Nanoinformatics TRIZ Cases

Reducing silicon-29 below natural abundance in a semiconductor layer cuts qubit decoherence and improves spin state stability.

Wet and dry annealing of ALD dielectric films lowers k value while preserving etch resistance for GAA inner spacers.

Metal-intercalated high-k gate capping reduces unstable germanium oxide at the interface, improving dielectric quality in FinFET and GAA MOSFETs.

Vertically stacked channel patterns and a gate-all-around layout improve electrostatic control and reliability in scaled MOSFETs.

Alternating SiCN and oxide protective films shield fine-pitch metal wiring during etching, improving interconnect reliability and contact integrity.

An SEB charge detector beside a quantum dot enables sensitive qubit readout with less area and circuit complexity than RF-SETs.

Region-specific dipole doping in high-k gate dielectrics enables local threshold voltage control without adding gate structure complexity.

An etch stop layer protects nanowire transistor source and drain electrodes during gate-last fabrication without increasing channel length or reducing density.

Carbon gate electrodes using graphene or nanotubes improve transistor switching speed while handling heat and mechanical stress.

By nesting vertical interconnects inside isolation structures, this case boosts FET density, preserves isolation, and cuts process steps.

A pinched-off air gap in a self-aligned backside dielectric pillar cuts parasitic gate capacitance while limiting charge dissipation.

Removing CESL from GAA transistor sidewalls increases contact spacing, reduces void-causing sidewall merging, and improves yield.

Varying dielectric fin heights isolate adjacent fins, cut coupling capacitance, and enlarge source/drain contact regions for scaled transistors.

Controlled anneal and lower-temperature pre-bake preserve mesa dopant profiles before epitaxy, cutting leakage in dense multi-gate MOSFETs.

Vertical inner spacer sidewalls enable complete channel-layer removal, preventing electrical coupling between adjacent nanostructure transistors.

Wrap-around back-side contacts link the top and side of epitaxial source/drain regions to cut resistance and free transistor cell area.

Bottom-up metal growth with silicide and seed layers fills deep backside contact holes without voids or seams, reducing resistance.

Multilayer dielectric masks improve GAA source/drain patterning precision while protecting low-k spacers and widening the process window.

Insulator layers placed beneath FinFET source/drain epitaxy suppress electron tunneling and substrate leakage at scaled nodes, cutting power loss.

Separate PMOS and NMOS tuning uses asymmetric inner spacers to balance current flow and capacitance in nanosheet CMOS.

An ammonia-fluorine blocking layer protects oxygen-containing inner spacers during overetch, then thermally removes cleanly to preserve yield.

Separate tensile and compressive stressor layers let GAA NMOS and PMOS channels be tuned independently to improve mobility and gate control.

Two-step dielectric deposition and low-thermal-budget anneal enable multi-Vt GAA gate stacks while limiting interfacial layer regrowth.

A two-step etch-back and bottom-up trench fill forms low-resistance backside source/drain contacts for GAA transistors with stronger gate control.

Laterally aligned nanosheets beside dielectric sidewalls cut transistor spacing in forksheet BJT or BJT-FET structures while lowering power use.

Aspect-ratio-controlled spacer growth forms airgaps only near active gate regions, cutting capacitive coupling without a complex full-length process.

An N2/H2 plasma cleaning step removes oxides from silicide and barrier layers, lowering source/drain contact resistance in scaled semiconductor devices.

A deeply recessed top metal gate with low-K fill cuts parasitic capacitance and contact resistance in stacked-channel gate-all-around FETs.

A silicon superlattice with embedded non-semiconductor monolayers boosts carrier mobility while blocking dopant diffusion between enriched 28Si layers.

Pre-amorphous implantation and annealing create dislocations in source/drain regions to control nano-sheet stress and boost carrier mobility.

An adhesion layer enables continuous GAA source/drain epitaxy across Si and SiN surfaces, reducing sub-threshold leakage and improving SRAM yield.

Embedded air gaps in GAA inner spacers cut gate-to-source/drain parasitic capacitance while preserving effective channel length.

Selective etchant diffusion removes resist only above target base-layer materials, enabling photolithography-free nanostructure fabrication.

Localized tensile stress in the gate cut region boosts hole and electron mobility in finFET and nanosheet transistors.

Barrier layers above or below Al work-function layers block diffusion in 3D FET gate stacks, stabilizing threshold voltage and FET behavior.

Atomic concentration control shapes replacement gate channels, while dual inner spacers improve etch resistance and lower capacitance.

A doped buried epitaxial layer under a GAA gate forms a depletion region that blocks parasitic channels and suppresses junction leakage.

Partial removal of high-k and isolation layers forms slanted STI sidewalls that cut leakage current and improve semiconductor reliability.

Ion implantation and encapsulation define suspended semiconductor nanorods that protect interfaces and support quantum coherence in Majorana devices.

A naturally oxidized 1-2 nm interlayer cuts 2D tunneling device build time to about 15 minutes while reducing interface traps and defects.

Concave sacrificial nanosheet geometry helps form inner spacers and gate structures with fewer voids, improving nanostructure transistor yield.

A self-assembling monolayer defines and releases nanoscale electrode gaps, enabling high-yield, low-complexity RF device fabrication.

Alternating high- and lower-doped epitaxial layers cut source/drain contact resistance while limiting impurity diffusion in stacked-channel transistors.

Added semiconductor growth enlarges GAA nanostructures into hammer-shaped contacts, improving epitaxial source/drain quality and lowering resistance.

Additional spacer features shield source/drain seams during channel release while dielectric filling preserves electrical isolation.

A gate-all-around multi-metal gate with a mid-gap metal cap improves channel control, lowers OFF-state current, and mitigates short-channel effects.

Vertically embedded semiconductor needles reinforce lattice-mismatched III-V thin films on silicon, limiting cracks and dislocations on larger wafers.

A mask-free stacked nanosheet CMOS process separates nFET and pFET work function metals to raise density, improve isolation, and shrink footprint.

Fluorine diffused from a treated work function metal into the high-k gate dielectric improves flatband alignment and threshold voltage control.

A hard mask shields STI features during sacrificial material etching, preventing poly line collapse and preserving electrical yield.

Lower-layer dipoles tune NMOS and PMOS threshold voltage in scaled CMOS, while a dipole-free upper high-k layer preserves reliability.

A low-k bottom film beneath epitaxial source/drain regions plus a denser upper layer cuts leakage and capacitance in nano-FET recesses.

A germanium-free seed layer slows bottom-up epitaxy, preserves doped source/drain volume, and cuts resistance in scaled transistors.

A silicon-containing passivation layer enables CFET threshold tuning in a common metal gate flow without upper gate etch-back or thick n-type work function layers.

Segmented dipole-doped gate dielectrics improve boundary control, limit dipole overlap, and support denser nano-FET integration.

Curved epitaxial source/drain growth increases contact area and improves channel strain distribution in scaled multigate devices.

Insulating layers and wrapped gate geometry control channel width in stacked nanostructures while easing 3D alignment and cutting leakage.

Narrow conductive cap layers on contact vias reduce alignment defects and short-circuit risk in fine-pitch semiconductor interconnects.

Deeper outer and shallower inner isolation trenches improve leakage blocking in GAA transistors while keeping etch depth targeted to critical regions.

Engineered gate extensions and tuned source/drain profiles improve GAA channel control while cutting parasitic capacitance and process complexity.

Shrinking transistor geometries bring source/drain and gate contacts closer; low-k backside spacing helps reduce parasitic capacitance and preserve switching speed.

A layered GAA gate stack uses longer inner electrodes and shorter top gates to improve control, reduce leakage, and simplify integration.

Three stacked wiring layers connect transistor source contacts across standard cells, improving integration and electrical connection reliability.

Vertically stacked channels increase effective channel width while preserving device area and improving MOSFET gate control.

Etching below the bottommost channel layer forms a deep S/D trench, enabling a metallic contact to connect the GAA source/drain feature.

Back-side bit-line routing beneath SRAM cells reduces front-side interconnect complexity while supporting GAA transistor scaling.

Backside power rails and conductive connection patterns address resistance and reliability challenges in densely integrated semiconductor devices.

Pattern geometry shadowing makes sub-nanometer germanium cladding difficult to keep uniform; controlled epitaxy and annealing preserve gate space.

A deposited dopant layer lowers contact resistance in monolayer transistors while avoiding direct ion-implantation damage.

Implantation and oxidation create dielectric regions near source/drain features, blocking substrate leakage in scaled nanosheet transistors.

Opposing-face gates locally tune quantum dots and coupling regions, supporting simpler error correction without qubit displacement.

Asymmetric source/drain widths tailor stress and current flow in nanosheet FETs, preserving electrical properties as IC regions shrink.

Removing sacrificial semiconductor cladding before spacer formation avoids deep trenches, improves inner-spacer uniformity, and simplifies gate fabrication.

A trench between adjacent source/drain structures places the bottom contact below the gate, increasing contact area and reducing resistance.

A tapered helmet protects source/drain patterning in multi-gate transistors, preventing shorts while reducing parasitic capacitance between adjacent gates.

Nanostructure-FET scaling can damage gate dielectrics; a protective layer and oxygen-containing etchant help preserve gate integrity.

Direct backside source/drain contacts extend beyond epitaxial regions without overlapping gates, reducing parasitic capacitance in scaled nanowire ICs.

Using (100) and (110) substrate regions for N-type and P-type MBC transistors, this case addresses scaling complexity while improving gate control.

Low-germanium, boron-doped silicon-rich layers limit SiGe–titanium interdiffusion during annealing, reducing voids and PMOS contact resistance.

Back-side routing and through-holes shorten power paths, improving supply potential integrity while supporting compact ESD protection.

Controlled ALD pulse and purge ratios reduce seam-holes and BARC residues in hard masks for gate-metal deposition.

Below-10-nanometer nanowire scaling strains short-channel control; a plug-last backside gate tie-down improves metal fill and reduces variation.

Patterned masking selectively recesses dielectric fins to prevent source/drain bridging while tuning parasitic resistance and capacitance.

With lengths below 50 nm, carbon nanotubes form exciton-plasmon polaritons that concentrate optical fields and enable single-photon emission.