Electric Discharge Tubes TRIZ Cases

Segmented electrode members join via low-melting alloy, allowing selective replacement of worn parts while retaining intact components.

Multiple process tubes share a single boat elevation unit to increase throughput while minimizing the equipment footprint.

Controlling phase difference between pulse waves suppresses standing waves to ensure uniform etching rates across the substrate.

Dry and wet etching define an aluminum grid on a thin boron layer, preventing damage while reducing the dead zone for better electron detection.

Relocating support pins to the substrate periphery prevents arc discharge damage during etching while maintaining stable mounting.

A multibeam focus adjusting method thins beam lines based on rotation angles to suppress signal waveform rounding during scanning.

A ground spring and bracket couple connector shells to create a low-impedance path, reducing electromagnetic interference in noisy environments.

Nano-tip anodes generate localized electric fields that amplify electron signals, overcoming slow ion drift and recombination limits in neutron detection.

Sacrificial caps block oxygen diffusion to reactive targets, eliminating lengthy burn-in cleanup and boosting tool utilization.

A substrate support pedestal uses a porous plug and sealing member to prevent bond layer erosion from process gases.

An edge ring RF voltage control arrangement delivers low frequency power to adjust the edge ring potential independently from the substrate.

Segmented link assemblies enable precise five-degree-of-freedom positioning without obstructing the sample insertion path or increasing manufacturing costs.

Consolidated heating structure with MOSFET switching controls multi-zone temperatures without increasing apparatus volume.

Separation gas supply parts prevent hydroxyl group re-adhesion during silicon oxide deposition, maintaining in-plane uniformity without reducing efficiency.

A semiconductor processing tool deposits and removes a passivation layer in situ to reduce contact resistance between metal layers.

Opposing conical electrodes in a remote plasma source reduce plasma potential, limiting ion sputtering and metal contamination during processing.

An electron beam receiver intercepts radiation during sterilizer adjustments.

Optimized pumping liner and showerhead geometry eliminate dead volumes to prevent gas backflow and residue formation in deposition stations.

Correction circuit adjusts reference images based on beam deviation information to match secondary electron imaging characteristics.

A conductive substrate pattern enables electron beam detection of secondary and backscattered electrons for mask inspection.

High thermal conductivity potting compound conducts heat away from the lamp base, reducing temperatures by 75°C to prevent molybdenum foil oxidation.

Peripheral edge slits segment the chip substrate to isolate electrical contacts, preventing unwanted metallization shorts during focused ion beam deposition.

Dynamic positioning of the substrate supporting apparatus corrects thermal expansion mismatches between chamber walls, ensuring uniform thin film deposition.

Dry etching removes surface oxides from transmission electron microscope phase plates, preventing impurity deposition during electron irradiation.

A detection system monitors reflected light and gas flow to identify substrate unclamping events.

Segmented RF power transmission paths with tuning elements control plasma density profiles to resolve wafer uniformity issues.

Preliminary angle adjustment during wafer transit reduces non-irradiation dwell time and boosts processing efficiency.

Merging a STEM detector with a light-optical lens resolves the trade-off between nanometer resolution and temporal correlation in biological imaging.

Remote positioning of the light detector minimizes thermal expansion effects and reduces spatial constraints within the vacuum chamber.

A pressure controlled heat pipe adjusts thermal conductance by displacing liquid with pressurized gas to manage showerhead electrode temperatures.

Nitrogen-based gas passivates insulating parts before hydrogen plasma annealing to prevent particle contamination.

A plasma processing apparatus uses a reflector to redirect infrared light onto the wafer, recovering energy lost through quartz sidewalls.

Detector-equipped aperture plate calculates beam perpendicularity to adjust alignment coils, preventing partial beam loss and enhancing writing accuracy.

Motorized mechanisms adjust the magnet bar position to maintain magnetic flux as the target erodes.

A photocurable composition cures to a rigid film that maintains pattern integrity during imprinting.

Sidewall trenches with varying depths compensate for natural flow non-uniformity, ensuring consistent film thickness and electrical properties.

CxHyFz gas etching and plasma-free HCOOH treatment reduce fluorine concentration to prevent bowing shapes in high aspect ratio memory holes.

Segmented focus rings apply higher negative bias at the edge to control etching rates independently from the central substrate region.

Alternating hydrofluorocarbon and fluorocarbon plasma steps enable precise etching of multi-layer and single silicon oxide regions in NAND flash memory.

Pre-sintered encapsulation layer secures LED module pins within lamp housing for simplified insertion assembly.

Integrating a sealing shroud with a bayonet coupling prevents moisture ingress into electrical contacts while ensuring secure mechanical locking.

Oxygen plasma pre-treatment oxidizes stubborn metal oxide and nitride deposits, enabling effective halide gas removal to eliminate particle contamination.

Atomic layer deposition applies a protective coating that reduces etch rates by 20 to 100 times, preventing wafer defects and extending component lifespan.

Hydrogen plasma treatment rounds via holes in an organic mask, enabling critical dimension shrinkage from 60 nm to 18 nm beyond standard lithography resolution.

A charged particle beam writing apparatus corrects deflection positions using a dedicated calculation circuit to adjust shot counts.

Modulating an unmatched RF generator in synchronism with engineered transients maintains stable plasma conditions and reduces reflected power.

A two-step vapor etch process removes sacrificial silicon nitride uniformly without damaging adjacent silicon dioxide or silicon features.

Heating current modulates mercury vapor pressure to maintain stable UVC emission despite external temperature fluctuations.