Transistor TRIZ Cases

A thin film transistor merges the first electrode with a light shielding layer to block backlight illumination from reaching the active semiconductor region.

Composite semiconductor layers combine high electron mobility with uniform threshold voltage, eliminating compensation circuits in OLED displays.

A control wafer measures charge accumulation via electrical parameter shifts in dedicated transistors.

A segmented electrostatic discharge protection device uses specialized doped regions to create distinct current paths.

A pipe connection gate electrode buried in a substrate groove increases volume to lower electric resistance.

A common-drain-source structure merges an NMOS transistor with a high-voltage power device to minimize footprint.

Segmented gate structures enable precise resistive pattern formation, resolving the trade-off between manufacturing precision and process complexity.

Asymmetric fin structures enable swift current flow to diodes during electrostatic discharge events.

Perforations at source and drain edges create shear strain that relaxes biaxial stress, boosting carrier mobility while reducing bias voltage requirements.

A multi-mask approach forms intra-metal capacitors with adjustable electrode spacing within a dielectric layer.

Parallel nano-wire channels in a nano resonator enhance measurement precision by reducing mechanical damping through selective insulating layer extraction.

A semiconductor switch drive circuit prevents turn-off during high load currents to protect against heat damage.

Segmented gate fingers with perforations lower switching loss and capacitance while maintaining high operating voltage.

Oxidizing titanium nitride layers to form titanium oxynitride adjusts transistor threshold voltage in semiconductor devices.

Wider selection transistors increase programming current to resolve decoder area constraints and improve integration density.

A bifurcated base and collector structure with segmented doping profiles enhances current gain and Early Voltage in integrated circuits.

Spatially distributing nanocrystals in the floating gate to optimize local electric fields and reduce programming current.

A cross-domain ESD protection circuit uses a node voltage control circuit to manage first node voltage levels for accurate switch operation.

An embedded oxide barrier reduces current leakage between heavily doped source and drain regions while maintaining device drive current.

Stressor layers apply compressive stress to stabilize the tetragonal phase of hafnium oxide films.

A two-metal-layer array substrate merges data lines with touch signal lines to simplify manufacturing.

A thick insulating film forms over active regions to support resistance elements without dummy structures.

An oxygen ion implanted oxide barrier between the floating gate and select gate prevents poly silicon depletion, stabilizing erase margins.

A resistor triggered bidirectional electrostatic discharge clamp uses serial transistor stages to provide robust protection.

Extending a bit line beyond the barrier metal layer reduces contact resistance despite alignment misalignment in storage devices.

Halogen doping passivates dangling bonds in the gate dielectric, reducing leakage and improving data retention.

A polysilicon and metal conductive structure with a silicon nitride capping layer prevents oxidation and nitrogen permeation, ensuring low resistance.

Selective anodizing creates distinct channel and source drain regions, eliminating ion implantation complexity.

Upper lateral extensions extend over shallow trench insulator regions to prevent divot formation and high field leakage in miniaturized contacts.

FCVD fills fin gaps for an isolation structure that prevents source-drain connection and reduces leakage currents.

A fan driving circuit uses a speed signal providing module with switches and diodes to block current flow during reversed connections.

Extending the active layer beneath curved gate portions resolves inefficient semiconductor area usage in interdigitated transistors.

A bit line equalizing circuit uses a stair-shaped gate pattern to share components across multiple transistors.

A liner insulating film bridges adjacent gate electrode sidewalls to eliminate voids that cause contact plug short-circuits.

A semiconductor device design with a floating potential region and isolation structures reduces chip size while maintaining independent high voltage behaviors.

Segmented capacitor arrays use MOSFET current limiters to isolate breakdown faults and extend TDDB lifetime.

Crossing auxiliary lines compensate for voltage drop in thin transparent cathodes, enhancing luminance uniformity without reducing the aperture ratio.

A dummy gate structure with greater height than semiconductor word lines protects memory region components during core transistor fabrication.

Conformal deposition and anisotropic etching create a gapless interface between non-overlapping stress liners, eliminating misalignment defects.

Segmented ESD clamping devices reduce standby leakage current by applying selective heavy doping to specific drain regions for early parasitic bipolar turn-on.

A fin-type semiconductor device uses segmented field insulating films to optimize gate overlap areas.

A peeling layer exposes flexible display electrodes during manufacturing, preventing electrode damage and improving yield.

A transparent photocatalytic film layer shields the metal oxide semiconductor from ultraviolet radiation damage.

An overlying gate structure expands the horizontal width above a polysilicon gate to increase physical interface area with the gate contact.

A source follower transistor structure forms a parasitic capacitor using stacked conductive layers to provide floating diffusion capacitance.

Integrated dual-tub isolation and built-in discharge paths reduce layout complexity while maintaining high voltage tolerance across multiple terminals.

A finFET gate electrode with intrinsic tensile stress induces axial forces in the semiconductor channel region to enhance charge carrier mobility.

Optimized impurity profiles enable high-voltage NMOS transistors to resist breakdown while minimizing thermal treatment time.