Nanoinformatics TRIZ Cases

A semiconductor stack uses high-k dielectric material between nanowires to enhance electrostatic coupling with the metal gate.

Etchants remove oxides before monolayers prevent re-oxidation, extending qubit coherence time.

A near-field imaging sensor classifies microbeads using absorption spectra, sizes, and shapes.

A photonic SRAM tensor core performs mathematical operations directly within optical memory cells using ring resonators and waveguides.

Vertical stacking merges n-MOS and p-MOS transfers, eliminating alignment precision losses from separate process steps.

An isolating feature separates source-drain structures from the substrate in gate-all-around transistors.

A nonvolatile memory device employs a sacrificial layer to secure nanomaterial assembly bonding.

An organic memory array using ferroelectric field-effect transistors avoids destructive readout while enabling low-cost fabrication via solution processing.

Joule heating forms trenches in polymer layers to create self-aligned nanowires, reducing programming current by 100x and improving endurance.

Engineered spider silk proteins incorporate specific amino acids to enable precise chemical coupling of therapeutic agents.

Hydrogen plasma reduces germanium concentration and surface roughness in exposed wire patterns, stabilizing threshold voltage.

A thin sensitizing layer absorbs near-infrared radiation in organic photovoltaic cells to generate photocurrent.

Cleaving bonded wafers creates a double-gated FDSOI transistor that prevents channel charge accumulation during programming.

A nanosheet transistor structure uses multiple regions with distinct channel widths to optimize gate dielectric deposition and device performance.

Near-field UV photolithography uses a rotatable cone mask to pattern disk substrates with high resolution.

Polymer relief masks guide conductive deposition on flexible substrates, bypassing expensive electron beam lithography for scalable terahertz applications.

Negative Poisson's ratio mold reduces trapezoidal correction errors.

A flexible film imprint lithography system transfers fine features onto large area substrates using controlled translation and UV curing.

A passive optical network employs quantum-dot and multi-quantum-well reflective semiconductor amplifiers to generate wavelength-seeded signals.

Imidazolidone compounds replace unstable diazonium salts to stabilize biosensor interfaces and improve detection reliability.

ALD using organoaluminum and vanadium halogen precursors controls resistivity and work function, resolving precision versus complexity trade-offs.

A 3D semiconductor device uses orthogonal fins and sidewall spacers as etch masks to define transistor structures.

Doped silicon nanowires reduce contact resistance and suppress variations for flexible substrates.

Segmented source regions in line-tunneling transistors reduce onset voltage spread and power consumption by optimizing tunneling currents.

Inner spacers wrap around receded nanowire strips in a gate-all-around device to mitigate short-channel effects and improve on-state current.

A relay optical system redirects detection light laterally to resolve spatial conflicts in through-the-mold alignment, enabling larger numerical aperture.

A soft stamp manufacturing method creates nanoscale patterns using a curable substance cured within a sub-100 nm electrode gap.

GaAs intralayers balance strain in type-II superlattices to enable thicker indium antimonide layers.

Alkyl additives modify organic semiconductor film morphology to enhance photoconductivity, resolving poor phase separation limits in solution processing.

A photoelectric conversion element uses a controlled p-n junction area to enhance charge separation within the active layer.

A gate-first processing scheme forms suspended nanowires in a nanomesh field effect transistor to enhance current density.

Patterned substrate chemistry guides evaporating droplets to orient nanowires at specific locations, eliminating random placement and material waste.

A curable fluorinated urethane resin composition enables repetitive photo imprinting transfers with minimal pattern deformation.

Fin recesses constrain epitaxial growth of germanium plugs, resolving dimensional control issues while maintaining carrier mobility.

A controller switches from position to load control during mold pressing in an imprint apparatus.

Varying-width isolation pillars separate stacked devices, resolving the contradiction between reduced size and deteriorated channel width control.

Graphene nanoribbon field-effect transistors form differential amplifiers on a single ribbon to handle analog signals.

Vertical stacking of carbon nanotube channels overcomes fabrication difficulties in aligning closely packed arrays to enhance current carrying capacity.

Angled deposition forms nanoscale channels without etching, resolving photoresist collapse and residue issues.

Selective etching of sacrificial layers using dummy gate masks enables multigate transistor scaling while suppressing short channel effects.

Non-planar transistor structures resolve the STT-RAM density bottleneck by enabling higher write currents without increasing cell footprint.

Granular magnetic shields absorb spin torque oscillator leakage, preventing adjacent track data erasure and maintaining low bit error rates.

Extended low-temperature annealing eliminates striae in TiO2-SiO2 glass without foaming or productivity loss.

A flexible film sheet distributes pressure evenly across a substrate during roll-to-roll imprint lithography.

A dot modulation pattern forms smooth three-dimensional structures in a photosensitive resin layer using enlarged writing energy areas.

Extending local interconnects in capacitor cells increases parasitic capacitance between diffusion layers and gate structures.

Curved inner spacer features separate channel connection portions from gate structures to minimize parasitic capacitance in multi-gate transistors.

A carbon nanotube-containing layer serves as a resistance varying element in nonvolatile memory devices.