Transistor TRIZ Cases

Conductive layers shield oxide semiconductor side surfaces from light degradation, enabling high yield in miniaturized transistor production.

Ion implantation strengthens silicon nitride passivation layers, reducing pillar bending and short circuit risks in memory devices.

Segmenting the resistance variable layer into high and low resistance zones stabilizes retention characteristics while enabling miniaturization.

Grooved side electrodes increase contact area to lower resistance and stabilize electrical characteristics in miniaturized oxide semiconductor transistors.

Segmenting the barrier metal into titanium and titanium nitride portions prevents oxide formation that compromises electrode adhesion.

Segmented transistors distribute electrostatic stress across multiple wirings, preventing irreparable damage to connected components.

A vertical channel flash memory device uses a surrounding bit line to directly contact the pillar-shaped channel region.

A single-poly EEPROM memory device uses two isolated tunneling regions to adjust threshold voltage via applied potentials.

A monolithic device integrates MESHFET and HEMT transistors using distinct trench gate structures to combine high linearity with low noise performance.

Conformal masking enables separate N and P fin etching to prevent material degradation and ensure matching dimensions.

An integrated circuit clamp circuit sets substrate voltage to a second level during negative external events.

Local contact structure sizing reduces ohmic resistance while balancing parasitic fringing capacitance in advanced semiconductor devices.

Ferroelectric dual-gate graphene transistors merge signal comparison and storage to reduce chip area and power consumption in classifier circuits.

A fingerprint identification device uses intersecting gate lines and photosensitive elements to generate currents from reflected light.

Distinct epitaxial growth surfaces on reinforcing source/drain layers enhance leakage characteristics and reliability.

Segmented switch transistors and divided control lines suppress rush currents by gradually turning on devices, stabilizing power supply voltage transitions.

Relocating power rails to the back-side of the substrate resolves electromigration trade-offs while minimizing layout area.

An aluminum oxide buffer layer shields the IGZO active layer from photoresist exposure, reducing contact surface defects and improving device stability.

A c-axis-aligned crystalline oxide semiconductor transistor uses amorphous source and drain regions to lower contact resistance.

Segmented ion irradiation reduces reverse recovery time while maintaining breakdown voltage.

Segmenting the drain into a lightly doped extension and heavily doped sinker reduces on-resistance while maintaining gate-to-drain capacitance.

Crank-shaped active regions suppress short channel effects and junction leakage in DRAM cells.

A semiconductor device aligns floating gates with substrate protrusions to maintain uniform thickness across the memory array.

Pin-specific triggers control an active clamp to reduce silicon area by minimizing voltage margins.

Epitaxial cladding layers grow around nanowires to reduce defect density from lattice mismatch during heterogeneous silicon integration.

Polycrystalline semiconductor fins host passive devices, reducing electrical losses caused by low-resistivity bulk silicon substrates.

A thin film transistor array substrate uses a patterned protective layer and resin coating to isolate the oxide semiconductor.

Replacing the MOSFET with a TFET in SRAM read circuits reduces energy consumption and enhances sensitivity by exploiting lower sub-threshold swing.

Low hydrogen permeability wiring and barrier insulators prevent copper diffusion in oxide semiconductor transistors, ensuring stable electrical characteristics.

A top gate polysilicon thin film transistor uses a transparent gate region to expose the active layer for direct light intensity measurement.

A liquid crystal display roof layer features a dent forming a partition wall to enable flexible deformation.

A high energy implant region replaces buried subcollectors to integrate high speed bipolar transistors on a single substrate.

Voltage detection circuit triggers clamp transistor to discharge abnormal energy from power supply lines.

Deep body regions and field plates modify electric field distribution in vertical MOSFETs, reducing carrier injection at trench corners.

Dense inorganic barrier films on the rear surface prevent moisture absorption and warping while enabling high-yield manufacturing.

Nitride barrier films on metal interconnections prevent hydrogen diffusion into polysilicon patterns, stabilizing resistance values and threshold voltages.

Vertical fin transistor structure reduces memory cell area to 4F2 while minimizing parasitic capacitance through nested capacitor placement.

A hybrid antifuse OTP memory cell uses thin gate dielectrics and high-voltage junctions to enable low-voltage programming.

Parallel resistive elements in an LDMOS transistor reduce variability and improve measurement accuracy for large resistance ratios.

Supporters connect storage electrode portions to prevent bending or collapse, securing sufficient capacitance within shrinking unit cell areas.

A thin film transistor array panel uses petal-like contact hole boundaries to connect line segments through exposed connection members.

A low reflecting layer reduces visible radiation reflectance between source drain electrodes and the oxide semiconductor layer.

A diffusion barrier region containing carbon or nitrogen atoms blocks dopant migration in semiconductor structures.

A semiconductor component uses specific dopants to alter charge carrier availability within its short-circuit structure.

Angled stacked transistor bodies resolve spacing bottlenecks by enabling horizontal contact routing between vertically integrated layers.

A gate structure forms dipole interfaces via aluminum and lanthanum diffusion to modulate transistor threshold voltages.

Multi-sloped source/drain undersurfaces reduce cross-sectional area, lowering gate-to-drain capacitance and RC delay.

High-density aluminum oxide films block impurity migration from glass substrates, preventing stress-induced cracking in oxide semiconductor devices.

Segmented metal electrodes in a MOM capacitor circuit enable precise capacitance adjustment by toggling switch elements to alter connection states.

Distinct sequential masks prevent erosion during fin etching, enabling narrow widths and suppressing short channel effects.