Transistor TRIZ Cases

A lateral DMOS transistor uses segmented ion implantation to create isolated source links and optimized drift regions.

Aligning gates with shared contacts reduces bit line capacitance and read delay in sub-22nm SRAM cells facing alignment mismatch.

Multiple barrier layers protect metal gates during etching, preventing short-circuits caused by photolithography misalignment in gate-last processes.

Annealing a p-type metal oxide semiconductor in a hydrogen atmosphere reduces vacancy defects, improving mobility and subthreshold swing.

Ion implantation through a metal-containing insulating film creates low-resistance regions in an oxide semiconductor channel.

Winding active fins disperse polishing stress to prevent dishing and enhance crack prevention in the sealing region.

Inkjet printing soluble organic semiconductors forms stable thin film layers, addressing process sensitivity and device characteristic deterioration.

Inert gas doping creates pores in the buffer layer, slowing heat dissipation to achieve larger polysilicon grain sizes.

A circuit arrangement uses a regulating circuit and deactivation logic to maintain operating point proportionality between transistors.

Assisted direct injection compensates for parasitic capacitance depletion to eliminate lag and maintain signal linearity in hybrid image sensors.

Moving the control chip to the rear of the base substrate eliminates peripheral frame structures while maintaining pixel brightness and resolution.

Ion implantation modifies crystal structures to form buried dielectric layers, suppressing radiofrequency harmonics and enhancing linearity without SOI costs.

Dual drain regions and a bypass line initialize driving transistors, stabilizing characteristics across voltage frames to ensure uniform luminance.

Repositioning the transparent conductive layer beneath the passivation layer prevents assembly scratches that damage electrostatic discharge rings.

A thin-base compound semiconductor lateral bipolar transistor with symmetrical junctions utilizes selective epitaxial growth to form a T-shaped structure.

Spacer-defined epitaxial growth creates uniform source/drain sidewalls, reducing contact resistance and improving drive current.

Tapered fins and doped trenches suppress short-channel effects while maintaining driving current.

Segmented drive unit controls motor braking by activating specific switching elements to manage thermal loads.

Selective hard masks isolate non-volatile memory charge storage layers during fabrication, preventing contamination of adjacent logic transistor regions.

A multi-time programmable memory cell uses shared junction gates to simplify voltage requirements.

Inner spacers constrain the gate length in a flipped vertical field effect transistor, resolving lithography limitations while minimizing parasitic capacitance.

Segmented gates with dielectric layers control threshold voltage to enable enhancement-mode operation and reduce leakage currents in gallium nitride devices.

Spaced extension sections in the substrate lower OFF-state capacitance and improve the figure of merit without strain engineering.

A microcrystalline semiconductor layer with high oxygen concentration at the nitride film interface stabilizes thin film transistors.

Vertical stacking of memory cells minimizes electric field distortion and controls threshold voltage, reducing manufacturing costs for high-density storage.

A doped poly-semiconductor gate structure enables precise threshold voltage adjustment in FinFET devices through synchronous annealing.

Vertical trench embedding shields memory cell gates from manufacturing damage, preserving electrical performance across logic regions.

Metal oxide semiconductor layers reduce resistance and increase aperture ratio while lowering power consumption in liquid crystal displays.

A memory device modifies timing parameters based on access addresses to optimize data bus utilization.

A ray detection substrate uses a parallel photodiode configuration to boost photoelectric conversion efficiency.

Sacrificial sidewall spacer prevents conductive material filling during contact formation, reducing capacitive coupling and improving switching speeds.

Vertically stacked semiconductor patterns with distinct conductivities enhance carrier mobility while increasing integration complexity.

A dynamic random access memory device uses a multi-composition tungsten silicon nitride barrier layer in bit lines to reduce electrical resistance.

A fin structure with discrete upper and lower portions maintains uniform composition distribution through high-pressure oxidation.

A semiconductor device embeds a capacitor within an interlayer film alongside a transistor to achieve high integration density.

Cluster oxygen doping trims critical dimensions in vertical semiconductor structures, eliminating thermal damage to SiGe devices.

A sub-fin metal routing layer connects to transistor gates and source-drain regions.

A shield line placed between internal layers and input output lines blocks electromagnetic noise from voltage variations.

Dual gate layers in a recessed access device prevent gate-induced drain leakage and enhance data retention.

A semi super junction MOSFET uses a tapered p-type pillar layer to lower on resistance while sustaining high breakdown voltage.

Segmented impurity gradients in the photodiode resolve the trade-off between charge transfer and internal quantum efficiency.

A semiconductor well layer electrically isolates high and low voltage domains within a single confined region for efficient device integration.

A capacitor testing structure uses a decoupler to isolate the device during stress.

U-shaped gate isolation plugs separate metal gate stacks, eliminating poly depletion effects in MOS devices.

A vertical memory cell structure uses a single access line and bit line pair to manage both transistors.

A semiconductor device uses an elongate conductive insertion pattern in the peripheral region to enhance transistor performance.

Vertical side supporters reinforce storage electrodes to prevent short circuits and enable higher integration density.

Dark pixels in image sensors detect ambient light levels, eliminating separate sensor volume and power consumption.

An output driver circuit limits source-drain current using a constant-current mirror and selector circuit to provide overcurrent protection.

A semiconductor device forms metal silicide layers using distinct metal materials and blocking ions to control diffusion during annealing.