Electric Discharge Tubes TRIZ Cases

Sintered SiC bulk material coated with CVD SiC manages plasma erosion to extend showerhead lifespan while maintaining RF coupling efficiency.

A halogen treatment deposits a thicker passivation layer on photoresist tops than sidewalls to shrink critical dimensions.

A bottom isolation assembly creates a sealed processing volume within a plasma chamber to support substrate deposition.

Retractable locking nibs in asymmetric housings prevent unauthorized connections and accidental disconnection during gameplay.

Segmented electrode design reduces titanium substrate contamination by isolating beam-path surfaces from structural supports.

A plasma processing shower head adjusts coolant flow to maintain ceiling plate temperature using real-time RF power and pressure data.

A spring-like conductive member stabilizes contact between the edge ring and mounting stage to ensure electrical potential equality.

Tilted imaging creates virtual pattern sections without wafer cutting, resolving the trade-off between measurement precision and production throughput.

A vertical lamp power supply uses a sealing piece to abut against a switch free end for reliable waterproofing.

Segmented upper electrodes isolate high-wear areas to extend outer segment life and reduce replacement costs.

Diagonal shank portions shift natural resonance frequency away from process disk rotational speeds, eliminating sinusoidal variations in ion doping.

Dielectric inserts in conductive faceplates prevent plasma-induced degradation while ensuring uniform precursor flow for trench etching.

An asymmetric electrostatic filter uses a catch assembly to redirect sputtered material away from electrodes.

A pattern area value calculating method distributes sub-pattern areas to grid apexes to maintain center-of-gravity position for accurate back scattering energy calculation.

Rotating targets inside one chamber avoids venting delays and eliminates the need for multiple specialized deposition units.

Plasma etching silicon oxide films at temperatures below -30 °C using multi-frequency RF power to balance laminated and single-layer etch rates within ±20%.

A cyclic CVD method deposits silicon carbide films using weak radical polymerization to achieve high conformality on recessed substrates.

A detachable sample adjusting unit positions samples via a swinging mechanism without integrating fine adjustment into the holder body.

A showerhead heat transfer plate uses independent flow paths to control thermal uniformity across the substrate-facing surface.

A composite meter jaw assembly pairs a metal structural guide with an insulating overlay to prevent accidental electrical contact during installation.

Aerosol deposition forms polycrystalline yttrium oxyfluoride films with controlled rhombohedral crystal structures.

A hollow relay member connects a process chamber to an external pressure gauge via a dedicated gas path.

Automated particle beam focusing uses stage current measurement to determine optimal working distance settings.

Flexible bellows compensate for volume changes during gap adjustment, maintaining plasma uniformity.

Dynamic stage movement compensates for non-uniform irradiation caused by surface plasmon resonance in the photoelectric conversion layer.

Dual-frequency oscillations in a single resonant cavity create ultra-short pulses without compromising beam brightness or increasing astigmatism.

A silicon ring extends the deposition surface to shift plasma non-uniformity effects away from the semiconductor wafer edge.

A blanking aperture array uses a high-resistivity film to cover insulating layers and ground electrodes.

A magnetron sputtering source generates plasma ions of solid elements using pulsed DC power and synchronized high negative voltage pulses.

A glow discharge sputtering unit prepares large, flat samples for rapid scanning electron microscopy and GPU-based three-dimensional reconstruction.

A hybrid microprobe integrates electrochemical sensing with surface-enhanced Raman scattering capabilities.

A reflected wave power control method manages peak and average power levels in an RF generator.

Staged pressure decrease reduces neutral scattering to improve bottom coverage in small trenches and vias.

Automatic design models generate correction patterns that optimize energy latitude and reduce proximity effects during 35 nm pattern etching.

Hydrogen plasma reacts with fluorine residues on electrostatic chucks, while a subsequent ash step removes deposits to prevent substrate breakage.

A two-part electrode system with a movable inner unit creates a flat contact surface to hold substrates without mechanical pins.

A frequency-variable power supply generates high frequency current through multiple routes with distinct reflection minimum frequencies to control plasma distribution.

Plasma reactor system calculates wafer self-bias voltage from RF match network parameters to dynamically adjust electrostatic chuck clamping voltage.

A linear-translating fold mirror routes cathodoluminescence light to analysis instruments within an electron microscope.

A shower plate drooping member redirects gas flow to enhance electric field intensity, preventing hole clogging from high electron temperature.

Indium-zirconium-hafnium composite oxide sintered bodies yield transparent conductive films with low resistance and reduced infrared light absorption.

A plasma-based etching process removes native silicon oxide from polysilicon surfaces using hydrogen and nitrogen trifluoride species.

A charged particle beam apparatus estimates electrical characteristics using pre-stored device models and optical conditions.

Segmenting the plasma generation and transport zones resolves the trade-off between substrate protection and treatment uniformity.

Dielectric plates on the electrode surface control ion energies, resolving etching depth nonuniformity across central and peripheral substrate regions.

Computational alignment shifts patterned designs to measure overlay error, eliminating reliance on symmetry-based targets for complex in-die patterns.

Checkerboard pattern on the substrate varies zero-th order beam intensity to determine position, reducing sensitivity to focus and tilt errors.

A four-component gas mixture prevents opening dimension enlargement during deep hole formation in polysilicon mask layers.

A diagnostics system quantifies deterministic structures in time-series data to differentiate normal and abnormal plasma conditions.

Chlorine radical adsorption blocks flat surfaces to enable selective silicon nitride film deposition on minute recesses.