Electric Discharge Tubes TRIZ Cases

An elastomer ring in an annular cavity prevents dust ingress while a toroidal spring secures the connection.

An optical fiber detects light phase changes to monitor the coupling state between a shower head and an upper electrode.

Pulsed DC discharge maintains metallic target surfaces to eliminate hysteresis effects and triple deposition rates.

A curved deceleration stage deflects ion beams via electric fields, preventing energetic neutrals from scattering onto the substrate.

Segmented magnet unit adjusts magnetic field intensity across a rotary cathode target to ensure uniform erosion.

A tantalum sputtering target with controlled crystal orientation and grain size increases the sputter rate and improves throughput.

Ion implantation deposits sacrificial film on non-planar substrates.

Coaxial hexapole fields eliminate third-order spherical aberration and off-axis coma, enlarging the sharply imaged area.

A sputtering target integrates a gradient strength layer on its cooling surface to suppress deformation during operation.

A hexaboride electron source uses a reaction barrier layer to prevent intermetallic compound formation at the joint interface.

Segmented specimen holders with piezoelectric actuators allow rapid multi-specimen switching while maintaining vacuum integrity and high resolution.

Curved gas pipe section extends flow path to mix gases with different molecular weights, preventing concentration variations without increasing apparatus size.

Sealed microfluidic channels automate fluid delivery to eliminate user variability and air exposure, ensuring contamination-free preparation.

Insulating dividers separate adjacent power contacts to increase minimum creep distance within a compact electrical connector housing.

A plasma duct reactor with a separating baffle confines the discharge to deflect neutral macroparticles, resolving contamination issues in diamond coating.

Segmented heating zones and projected radiation correct non-uniform critical dimensions caused by local temperature differences in plasma etching.

Vacuum cryo-stage eliminates liquid nitrogen shaking to prevent specimen drifting while isolating objective lenses from low temperature damage.

A two-step calibration method for scanning transmission microscopes uses a drift-insensitive beam pattern to quantify geometric distortions.

Replacing spherical grids with planar filters reduces device size, enabling atomic structure resolution within standard SEM chambers.

Preliminary mechanical support prevents holding sheet wrinkling during plasma processing, ensuring stable substrate absorption and uniform etching yield.

Segmenting the electrode surface isolates material deposition on non-contributing zones, preventing process drifting and stabilizing plasma generation.

A valve controller adjusts cleaning and compensation gas flow to maintain stable pressure in a drawing apparatus.

A grounded second substrate suppresses crosstalk from unintended electric fields, enhancing beam deflection precision.

A spring-loaded middle edge ring compensates for abrasion wear, maintaining uniform etching profiles and preventing profile tilting.

Adjusting high-frequency power during fluorocarbon plasma processing forms a selective deposit that protects silicon nitride from damage.

A transmission window with a side wall skirt and antenna gap directs microwaves into the processing container.

Heating the chuck reduces volume resistivity while alternating voltage cycles remove residual charges, preventing substrate cracks from adsorption forces.

A gas distribution plate heats a substrate to sublime dielectric etch by-products, bypassing electrostatic chuck temperature limits.

Permanent magnets redirect sputtered particles away from the ion milling surface, reducing contamination that hinders scanning electron microscope observation.

Ion bombardment removes electron source contaminants faster than heat treatment, reducing cleaning time from hours to minutes.

A microwave plasma device uses a coaxial electrode design to generate high-density plasma for semiconductor processing.

A computer system segments electron micrograph objects by pixel brightness and transforms them into fixed orientations for ontological grouping.

Three-frequency RF power sources decouple ion energy distribution from density and dissociation in plasma reactors.

Capacitively coupled plasma generates nitrogen species while inductively coupled plasma enhances ion energy for deeper substrate penetration.

Alternating inert and active carrier gases prolongs plasma lifetime, ensuring uniform film thickness in deep semiconductor structures.

A charged particle beam writing apparatus generates combined-value pixel data by adding correction dose values to writing pattern pixel data for precise local shape control.

Adjusting illumination area aligns diffraction patterns with object images, resolving processing time bottlenecks in lensless charged particle beam microscopy.

Interlocking grids with fractional offsets in a particle beam aperture array resolve address grid constraints and line edge roughness.

Segmented antenna arms disperse electromagnetic waves to generate high-density plasma uniformly while preventing thermal stress on the dielectric window.

An aluminum compound film passivates internal chamber surfaces to stabilize semiconductor thin film deposition processes.

A picoliter drop dispenser deposits fluid onto subregions of an electron microscopy grid to form thin films.

A patterned beam-defining aperture segments Gaussian beams to suppress tails, resolving the trade-off between high current density and precise shape control.

An automated system uses a beam deflector to redirect the charged particle beam, reducing tedious realignment time despite added device complexity.

A bipolar electrostatic chuck manages backside temperature of substrate carriers during plasma etching to prevent heat damage.

Anisotropic plasma deposition builds a protective organic film on the upper mask surface while maintaining opening clearance for high aspect ratio etching.

Thermally conductive plenum separates radical generation from processing zone, reducing plasma-induced damage while maintaining atomic-scale precision.

Segmented inductive coils with dedicated heat sinks reduce power losses and remove heat from excitation circuits.

An electron microscope extracts the DC component of noise signals to reduce contrast nonuniformity in STEM imaging.

A roll-to-roll hybrid plasma coating system merges arc discharge and magnetron sputtering to deposit thin layers on web substrates.