Transistor TRIZ Cases

A multilayer electrode structure combines a thick copper layer with a thin titanium interface to lower electrical resistance in oxide semiconductor devices.

A display substrate design controls organic layer thickness to expose drain electrodes while protecting data metal patterns from damage.

Programmable disconnect means isolate faulty pixel blocks from row and column buses, preventing fault propagation that plagues existing imaging devices.

A voltage leveling circuit equalizes AC voltages across stacked multi-gate FETs using capacitors connected between the channel and gate structures.

Vertical fin segmentation improves carrier mobility while reducing leakage current in next-generation circuits.

A buffer layer shields the epitaxial region during fabrication steps.

A segmented sense detector counts ESD strikes via a counter to enable proactive diagnostics without increasing device area or complexity.

A low temperature polysilicon thin film transistor substrate uses a U-shaped gate to create symmetric current paths between source and drain terminals.

Voltage application activates oxide thin films at 100-300°C, preventing plastic substrate deformation.

Plasma sputtering removes surface oxides from source and drain electrodes, reducing contact resistance in thin film transistors.

Polysilicon fingers push nitride spacers away from the channel edge to reduce electrical field crowding and improve HCI reliability.

A MOS transistor design merges high voltage and digital components on a single substrate.

A metal oxide semiconductor structure uses a buffer layer to lower resistance during thermal processing.

Fluorine ion implantation and hydrogen annealing reduce hot carrier injection in NMOS transistors, extending integrated circuit lifespan.

A three-dimensional integrated circuit capacitor stacks multiple conductive plates separated by insulating regions to increase capacitance density.

A pixel circuit uses a second gate electrode to adjust driving transistor voltage and reduce drain current.

Plasma-assisted MOCVD forms oxide semiconductor films using organometallic precursors at low temperatures.

A buried resistive structure formed by amorphizing and annealing semiconductor material to reduce parasitic capacitance.

A readout circuit retrieves image signals from pixel elements during accumulation periods to maintain synchronization.

An insulating layer separates source and drain regions in a field effect switch, maintaining low leakage current during miniaturization.

A protecting element uses high concentration impurity regions separated by an insulating region to discharge electrostatic energy.

Thin-film transistor resistors adjust series resistance to suppress voltage droop at resonant frequencies.

Integrating a capacitor into the power semiconductor structure reduces circuit physical size and simplifies fabrication by eliminating discrete components.

Segmented current distributing lines balance heat generation across the electronic fuse body.

Continuous deposition with a halftone mask reduces array substrate manufacturing masks from seven to five.

Local high-voltage current monitoring detects over-current conditions without galvanic isolation delays, protecting silicon carbide transistors from damage.

A dual-gate MOSFET switch couples power rails to bypass electrostatic discharge current.

Insulated empty space zones in power MOSFETs reduce parasitic capacitance and switching losses by removing dielectric material from trench bottoms.

A vertically stacked FinFET fuse merges doped epitaxial semiconductor material across conductive fin portions to create a compact on-chip component.

A semiconductor transistor with a periodic trench channel structure reduces specific on-resistance while maintaining electrical characteristics.

Segmented wet and dry etching processes miniaturize oxide semiconductor devices while recovering indium from wasted material.

Dynamic fill cell insertion resolves active fin mismatches between adjacent logic regions, ensuring design rule compliance and improving manufacturing yield.

A gate structure uses discrete charge storing nano crystals to reduce leakage current in integrated circuit memory devices.

Coplanar metal gate and field plate structures prevent short circuits via silicide-blocking layers while enhancing breakdown voltage.

A breaker device interrupts transmission line current using semiconductor cells and a thyristor auxiliary branch.

A cascode rectifier structure integrates group III-V and silicon devices to reduce power losses.

Buried power rails distribute core voltage through backside metal layers, avoiding frontside area penalties in memory cell designs.

A semiconductor device positions a gate pad outside the extending region of a temperature-sensing wire to ensure uniform gate voltage distribution.

Selective etching of stacked conductors and insulators creates miniaturized transistors with favorable electrical characteristics.

Replacing silicon PN diodes with MOS transistors in a rectifier circuit lowers forward voltage to 25 mV, reducing power loss and cooling requirements.

A time-dependent current threshold prevents premature cut-off during startup, allowing properly sized switching devices to handle peak currents without damage.

A double sidewall image transfer process uses sequential mandrel and spacer deposition to form semiconductor fins with variable pitch.

An arcuate semiconductor surrounds the gate electrode to suppress leak currents and ensure operational stability in high-density memory cells.

SCR-based transceiver interface switches divert transient currents to safeguard core circuits from electrical overstress damage.

Removing a sacrificial strap before epitaxial growth limits overgrowth, preventing trench-to-trench shorts while maintaining structural integrity.

Different gate insulating layers optimize driving and switching transistors in display devices.

Vertical contact via structures extend through overlapped terrace regions in stacked memory tiers to provide electrical access.

Kernel member design reduces reset current by minimizing heat sink effect from metallic electrodes.

Triboelectric potential applied as gate bias controls graphene conductivity, enabling detection of non-conductive objects in humid environments.