Electric Discharge Tubes TRIZ Cases

Detect etching endpoints by analyzing extraction current variations, eliminating complex optical sensors and reducing system engineering requirements.

A main roll cover maintains higher pressure than film formation chambers to prevent thin-film material gas transfer between adjacent zones.

Segmented detector captures secondary electrons by emission angle to enhance topographic contrast in charged particle beam inspection.

Scanning electron microscope system measures overlay offset using a primary electron beam with landing energy of at least 10 kV.

Mixed gas plasma etching of boron-doped amorphous carbon masks prevents pattern damage from high temperatures while maintaining high selectivity.

A processing chamber wall with sealed openings guides electron and ion beams into a gas-filled region while isolating vacuum components.

Piezoelectric actuators counteract stage inertial forces to stabilize charged particle beam trajectories without magnetic interference.

Hydrogen plasma neutralizes accumulated electrons on etching trench side walls during dry processing steps.

A multilayer scintillator assembly separates charged particle signals by energy level using wavelength-specific photon generation.

A grounded shield with flexure retainer arms blocks electric fields at the process chamber port, reducing plasma-induced clogging in gas injectors.

Remote hydrogen plasma CVD deposits graphene on metal to inhibit dielectric material, resolving substrate damage risks from high temperatures.

Dividing multi-beam irradiation into divided shots with individual blanking corrects elastic rate deviations caused by space charge effects.

Transfer robot replaces edge ring without breaking vacuum, and disk-shaped image sensor verifies alignment to maintain process yield.

Replacing disposable patches with a phosphor-based sensor enables high-resolution monitoring of low voltage electron beams without manual intervention.

PF3-based plasma etching removes high-boiling-point reaction products, preventing chamber accumulation and maintaining precise film dimensions.

A plate connector connecting member aligns holding-side connectors to device-side solenoids using side-by-side restrictions.

A plug connector housing integrates guiding channels and cavities to position a paddle board between mating portions.

Multi-angle beam scanning corrects secondary electron blurring to resolve edge detection errors and achieve precise height measurements.

Inclined guiding tori align pressing rings with bases, eliminating complex driving mechanisms and reducing manufacturing costs.

Diffusion bonding joins consolidated molybdenum blocks without powder agents, eliminating visible joint lines and particle formation during sputtering.

A cathode selection method measures gap dimensions to calculate an area ratio that ensures consistent electron emission brightness.

Extended protrusion facing electrode suppresses plasma potential oscillation and prevents metal contamination from sputtering.

Focused electron beams vaporize edge beads without chemical solvents, eliminating particulate contamination and yield loss in substrate processing.

Controlling rectifying plate surface roughness prevents active species inactivation, maintaining cleaning speed and electrode lifespan.

A pattern measurement device corrects dimension values using positional deviation data from charged particle beam scanning.

A tapered housing passage opening accepts a mating plug while an elastic sealing bead conforms to the connector surface.

An edge seal design prevents reactive chemical species ingress into the bond layer by maintaining inert gas at positive pressure within the mounting groove.

A tilted transparent window transmits incident light beams to the substrate at a perpendicular angle.

Plasma-enhanced PVD fills narrow semiconductor interconnections, eliminating overhangs and voids that plague conventional deposition methods.

Rotating a bolt head moves the base plate relative to the backplate, enabling precise target magnetic gap control without complex structural modifications.

A segmented dielectric front base couples microwave energy into a plasma discharge chamber while enabling even surface cooling.

Scanning focus ring electrostatic capacitance determines consumption amounts, resolving inspection time and processing uniformity trade-offs.

Electron beam irradiation enables selective raw material gas adsorption on substrate recess bottoms for precise metal film growth.

A microwave plasma slowing system uses waveguide-band transmission and lockable electromagnetic oscillators to control plasma flow.

A grounded conductive capture net intercepts electrons and anions in a sputtering apparatus, preventing ion collision damage on thin films.

Pyramid-shaped emitter tip narrows ion emission angle, resolving wide beam spread and boosting angular current density.

A wider ion beam reduces device damage during semiconductor fabrication.

A self-aligned dynamic pattern generator creates multiple individually controlled electron beams through micron-scale pixel arrays.

Expanding filler deforms flexible cover portions to close molding gaps, preventing leakage and maintaining watertight integrity.

Segmenting gas lines into smaller channels increases surface area, allowing heater jackets to prevent condensation and particle defects during high flow rates.

Segmented coils and a multi-duct gas intake system mitigate standing wave effects to ensure uniform plasma density across large substrates.

Embedded electrodes in a multi-stage holder enable independent plasma generation, resolving the contradiction between batch productivity and film uniformity.