Transistor TRIZ Cases

Removing sacrificial gates after tilt-angle implantation mitigates shadowing effects while maintaining high device integration density.

A sensing element triggers a bipolar junction transistor bypass to dissipate ESD currents, preventing latch-up and leakage during normal operation.

Anti-reflective coating remains on polysilicon gates to block high-energy self-aligned ion implants during fabrication.

Segmenting the light blocking layer into multiple openings reduces colored reflections and mirror surfaces while maintaining high light extraction efficiency.

Vertical wordlines above semiconductor pillars lower resistance while shield lines mitigate crosstalk between access transistors.

A dynamic determination voltage adapts to switching element temperatures for precise overcurrent detection.

Silicide formation on conductive layers resolves reliability and power consumption trade-offs in transistor manufacturing.

Segmenting the oxide semiconductor channel with a buffer layer boosts field-effect mobility while suppressing parasitic leakage current.

A capacitive isolation solid state relay uses charge pumps to generate boosted voltages for driving transistor gates.

Curved active region corners in triple gate transistors mitigate electric field concentration, reducing negative bias temperature instability degradation.

A multi-level anti-fuse design merges parallel and series connections to reduce circuit complexity.

Segmented self-align epitaxy prevents adjacent structure merging in dense zones, maintaining manufacturing precision.

A nitride semiconductor multi-layer substrate uses a laterally conductive electric-field control layer to manage internal field distribution.

Fluorine plasma treatment forms a protective layer on semiconductor substrates to control silicide metal positioning during MOS transistor fabrication.

Parasitic PNP transistors merge with power rails to handle high ESD currents, reducing chip area and parasitic capacitance in high-speed interface ICs.

A metal isolation test circuit mimics SRAM cell layout spacing to measure leakage current without storing data.

Grading germanium content across silicon germanium layers compensates for loading effect etch rate variations, ensuring uniform gate lengths.

A semiconductor substrate design leaves open corner areas to deflect cracks away from the main electric circuit.

A floating body transistor stores and releases charges to produce spike-type voltage signals, eliminating external capacitors and comparator circuits.

A charge controlled electronic fuse uses a semiconductor fin with trench isolation and a doped charge trap section to block carrier current flow.

A dome-shaped metal layer profile compensates for chemical mechanical polishing removal to reduce interconnect line thickness variation.

Asymmetric insulator heights and segmented channel doping reduce electrical resistance and capacitance in semiconductor arrangements.

A deep trench isolation structure shields electrons in a CMOS pixel sensor to prevent carrier drift toward the diffusion region.

Offset gate fingers fold transistor layouts to reduce area by over 15% while maintaining low on-resistance and capacitance.

Vertical columns in a layered stack boost storage capacity while keeping the device footprint small.

Segmented doping creates symmetrical breakdown characteristics, enabling negative gate voltage swings in RF power applications.

A continuous active region spans n-type and p-type wells with gates over the boundary to enable shared channel features.

An ESD transistor with a self-aligned outrigger moves avalanche breakdown laterally to prevent hot carrier injection damage to the gate oxide.

A semiconductor device uses an insulating film between a wiring line and a semiconductor film to enhance contact stability.

Oxygen-excess silicon oxide insulating layer reduces threshold voltage instability in oxide semiconductor transistors.

Oxidized silicon germanium alloy portions provide tensile stress to suspended nanowire channels in field effect transistors.

Integrating a ring oscillator temperature sensor into the display panel resolves low measurement precision by detecting frequency changes in oscillating waves.

A semiconductor device uses a deep layer in the outer peripheral part to lower carrier density and restrict breakdown.

Epitaxially grown straining materials apply physical biaxial strain to polysilicon gate stacks.

A semiconductor device incorporates a dummy active region to manage physical stress across the substrate.

Gate electrode serves as light shield and ion implantation mask, reducing mask plate count and lowering LTPS manufacturing costs.

A serial capacitor device uses stacked electrodes and dielectric layers to enable efficient manufacturing integration.

A thin film transistor channel layer combines a conductor segment with a semiconductor segment to boost electron mobility.

An isolation device separates main and peripheral ground lines in a silicon-controlled rectifier to maintain stable voltage levels.

Fluorine plasma treatment modifies TFT substrate surfaces to form doped regions that stabilize interfaces between metal electrodes and insulating layers.

Segmented metal gate stacks resolve fabrication complexity by improving deposition quality and electrical isolation to prevent leakage.

A drain extended transistor uses a well tap region to manage voltage differences across semiconductor interfaces.

Asymmetric source drain diffusion regions reduce gate induced drain leakage to mitigate dynamic write inhibit disturb and improve data retention.

Segmented partial recess operations and guide spacers resolve lithographic precision constraints at the 10nm node.

Segmented dual pass gate transistors with shared source-drain regions adjust Beta and Gamma ratios to enhance stability against manufacturing variations.

A buried gate semiconductor structure uses silicon germanium stressors to create strained silicon layers that enhance carrier mobility.

Segmented dry and wet etching removes stress layers without damaging spacers, preventing circuit leakages.

Trenches in solder resist confine underfill material, preventing spread onto un-bonded connectors and resolving electrical connectivity issues.

A cubic perovskite dielectric material achieves high capacitance through specific compositional tuning.

A touch device includes a shielding pattern disposed between substrates to protect the gate driving circuit from electrostatic discharge damage.

A gate resistance adjustment device calculates optimal resistance values using extracted voltage and current waveforms.

A field effect transistor uses a two-dimensional topological insulator channel layer to boost on-state current.

Carbon and fluorine implantation reduces sheet resistance in NMOS transistors to improve device scaling.

Alignment electrodes ensure symmetrical lightly doped drain regions in thin-film transistors, eliminating alignment errors that degrade reliability.

Asymmetrical landing pad insulation prevents neck phenomenon and resistance variations in down-scaled semiconductor devices.

A same-layer thin film transistor forms source, drain, and active layers from a single metal film.

Concurrent formation of cell and peripheral circuit trenches reduces manufacturing complexity while maintaining device characteristics.

A self-aligned oxide semiconductor thin film transistor uses the gate electrode as an exposure mask to form insulation layers.

Segmented gate polysilicon layers distribute voltage across differing surface areas, suppressing oxide film breakdown and reducing etching defects.

Segmented clamp transistors handle ESD current independently, reducing switching transistor area and eliminating process-dependent layout complexity.

A photoelectric conversion apparatus overlays substrates to optimize conductive pad areas for efficient signal transmission.

Argon annealing flattens SOI surfaces while sacrificial oxidation reduces thickness to prevent large void formation.

Replacing transistors with a diode selection device in e-fuse cells reduces programming current and enables miniaturization.

Planarized single-crystal silicon particles overcome amorphous silicon mobility limits to produce high-performance OLED displays.

A transistor uses an indium gallium zinc oxide composite layer to achieve high field-effect mobility.

Beryllium oxide buffers absorb compressive stress from silicon, reducing lattice mismatch and enabling high-quality diamond semiconductor layers.

A transparent substrate integrates an oxide semiconductor thin film transistor with a dedicated ultraviolet light absorbing layer on the pixel electrode.

A transparent display substrate integrates a light blocking member to protect thin-film transistors from external radiation.

Back-side power rails extend through fins to supply voltage, reducing parasitic capacitance and freeing front-side space for signal routing.

A lateral power transistor integrates a vertical channel region and an insulated conductive layer beneath the gate electrode to control current flow.

An oxide semiconductor thin film transistor integrates an etch stop layer formed by oxidation treatment to protect the active channel.

An oxygen supply layer restores defects in the oxide semiconductor layer, eliminating unwanted OFF currents and stabilizing TFT characteristics.

Conformally depositing active semiconductor layers on etched fins to define transistor structures.

Sacrificial spacer templates create internal dielectric layers that reduce parasitic capacitance and short-channel effects in nanowire transistors.

A semiconductor device stacks second bit lines above first bit lines to increase spacing between conductive paths.

Segmenting the body diode into main and sense components distributes reverse overcurrent, protecting semiconductor elements from deterioration.

A strain relief buffer layer transitions lattice constants between semiconductor materials to reduce defects and improve charge carrier mobility.

Thinner CESL sidewalls reduce gap aspect ratios to prevent void formation in high-aspect-ratio gate stack structures.

Vertically stacked gate lines increase integration density without requiring fine lateral patterning.

Protection circuit counters parasitic bipolar transistor activation by monitoring pn-junction voltage differences and preemptively charging the gate electrode.

Cryogenic implantation below −30°C preserves epitaxial SiGe lattice integrity during semiconductor processing.

A thin film transistor introduces a spaced conductive region within the active layer to boost on-state current.

Segmenting channel structures via local quality reduces flicker noise in analog circuits while maintaining digital switching speed.

Segmented conductive polysilicon patterns isolate gate terminals to reduce capacitance while maintaining breakdown resistance and lowering manufacturing costs.

A silicon film with a carbon-containing upper portion enables precise boron diffusion into p-type floating gates.

Selective etching creates L-shaped spacers that widen gate cavities, resolving high aspect ratio filling difficulties.

An air-gap spacer reduces parasitic capacitance and leakage current by introducing a void structure between closely spaced conductive elements.

A power supply clamp circuit references ground potential to manage voltage surges from inductive loads.

Segmenting the detection circuit into two sub-circuits resolves low-voltage precision issues and protects power NMOSFETs from damage.

Matching reflectance in an interference layer reduces light irradiation on the insulating cover, preventing surface roughness and improving TFT reliability.

Asymmetrical transistors with a shared floating gate prevent over-erase and sneak currents in cross-point arrays.

Integrating a vertical capacitor on the same die as MOSFETs reduces package inductance and voltage spikes while improving switching speed.

Unidirectional wiring with cross gate contacts reduces electro-migration while maintaining high integration density in integrated circuit devices.

A titanium silicide liner extends from a contact plug to an interlayer dielectric, forming a cup-shaped structure around conductive material.

Backside power rails and air gaps lower voltage drop and power consumption while increasing gate density.

Dummy gate support enables fin width trimming without deformation, suppressing leakage current and short channel effects.

Electrically connecting gate scanning lines to light-shielding layers reduces impedance and driving power consumption while maintaining aperture ratio.

Back-side stress tuning counters thermal expansion mismatch to maintain substrate flatness and prevent bowing during high-temperature GaN growth.