Electric Discharge Tubes TRIZ Cases

Optimized alumina ceramic surfaces suppress grain boundary corrosion and particle generation, ensuring stable semiconductor pattern formation.

Opposing magnetic flux lines trap electrons near the substrate, boosting ionization intensity for dense coatings without adding complex external electrodes.

Hot pressing refurbishes non-circular sputtering targets by filling depleted regions with fresh powder, reducing material waste from uneven erosion.

Gas cluster ion beam processing modifies biological material surfaces to enhance hydrophilicity and cellular attachment.

A plasma reactor electrode assembly uses coplanar filaments to generate uniform ionized gas across a moving workpiece surface.

Segmented targets arranged symmetrically around the substrate achieve uniform thickness profiles without increasing vacuum chamber volume.

Auxiliary circuit reduces load impedance difference before and after plasma ignition, enabling stable plasma maintenance without mechanical adjustment delays.

Resistive material around a conductive core heats optics to reduce particle accumulation without creating voltage gradients across the ion beam.

A three-step plasma etch process generates a faceted sidewall, deposits a passivation layer, and induces differential etch rates to achieve precise structure profiles.

A modularized configurable Ethernet connector system supports flexible data rates and secure coupling in compact form factors.

Selective plasma generation around conductive beam optics cleans deposits without venting the processing chamber.

Electronic modulation of RF power generators opposes high-frequency transients, reducing reflected power and enabling stable operation above 100 kHz.

Dual RF power ICP etching of Ga-based semiconductors maintains vertical profiles and surface smoothness while achieving high productivity rates.

Concentric gas injection zones in a multi-zone upper electrode enable independent temperature and gas distribution to resolve non-uniform etch rates.

A plasma processing method diffuses charged particles over a semiconductor wafer to minimize impurity adherence during de-chucking.

Converging cold plasma jets penetrate deep tissue layers to eradicate infections without surgical intervention.

Radial gas exhaust ports in lens cover electrodes extract sputtered particles and residual gas to maintain vacuum quality during high-energy ion implantation.

Movable base with elastic member absorbs vibration stress to maintain stable signal transmission despite component tolerances.

A film forming apparatus deposits metal oxide films using a sputtering mechanism and an integrated heating unit.

An impedance varying circuit controls a chemical component emitting member within the plasma process vessel.

Integrated gas distributors on an extraction plate deliver residue removal gases directly to the substrate surface.

Dielectric pads on the shower plate adjust plasma density to resolve non-uniform etching rates across substrate areas.

Ceramic faceplate with a thermal bridge limits heat transfer to the coupling portion while maintaining elevated temperatures in the distribution zone.

Phase-adjustable harmonic RF signals suppress standing wave effects to improve radial etch uniformity without relying on static process parameter tweaks.

A flow rate controller inspection method uses intermittent gas output to measure pressure rise characteristics for precise delay time calculation.

A plasma induced flow electrode structure uses concentric slits to generate active species.

A transmission plug integrates a radio-frequency stick within a standardized audio connector to carry broadcast signals alongside audio.

A cooled tape frame lift assembly supports substrate wafers during plasma processing to maintain thermal stability.

A charged-particle beam device adjusts lens conditions and deflector signals to move the field of view across a sample.

A substrate processing apparatus etches silicon oxide films using a sequence of gases to expose underlying layers.

Endpoint detection apparatus monitors fluid supply characteristics to terminate discharge when vessels deplete.

Stacked electrode substrates with varying opening diameters adjust image plane conjugate positions of primary electron beams.

Segmented inductive coils with auxiliary capacitors distribute voltage to prevent dielectric tube damage and enhance discharge stability.

A specialized slide system enables sequential optical and particle beam microscopy without integrated vacuum chambers.

Laterally extending optical fiber beneath plasma-exposed surfaces enables spatial temperature measurements along the component.

Low-pressure plasma CVD deposits boron films with high dry etching resistance, solving selectivity limits of amorphous silicon masks.

Dynamic adjustment of exposure slot durations based on monitored source current fluctuations maintains uniformity of exposure doses across the substrate.

A dilution controller manages inert gas flow in the exhaust path to maintain combustible concentrations below explosion limits.

Unvulcanized rubber bonds a conductive sheet to a focus ring, resolving vacuum insulation cooling issues.

A sputter deposition apparatus guides substrates along a curved path to achieve uniform plasma confinement and controlled material distribution.

Inductor and snubber circuit suppress overvoltages during polarity reversal to prevent arc discharges in sputtering apparatuses.

Annular buffer members compress radially between the quartz nozzle and metal adapter to prevent direct contact and particle generation.

A flow path member with a coarse wall portion creates turbulent fluid flow, resolving insufficient heat exchange efficiency in semiconductor wafer processing.

A movable socket assembly uses a slide guide and spring to eject a plug part from its housing for flexible outlet positioning.

A plasma etching method uses a carbon-containing compound gas mixture to transfer intermediate layer patterns onto lower organic films with high accuracy.

A windowless airflow proportional counter uses liquid-based pressure control to stabilize internal gas conditions.

Atomic layer etching achieves high selectivity and profile control at sub-30 nm nodes by segmenting cycles into adsorption and desorption steps.

Segmented thin windows and flux concentrators improve power transfer to plasma while maintaining mechanical stability against atmospheric pressure.

A movable inner conductor antenna adjusts the gap to a dielectric window via a drive device.

Curved spring portions distribute load to prevent plastic deformation, increasing displacement without stress concentration.