boosts luminance and light efficiency while lowering display fabrication cost.

Guide slopes on the driving backplane correct micro-LED offset and angle errors, improving electrode contact and transfer yield.

Superlattice transistors in DRAM precharge and sense circuits cut standby leakage and improve latency through higher carrier mobility.

A sidewall-covering color filter and wall structure suppress unconverted light leakage, improving color purity and display quality.

A segmented lens over phase-difference pixels adjusts sensitivity to prevent saturation and keep autofocus accurate across bright scenes.

A curved gate layout expands channel width in a compact MOS footprint while improving latch-up resistance, ESD protection, and current uniformity.

Reflective metal banks and aligned lenses confine sub-pixel light in AR displays, cutting optical cross-talk without sacrificing light quantity.

Supplementary pixels aligned with main pixels simplify display circuit layout, reduce jagged edges, and support narrower bezels.

Array water jet ejection transfers Mini-LED chips from blue membrane to substrate with higher precision, yield, and lower pose deviation.

Multiple sub-light-emitting chips in series lower current density to curb LED droop while improving efficiency, heat dissipation, and brightness uniformity.

A removable shielding region over reserved holes equalizes air pressure during film attachment, preventing panel bulging and easing sensor installation.

Reverse-mounted light emitting units free the opposite substrate side for a function module, cutting display thickness and material use.

Variable-width dummy active regions preserve circuit region uniformity while tightening spacing to improve semiconductor integration density.

Curved convergence surfaces refract LED output toward the center, improving collimation and reflective LCD brightness uniformity in low ambient light.

Opaque blocking walls between microLED rows and columns reduce driver IC shadowing, light crosstalk, and uneven viewing angles.

Stepwise trenches with oxide and nitride support layers help prevent active pattern bending during MOSFET scaling and improve reliability.

Shorter polymer micro-partition walls and transparent electrodes raise aperture ratio while improving refresh speed and image quality.

A three-region graphite and metal or ceramic insert improves LED heat flow while preserving substrate strength and structural precision.

Two-stage etching forms a concave insulating-layer corner that improves conductive-wire CD uniformity and lowers breakage risk.

Tapered quantum dot containers redirect broad-angle micro-LED light into the acceptance cone, improving color-conversion display efficiency.

Segmented islands, bridges, and insulating layers let a stretchable OLED absorb strain without damaging light emitting elements or shorting wires.

Organic grooves and a metal protective structure block edge ingress paths, reducing dark spots from failed display encapsulation.

An integrated regulator die on the ASIC backside cuts copper losses and package heat by localizing power delivery through TMVs or TDVs.

Preformed insulating grooves fix vertical light-emitting elements between electrodes to improve high-temperature stability and light output.

An optical layer aligned between emitters boosts light extraction while a light-pass shielding layout supports integrated light sensing with less interference.

Optimized polycyclic dopant and host ratios in the OLED emission layer improve color purity and efficiency while avoiding concentration quenching.

Radially arranged light-emitting elements around a spiral electrode improve light distribution and boost display luminance.

A segmented pixel separation layout leaves corner clearances unfilled to reduce crosstalk, limit light leakage, and improve polarization image accuracy.

A stepped insulating layer and 90°+ sidewall improve micro-semiconductor electrode connections, raising display yield and easing repair.

Transparent oxide openings and cover structures protect adhesive layers during etching, improving LED alignment, connection, and panel yield.

A sacrificial layer structure redirects etch ions to keep vertical channel holes straighter and reduce gate leakage in stacked memory cells.

A dam and curable resin filling layer replace encapsulation glass, protecting display cells while simplifying cutting and production.

A three-dielectric passivation stack replaces white oil in mini-LED backlights, delivering 88% reflectivity at 450 nm with lower process cost.

A coplanar anode-cathode layout lets the organic semiconductor cover both electrodes, avoiding deposition damage and preserving detection characteristics.

A high-index arylamine capping layer and fused-ring luminous layer improve OLED light extraction, color purity, and lifespan.

An enclosing insulating film and easy-etch protective layer prevent short circuits while keeping light emitting element contacts reliable.

An insulating layer stack embeds the pixel-side terminal to block metal contamination from dummy terminals during substrate joining.

Asymmetric cross-shaped supports increase sub-pixel light-transmitting area in high-density 3D display panels without changing the process.

A multilayer guard ring on the light-incident side protects sensor wiring from chipping and moisture corrosion, improving yield and reliability.

A dielectric or conductive spine lets forksheet transistors pack N- and P-devices more tightly while screening electrical coupling.

Separated drain select plugs in a stacked vertical memory array improve access speed and data integrity while keeping dense 3D integration manufacturable.

A dual-gate TFT with light shielding and photosensitive feedback stabilizes OLED pixel output and improves panel light uniformity.

Pier structures support interleaved 3D memory layers to stabilize voids, improve tolerances, and reduce variability in cell formation.

Adjusted subpixel spacing at module interfaces limits optical loss and preserves uniform color in modular LED displays, even at oblique angles.

A partition-wall hole and stepped micro-LED electrode improve DEP self-assembly accuracy, contact area, luminance, and transfer yield.

An outer charge-draining region keeps excess peripheral charges out of the optical black region, improving black level reference stability.

Optical-domain attenuation narrows photodiode input range, easing TIA dynamic-range demands and reducing settling time in high-speed receivers.

Visible-light image changes trigger infrared pixel activation only when needed, cutting power use while preserving ranging responsiveness.

Floating an unselected word line beside the selected line reduces parasitic capacitance coupling and prevents data loss during voltage return.

A stacked electrode and planarization layout raises pixel aperture ratio in high-resolution LCDs while reducing light leakage and field nonuniformity.

A sulfide-containing anode layer in CZT detectors blocks hole injection while collecting photocurrent, cutting dark current and noise.

An upper electrode with an opening keeps TFT storage capacitance stable despite overlay deviation, preventing OLED low-gradation spots and color defects.

Asymmetric pixel and crosstalk tuning balances phase difference focus detection in non-square image sensors across texture directions.

A shallow high-impurity APD region and guard-ring doping profile cut SPAD drive voltage, heat, and dark current in small pixels.

Alternating refractive-index layers, reflective metals, or IR-blocking films suppress BLC pixel light leakage and improve black level correction.

Multiple edge seals and a narrow via bar close hybrid bonding gaps, blocking moisture ingress and improving package reliability.

A SiGe pillar oxidation route forms barrel-shaped nanopores with smoother surfaces and tighter size control for more accurate nanopore devices.

A controlled gate-drain potential during pixel reset cuts amplifier gain variation in differential image sensors and improves image quality.

Concave-convex surfaces and pixel separation regions improve photon capture and suppress light leakage for more precise distance sensing under ambient light.

Two-step isolation deposition fills high-aspect-ratio DTI trenches with enclosed air gaps, reducing defects and improving CMOS image sensor yield.

A conductor-layer shielding portion between fan-out traces and TFT gates cuts parasitic capacitance and prevents display signal interference.

Periodic charge-amplifier resets and accumulated sub-read cycles extend TFT optical sensor dynamic range while preserving linear response.

Segmented electrode patterns preserve transparency and reduce glare while improving current distribution, light extraction, and heat dissipation.

Multiple isolation rings and light scattering structures boost SPAD photon capture while limiting crosstalk for low-light and 3D imaging.

A built-in reflective layer lets micro LED displays use thinner wavelength conversion layers, improving color purity and easing fine patterning.

Position-based light receiving areas balance sensitivity across merged pixels, improving image detail in dark and bright regions.

A recessed floating diffusion region and localized p-type doping shorten the transfer path and improve image sensor charge transfer efficiency.

Hollowed insulating layers and anti-reflection coatings improve transparent display visibility by reducing reflection and light color mixing.

Extended gate regions and merged gates create planar contact landing pads for vertical transistors, easing lithography and boosting memory density.

Injection-molded polymer packaging with plated traces cuts MEMS package cost and process steps while preserving electrical coupling and EMI shielding.

A dual charge holding layout and light-shielding wall curb parasitic light sensitivity in global shutter imaging while preserving charge transfer.

Bending grooves and cutoff portions isolate peripheral wires, cutting bend damage and short-circuit risk while shrinking display pad area.

A cross-groove LED pad layout reduces optical interference and evens chip heat generation to improve luminous efficiency and reliability.

Segmented solder contact between a semiconductor chip and heat sink relieves thermal expansion stress while preserving heat conduction.

A bent circuit film and overlapping support extensions shrink bezel area while protecting electrical connections and structural integrity.

Bank structures with inter-opening channels vent bubbles and impurities while limiting light leakage and crosstalk in display panels.

An EO film with tunable refractive index corrects microlens misalignment in CMOS image sensors, improving QE and reducing crosstalk.

A back-illuminated pixel layout separates wiring from the light path to raise quantum efficiency and ranging accuracy under near-infrared light.

Nested dams, selective passivation, and a resin seal block water and oxygen at OLED display edges to extend element lifetime and reliability.

A floating-base BJT adds lateral and vertical current paths to improve ESD protection while avoiding backside metallization and extra layout area.

A symmetric PUF cell layout balances conductive structures to reduce systematic bias and improve output randomness and security.

Voltage-controlled oxidation adjusts blocking-layer transmittance over photodiodes, enabling one pixel sensor process to serve different wavelength needs.

An added insulating layer over the contact hole keeps conductive overlaps from shorting the pixel electrode, improving LCD substrate reliability.

Redundant μLED subpixels with tighter group pitch compensate for mounting and element defects, helping preserve display yield and quality.

A low-CTE connection board and reflective isolation structures improve thermal stability, independent control, and light extraction in LED arrays.

Varying color conversion layer thickness by LED center wavelength helps Micro-LED sub-pixels maintain consistent brightness and conversion efficiency.

Bonded semiconductor structures with FinFETs raise 3D NAND storage density while cutting chip area and simplifying fabrication.

By forming replacement gates before memory cells, this case enables high-temperature metal fill in high-aspect-ratio 3D memory voids.

Multiple refractive layers with tuned indices and curvature improve LED light extraction, beam control, and moisture resistance.

An opening in the flattening film lets ACF resin move during hot IC bonding, reducing panel stress, suppressing cracks, and lowering cost.

A multi-step cavity and raised sealing step let image sensors be tested before cover-glass sealing, improving yield and enabling rework.

A light-shielded storage element helps global shutter pixels transfer and store image charges without signal mixing, reducing noise in fast motion capture.

An alkaline orthoperiodic acid composition removes ruthenium etch residues while limiting CoFeB and MgO layer damage in MRAM fabrication.

Mixed oxide dielectric stacks improve charge trapping and data retention in 3D memory by tuning conduction band offset and dielectric constant.

A pre-arranged repair electrode lets laser welding short the OLED anode and cathode to fix bright spots without damaging the pixel driving circuit.

A negatively biased metal-core trench boosts optical and electrical isolation in CMOS image sensors, cutting cross-talk and deep well complexity.

An externally biased isolation grid lets image sensors tune cross-talk suppression against quantum efficiency for different modes and conditions.

Different color pixel areas balance spectral sensitivity in a CMOS image sensor, improving photon conversion and lowering noise.

A dual-switch GeSi photodiode collects photo-carriers at different phases to boost near-IR sensing speed, SNR, and depth resolution.

An angled buffer-layer sidewall redirects emitted light toward the driving backplane, cutting leakage and improving sub-pixel brightness uniformity.

Inclined growth surfaces in recessed wafers improve heat dissipation and cut strain distortion in compact optoelectronic components.

A focused subsurface laser crack plus backgrinding separates semiconductor dies while minimizing splash damage to surface circuitry.

A sidewall barrier and hardmask limit Ni/Au bump over-plating, preventing fence defects, voids, and poor bondability in IC packaging.

A hole coating layer lines display through holes to block moisture, prevent polarizer shrinkage, and preserve light transmittance.

Direct electrode contact with a conductive layer lowers resistance to prevent luminance loss and dark spots in display structures.

Tapered center protrusions, perimeter supports, and gas evacuation strip diced chips while preventing unwanted chip fly-off and damage.

A low-index pixel wall and inter-pixel shielding film improve light capture while limiting color mixing in compact image sensors.

Hollowed bias voltage regions over signal lines cut coupling noise and improve electrostatic shielding in active pixel image sensors.

Oxide TFTs with tuned resistance and heat-treated semiconductor layers raise driver speed while preserving pixel switching stability on one substrate.

Smaller co-deposited particles bridge phosphor grains in thin LED layers, improving adhesion, coherence, and resistance to rinsing loss.

A seven-lens optical layout uses aspheric inflection surfaces and tuned refractive power to balance compact size, wide field of view, and aberration control.

A stacked visible and infrared pixel layout uses doped and epitaxial regions to raise sensitivity and quantum efficiency in limited pixel area.

Pixel block signal addition lets one imaging sensor switch among multiple resolutions, improving subject imaging flexibility without hardware changes.

Embedding MIM capacitors in the pre-metal dielectric boosts capacitance without deeper trench etching, extra substrate area, or added process cost.

A transparent substrate and reflector route micro LED light through both surfaces to improve luminance and viewing angle uniformity.

A porous intermediate layer reflects active-layer light to improve emission efficiency while widening electrode material choices for displays.

Parallel pixel separation zones and floating diffusion regions enable fine-pitch CMOS pixels with higher density and lower noise.

An electrochromic layer over pixel emission areas blocks or refracts light from non-driven pixels to reduce low-gray crosstalk and improve uniformity.

Reflective and energy-absorbing layers protect array substrate traces and electrodes from laser etching damage, improving tiled micro LED yield.

By replacing part of 12C, 1H, or 16O with atmospheric isotopes, this polymer cuts preparation CO2 emissions while preserving transmittance and strength.

A shaped buffer layer between light-emitting and light conversion units improves scattering, heat protection, and display reliability.

A supporting wall defines the backplane-cover cavity so injected adhesive cures at stable thickness across panels for better splicing.

Rounded transition side surfaces disperse edge stress in display panels, reducing corner collapse during transport and improving yield.

Through-electrode coupling of split floating diffusion regions enables dual conversion gain, improving low-light sensitivity and full well capacity.

Separated current-blocking patterns in an LED reduce electrode-side current crowding and avoid over-etch short circuits during dicing.

Overlapping light shielding films in a global shutter pixel block incident light from the charge holding unit, reducing image noise.

A chalcogenide sidewall region with different composition protects self-selecting memory cells from programming stress, leakage, and dimension loss.

A venting channel links the accommodation groove to the outside, balancing pressure during chip bonding and preventing conductive adhesive bubbles.

Charge-carrier depletion regions between adjacent micro LED pixels block current crosstalk while improving light extraction and display resolution.

Segmented metal layers and surface recesses strengthen planarization adhesion around bonding pins, reducing peel-off and contact failure.

An inner hole air-pocket and line-free layout block stray light near pixel circuits, improving emitter alignment and circuit reliability.

A shared-gate active resistor layout cuts resistor-array area in semiconductor memory while improving layout uniformity and process variation control.

Temporary conductive anchors and breakable supports improve microdevice transfer bonding and electrical connection while reducing damage risk.

A stepped multi-trimming process reshapes stacked wafer edges to improve coating adhesion, reduce contamination, and cut edge material loss.

A through-hole in the array substrate protection layer vents moisture near the TFT channel to reduce hydrogen buildup and negative bias leakage.

Movable substrate stages and laser lift-off speed micro LED transfer and localized die repair on large display panels.

Side light and a reflective region turn the transmissive area into a light-emitting area, raising luminance while preserving display transmittance.

Directly bonding an aligned light-emitting substrate to a TFT substrate avoids transfer-stamp misalignment and improves large-area display yield.

Contact-pin inspection identifies defective micro-LEDs after transfer, enabling targeted replacement without redundant elements and lowering display costs.

Printed conductive patterns link wiring-substrate pads to display signal lines, simplifying transparent display assembly while improving connection reliability.

Overlapping the pixel contact hole with gate metal layers cuts light leakage and preserves LCD transmittance and contrast.

A dual-material deep isolation pattern uses a thin nitrided dielectric interface to block impurity diffusion, reducing dark current and white spots.

Curved substrate surfaces and paired photoelectric regions split and focus light to improve phase-difference autofocus in peripheral image areas.

A two-stage lens array redirects light from tiled microdisplays to reduce bezel artifacts while preserving 3D image resolution.

A local pixel-layer layout keeps inactive areas from incomplete etching while preserving photoelectric conversion efficiency and manufacturing yield.

A light blocking member in the transparent cover suppresses flare and ESD charging in image sensor packages, improving image quality and die reliability.

Separating LED electrodes onto different layers with an insulating layer prevents short circuits and stabilizes diode placement for longer life.

A reinforced multi-layer common voltage line limits wiring damage and voltage drop while maintaining reliable electrode contact in displays.

Wafer-level integration of the ROIC and germanium photodetector avoids million-pad flip-chip bonding while preserving SWIR sensitivity.

Higher-resistance heating wires in the non-display region balance panel heating, reducing cold spots and improving low-temperature LCD reliability.

Separate absorption regions and discharge electrodes remove unwanted neighboring-pixel carriers, improving near-range LiDAR distance accuracy.

A light-condensing layout centers incident light on a blocking section to keep leakage from the charge-holding region and cut image noise.

Dummy pixels at the SPAD array edge suppress bias variation and large currents, preserving central pixel stability and sensing accuracy.

Separate process regions let SRAM and DRAM use different transistor sizes and trace pitches, improving memory package yield, bandwidth, and density.

Separating drain electrodes from source electrodes and data lines frees wiring space, enabling finer display resolution with lower parasitic capacitance.

A grooved reflective barrier between subpixels blocks water and defect spread while redirecting light to improve emission efficiency.

Outer-wall doping in a pixel isolation trench limits charge leakage, preserves uniform isolation, and improves small-pixel image signal quality.

Overlapping the gate electrode with the conductive channel blocks backlight, cutting TFT leakage current while preserving pixel opening rate.

Dielectric SiO2 or ITO bonding and reflection layers let vertically stacked full-color micro LEDs raise pixel brightness and resolution while reducing crosstalk.

A via spacer isolates the backside power rail from nearby gate tips while still enabling source/drain contact and lowering parasitic capacitance.

A periodic microlens layout with varied pitch disperses diffracted light, reducing petal flare and improving image sensor SNR.

Segmenting one word line pick-up into multiple sections cuts pick-up count, saves area, and simplifies 3D NAND fabrication.

A self-aligned pyramidal MTJ and top electrode avoid ion beam damage, reduce shorting risk, and improve MRAM cell alignment.

An oriented metal layer enables low-temperature GaN transistor and LED integration on amorphous glass while preserving crystallinity and electrical properties.

Rounded gate-to-gate connection structures reinforce fine MOSFET patterns, reducing collapse risk and improving semiconductor reliability.

Narrow-band filters placed beside RGB filters improve color detection and object recognition under changing ambient light.

Band-pass filtering built into a dual image sensor captures object property wavelengths while planarization supports compact, accurate spectroscopy.

Shared formation of source, drain, and gate layers cuts photomask steps in display panel light-sensing circuits, reducing cycle time and cost.

A stepped recessed light-entry surface and on-chip lens cut UV reflection losses and raise quantum efficiency in solid-state imagers.

Blue inorganic LED pixels use quantum dot and reflective layers to improve color conversion, contrast, and display efficiency.

Sparse inorganic microLEDs on a transparent or reflective substrate illuminate the eyes directly while preserving see-through viewing for more accurate eye tracking.

A split-channel double-gate TFT improves threshold stability, cuts leakage current, and supports better voltage retention in display backplanes.

A multilayer optical layer reflects scattered laser light away from the epitaxial structure, improving transfer precision and chip reliability.

A dummy oxide layer feeds oxygen into the stacked semiconductor to suppress vacancies, improving transistor reliability and low-gray driving.

Segmented insulating layers with different fixed charge densities improve charge transfer reliability while limiting noise in stacked imaging sensors.

Masked and unmasked LiDAR pixels separate intrinsic noise from reflected signals in real time, improving signal-to-noise ratio.

Direct SPAD-CMOS interconnects and full-depth isolation trenches cut timing jitter and crosstalk while avoiding TSV-driven complexity.

A 2T-1C eDRAM cell uses a sense transistor to read smaller ferroelectric capacitor charges, improving density with non-destructive readout.

An annular protrusion and controlled aperture geometry reduce OLED evaporation shadow effect and improve deposition uniformity.

A multilayer encapsulation structure balances viscosity, flexibility, and rigidity to stop glue overflow and improve pressure resistance.

Multi-direction conductive lines and staircase contacts raise 3D memory interconnect density while reducing routing area and fabrication burden.

Logic chips on the periphery and memory chips at the center improve heat dissipation, simplify IC wiring, and reduce pin waste.

Segmented connection electrodes and insulating valleys keep OLED pixel circuits connected under bending, reducing bright spots from micro-cracks.

A deflector and higher-index covering layer redistribute misaligned incoming light across isolated photodiodes to reduce channel imbalance.

A chiral SOT via bottom electrode aligns charge current and spin polarization to improve switching of perpendicularly magnetized MRAM layers.

A resin protective layer between the chip and output pad absorbs panel impact to protect COF wiring and insulation integrity.

Grouped capacitor arrays with shared upper electrodes preserve ferroelectric polarization during readout, reducing data loss and rewrite overhead.

Exposed wire-connection parts, resin partitioning, and light shielding simplify LED module assembly while improving connection reliability and wire concealment.

Different surface-layer materials and fixed-part thicknesses create coercive-force contrast to stabilize magnetization direction in magnetic arrays.

An insulated, segmented conductive isolation layout prevents voids and stabilizes negative bias to cut dark current and raise image sensor yield.

An integrated control chip and contact layout cut wiring and programming effort while enabling scalable control of internal and external LEDs.

Segmented substrate edge protrusions and conductive bridging improve side-printing precision, prevent shorts, and raise display panel yield.

Defective micro LEDs are replaced through temporary mounting and a conductive/non-conductive bonding layer that restores reliable panel connections.

A staircase gate stack helps 3D memory peripheral transistors keep above-5V operation while improving channel control and switching speed.

Selective high work function metal on the RRAM bottom contact cuts CMP waste and cost while preserving low forming and switching voltages.

A transistor-free trace subregion extends the pixel electrode area and narrows scan lines to raise LCD aperture ratio and light transmittance.

A high-index light-transmitting adhesive bonds the light guide through a pinhole structure to reduce peeling, improve yield, and preserve optical signal quality.

A 683 Gb non-binary memory die enables TLC and QLC operation, making binary-capacity packages more flexible while limiting die complexity.

Thermal expansion and airflow improve micro-LED pitch placement while reducing transfer damage in high-density display assembly.

Conductive blocks and top wires create planar micro-LED connections that avoid 30-50 micron slope breaks and keep light emission stable.

Tapered pixel grid sidewalls shrink top spacing between color filters to boost light collection while widening below to block optical crosstalk.

Asymmetric power rails across cell boundaries let mixed-height standard cell rows share power cleanly while reducing congestion and rule violations.

Cu or Cu2O nanoparticles in a polymer HIL broaden visible-light absorption and improve OLED efficiency without costly vacuum MoOx deposition.

Asymmetric nitrogen or oxygen profiles in FTJ electrodes tune band bending and interfacial layers to improve switching, retention, and endurance.

Indirectly heated pressure sintering forms strong metal joints without direct tool contact or specialized gases, widening sintering agent options.

Void-space molybdenum lines directly couple channel strings while preserving lateral block isolation and widening program-erase voltage range.

A trenchless SPAD layout moves absorption and multiplication outside deep trenches to cut oxide pilling, defects, crosstalk, and dark current.

Sequential ion beam etching and a protective overhang layer shrink MTJ spacing while preventing abnormal connections and preserving read-write accuracy.

A shallow overflow path between vertical gates stabilizes saturation signal during mechanical shutter closure and improves dynamic range.

An in-plane photosensor layout within the display panel preserves biometric sensing performance, cuts power use, and avoids added thickness.

An undercut passivation opening links the cathode to an auxiliary conductor in parallel, cutting panel voltage drop and edge-to-center brightness variation.

Metal reinforcing portions or conductive paste protect transparent micro LED traces from fracture at planarization holes while maintaining conductivity.

A non-uniform insulating film in a {100} sidewall groove suppresses pixel crosstalk while preserving dark current characteristics.

LTC and HTC electrode layers localize heat in an OTS selector, lowering threshold voltage while keeping leakage current low for memory arrays.

A metal junction shields in-pixel transistors from the photoelectric conversion layer, reflecting emitted near-infrared light to suppress false signals.

Combined via hole patterning in LTPO display panels removes at least two mask steps, lowering process complexity, cost, and yield loss.

High-k dielectric layers and spacers isolate adjacent FeRAM cells, reducing capacitive coupling and enabling higher memory density.

By pairing adjacent ToF and CMOS pixels in one array, this case shows how 3D images can capture both depth and color with lower integration complexity.

Blanket epitaxial photodiode layers replace deep implantation to improve doping uniformity, cut process complexity, and raise full well capacity.

2D photonic crystals in a dielectric layer define RGB resonant wavelengths with fewer process steps, improving planarity and pixel scaling.

Through-hole wiring between stacked SPAD, pixel, and signal-processing substrates improves signal transfer for photon detection and 3D imaging.

Laser bonding through a light-transmitting thin substrate improves flip-chip eutectic contact yield while allowing smaller electrodes and pads.

Subwavelength metasurface nanostructures combine polarization filtering and phase focusing to cut angle dependence and remove microlenses.

Barrier structures between LED electrode pads isolate ACF conductive balls, preventing shorts and improving display module durability.

By encoding values in a modulatable LED and detector, this photonic computing case cuts waveguide-heavy chip area and power use.

A Spin-Hall-effect layer and magnetic posts switch the MTJ faster while avoiding tunneling barrier breakdown and endurance loss.

Chain-like inorganic particles with an inorganic binder cut stress and density nonuniformity, enabling thick porous films without cracks.

Protective film captures glass cullet during flexible backplane cutting, preventing wiring damage and removing the polishing step.

Discrete charge storage elements and dielectric portions isolate vertically adjacent 3D memory cells to reduce leakage current and preserve density.

Separating a light-splitting structure from the grid in a color filter layer redirects long-wavelength light and improves image signal quality.

Three-track metal routing and shared-gate transistor connections cut layout area and metal complexity while preserving IC cell functionality.

Floating reflective metal layers between series LED cells improve light extraction, heat dissipation, and insulation reliability under high voltage.

Light-absorbing barrier layers shield oxide TFT active layers from hydrogen diffusion and light, preserving low leakage and electrical stability.

A stacked VCMA-STT MRAM uses STT stray field to make VCMA switching deterministic while lowering write power and latency.

A patterned peripheral support member matches pixel opening density to prevent mask-press damage, stains, and defective pixels.

Position-dependent contact resistance offsets MRAM wiring length variation to stabilize write current and reduce misreading errors.

A split TFT and micro-circuit pixel drives LEDs with less substrate area while improving packing density, power use, and display range.

Selective liquid-repellent treatment and an auxiliary solvent prevent organic overflow while preserving complete filling in display panel openings.

Rear-side infrared sensing is enabled by a photosensor area with aligned layer openings and light blocking that preserves display visibility.

A split-resolution pixel layout improves low-resolution display quality while preserving infrared transmittance for integrated sensors.

An offset sidewall micro LED structure confines carriers, cuts surface recombination, and uses isolation to limit optical and electrical crosstalk.

Integrated emission layers across grouped OLED pixels expand emission area and improve deposition efficiency for high-resolution luminance.

An overlapping electrode layout with an insulating layer creates a static discharge path that prevents dark spots in display emitters.

Embedding emitter and receiver circuits in one resin layer keeps optical regions coplanar, improving compact ToF sensor accuracy and assembly.

Multiple stacked substrates and through electrodes enable simultaneous photodiode signal processing without increasing chip area or lowering aperture ratio.