Electric Discharge Tubes TRIZ Cases

Voltage magnitude control prevents plasma drop-out caused by impedance changes during frequency-based current regulation.

Sputtering forms low-resistance wiring on substrate side portions, enabling bezel removal and uniform electric characteristics.

A charged particle beam writing method calculates corrected exposure doses to ensure precise pattern transfer on semiconductor workpieces.

Catcher plates restrict the coating outlet area in a dual-target sputtering source to block high-energy particles and prevent substrate damage.

A substrate processing apparatus uses divided electrodes with independent impedance adjusting units to control electrical potentials across the plasma chamber.

Subtractive etching and liner deposition form metal interconnects with larger grains, reducing electromigration at advanced nodes.

HF and LF RF power sequencing stabilizes plasma for silicon nitride deposition.

A particle charging control member uses ion sheath positive ions to charge contaminants for exhaust removal.

Carbon precursors volatilize aluminum fluoride byproducts to reduce process drift and increase chamber uptime.

A push handle switch lampholder uses a see-saw conductive plate to control current flow through simple linear motion.

A bent cathode holder secures a nanowire to emit electrons, resolving the trade-off between emission efficiency and device complexity.

A lithography base adjusts position via detectors to maintain patterning alignment.

A guard ring stabilizes the radial gap in plasma processing chambers to maintain consistent electrode spacing.

Nitrogen-free plasma modifies low-k dielectric films, eliminating sidewall damage and F memory effect from fluorocarbon etching.

A multistage quadrupole lens system adjusts beam focusing and defocusing to replace separate high-current and medium-current apparatuses.

Segmenting the vacuum treatment chamber into separate compartments allows independent pumping port sizing, reducing down times while maintaining reliable seals.

A cobalt coating layer stabilizes plasma processing characteristics on member surfaces exposed to the reaction environment.

Plasma activated chlorine blocks upper surface adsorption, enabling bottom-up nitride film filling in recessed patterns.

A plasma probe device uses a light transmission portion to transmit emission from a vacuum space to an atmospheric space.

Segmented blocking plates with recesses collect peeling particles to prevent contamination and extend service life.

A plasma treatment roller embeds electrodes within a dielectric contact jacket to generate cold plasma for band-shaped objects.

Dynamic beam paths track feature edges during adaptive scanning microscopy, accelerating imaging speed while minimizing radiation damage to sensitive specimens.

A wearable sensor holder guide directs module insertion to protect electrical contacts, extending service life despite frequent attachment cycles.

A semiconductor cleaning method uses plasma generated by processing gas injectors to etch deposits from the process chamber.

A plasma processing edge ring uses segmented Peltier elements for precise thermal management.

A dual edge ring configuration optimizes electric potential differences across substrate edges during plasma processing.

Monitoring chamber foreline pressure traces determines cleaning completion, eliminating expensive external metrology equipment and reducing downtime.

An optical interconnect system replaces electrical lines in a charged particle beam deflection device, eliminating electromagnetic interference and crosstalk.

L-shaped conductive protrusions isolate overlapping signal pairs, reducing crosstalk while maintaining structural stability.

Embedded nanoclusters in a charge drain coating remove electrostatic buildup on MEMS lenslets to enable high throughput e-beam lithography.

Segmented model isolates dose and bias parameters to resolve calibration complexity caused by correlated experimental data.

A stage groove beneath the conductive edge ring isolates film potentials, preventing plasma arcing during batch deposition.

Embedded ferromagnetic areas in a powder metallurgy coating source create high magnetic field density, controlling arc speed and reducing spatter contamination.

Radial flow paths in the exclusion ring exhaust trapped wafer edge gas, preventing pressure buildup and vibration during bowed wafer processing.

Inductively coupled plasma deposits aluminum oxide layers on solar cell substrates.

A sliding adapter uses a flexible extension to spatially offset connectors for seamless switching between different device standards.

Rotating lenses over stationary tubular targets resolves coating non-uniformity on curved surfaces while simplifying device structure.

A charged particle detector uses a scintillator with wavelength-differentiated phosphor regions to identify secondary electron positions via color separation.

Focused continuous wave laser ignition eliminates electrodes and curved surface distortion in sealed high intensity illumination devices.

Introducing oxygen gas to form plasma eliminates residual charges on the ceramic stage, preventing positional shifts during wafer transfer.

Segmented park electrodes prevent particle adhesion and discharge by spacing electrode bodies apart, ensuring accurate beam deflection.

Uniform cross-sectional dimensions in a bent ion implantation filament prevent excessive plasma concentration at bends, extending component life.

A DAC amplifier unit transmits digital data at writing rates to enable bit-level comparison and diagnosis of the digital section.

An inner chamber creates an outside space between the vacuum wall and plasma region to direct fine particle flow toward collection.

A two-cycle dry etch method uses sublimation residue to invert trench etching rates.

A wafer chucking system applies periodic voltage functions to control ion energy distribution at the substrate surface.

Structured Co-Cr-Pt sputtering target disperses Ti oxide in cobalt regions to prevent complex grain formation.

Carbon nanotubes replace electrostatic fields to grip insulating materials, eliminating mechanical deformation during sample transport.

Segmented ground plates intercept electromagnetic interference between adjacent contacts, reducing cross-talk while maintaining high data transfer rates.