Electric Discharge Tubes TRIZ Cases

Symmetrical induction coil design equalizes terminal potentials to generate uniform plasma in semiconductor processing chambers.

Dual rotatable plates enable continuous pre-sputtering during backup, reducing equipment downtime while maintaining film quality.

Angled ion treatment removes sidewall residue from patterned features, reducing critical dimension errors in magnetic random access memory pillars.

Combining optical scanning with targeted electron beam irradiation enables nanometer precision pit shape examination without sacrificing throughput.

Aperture array forms second electrode to create accelerating electric field that reduces spherical and chromatic aberrations in charged particle lithography.

Segmented pumping liner with bypass inlet and flow control mechanism cleans downstream chamber parts, reducing cycle time.

Dual heating units and increased chamber pressure resolve the contradiction between fast heating speed and uniform temperature distribution.

Silicon ion implantation employs fluororeaction suppressors to eliminate fluorine-related deposits and flammability hazards in the ion source.

An outwardly tapering central bore in the guide tube eliminates narrow apertures, reducing particle contamination and gas loading during ion implantation.

A sample stack structure uses an adhesive layer to attach a target layer to a dummy substrate for uniform thinning.

Multi-point shape data from a ring assembly drives a relationship model that adjusts DC voltage, preventing recess tilting and reducing replacement frequency.

A stage apparatus uses a low conductivity connection member to suppress heat transfer from a drive mechanism.

A charged particle beam device uses separate intensity and pulse-height detection units to generate distinct sample images.

Gradually reducing HBr gas flow while adjusting O2 prevents twisting and bowing during high-aspect ratio silicon film etching.

A multibeam writing system calculates corrected dose amounts using position-dependent correction factors to optimize pattern clarity.

Insert-molding a metallic member into an insulative housing boosts structural strength, enabling secure connections for heavy electronic cards.

Dynamic coil reconfiguration in a plasma antenna resolves voltage drop contradictions by adjusting connection topology for uniform plasma density.

Segmenting the hot shell wall into varying thicknesses balances thermal efficiency and mechanical integrity while focusing heat on the emitter.

Segmented coils with independent power control resolve plasma uniformity deterioration while minimizing chamber wall sputtering.

A grounded substrate cover with contact points stabilizes electron beam writing.

A substrate support surface uses concentric temperature gradients to induce etching rate variations for precise positional deviation measurement.

Alternating ion attraction phases suppress sidewall twisting by maintaining uniform protective deposits during deep etching.

A universal module interface with a device-side plug-type connector enables flexible usage possibilities without hardware changes.

A film formation apparatus adjusts oxygen partial pressure in sputter gas to maintain consistent deposition conditions.

Gas cluster ion beam technology alters surface charge states to promote tissue formation without damaging underlying biological structures.

Adjusting beam dosage based on overlap area differences to resolve critical dimension errors in semiconductor lithography.

Alkyl silyl surface passivation enables selective epitaxial deposition on semiconductor substrates.

Microwave plasma induces conformal oxide growth below 200°C, preventing dopant redistribution while maintaining electrical properties.

Segmented roller elevations maintain homogeneous plasma field strength across uneven surfaces, resolving intensity drop-off at contact lines.

A charged particle beam drawing apparatus calculates the drawing progress ratio using drawn area ratios to total areas for continuous updates.

Heating the deposition-inhibitory member reduces product adhesion, while the multi-layer coating prevents cracks that cause metal contamination.

Frame-basis pipeline processing reduces turn around time by registering writing data on a frame basis instead of waiting for complete layout data.

Elemental target mixing eliminates exothermic heat input during magnetron sputtering, preserving grain boundaries and boosting Seebeck coefficients.

A lift-off layer coats the processing chamber wall to detach deposited reactive products during cleaning.

A substrate pedestal module uses a ceramic stem to isolate thermal energy and maintain vacuum seals during high temperature processing.

Algorithm determines optimal field of view position and size to reduce manual setting time and improve measurement throughput.

Segmented concentric gaps isolate thermal conduction from leakage pathways, reducing gas contamination in substrate holders.

Crisscrossed trenches on chamber fixtures withstand heavy deposition accumulation, extending replacement cycles and reducing maintenance downtime.

Plasma etching creates a tapered profile in the first dielectric layer to prevent voids during subsequent gap fill cycles.

Movable plates in a variable aperture assembly adjust ion beam geometry, eliminating complex magnetic field systems to reduce device complexity.

Dual expansion valves and a vaporizer in the refrigerating cycle enable rapid temperature response and wide setting ranges for plasma processing stages.

Interchangeable thermal bodies and movable gas box members adjust thermal boundaries and flow profiles to compensate for substrate non-uniformities.

A ribbed insulating housing organizes signal and grounding contacts into groups connected by unitary bars to optimize impedance matching.

Fine holes in the upper electrode base reduce electrostatic capacitance at the center, correcting non-uniform plasma density caused by the skin effect.

A reusable microscopy sample holder uses a spring to compress and secure fragile TEM grids between mating parts.

Segmented central and peripheral gas jets control flow frequency to eliminate etching rate variations across semiconductor wafers.

Blind Source Separation processes multi-energy SEM data to spatially resolve signals into discrete depth layers.

Segmented chamber design prevents electric discharge in voltage detectors, enabling stable three-dimensional observation of samples in gas atmospheres.

A metal oxide matrix with specific valence states stabilizes mobile ions to enhance ion hopping conductivity in resistive random access memory devices.

Confined plasma antenna generates solitons on electromagnetic carrier waves to resonate with target materials without complex separate transmission systems.