Electric Discharge Tubes TRIZ Cases

Carbon-chain silicon precursors form plasma-deposited low-k films with closed nanopores, preserving mechanical stability without post-UV treatment.

Continuous multi-revolution sputtering builds thin soft magnetic stacks with tighter thickness and stoichiometry control for high-frequency microdevices.

A longer resonator waveguide with segmented dimensions and impedance matching improves plasma uniformity and stability across the substrate.

Controlled brake gas and staged air venting slow a turbo molecular pump quickly without excessive rotor load or ion beam generator damage.

Electrostatic beam scanning, an isolated energy filter, and wafer heating improve doping uniformity while reducing point defects and contamination.

A three-source magnetic field creates a zero normal field above the target, stabilizing low-current metal arcs and reducing macroparticles.

Using the SEM primary beam for both defocused pre-charging and focused imaging boosts voltage contrast sensitivity while cutting mode-switching time.

Continued gas flow cools the plasma head after discharge until a sensor-set temperature is reached, improving maintenance access without excess gas use.

A resistivity-tuned edge ring, dielectric ring, and electrode ring reduce plasma perturbation and improve wafer etching uniformity.

A gapped electrostatic chuck and heated support base reduce SiC wafer thermal stress, cracking, and jumping during ion implantation.

An inclined lower electrode in a ceramic stage bends electric fields to suppress VHF standing waves and improve in-plane plasma uniformity.

Circumferential heating zones with independent power feeders tune edge ring temperature to stabilize substrate-edge etching and limit deposits.

Humidity is adjusted in the plasma vessel before surface treatment to preserve bonding strength and suppress nitridation between substrates.

Flow-adjusted heat transfer medium in stage recesses enables independent multi-zone substrate temperature control without cross-zone interference.

Cloud-based configuration and software containers let distributed charged particle microscopes run uniform sample acquisition at scale.

Circumferential electrodes with adjustable RF power and substrate rotation improve electric field balance for more uniform plasma processing.

Projection-guided sheet positioning and conductive paste keep substrate contact uniform, improving wafer table heat dissipation consistency.

Uses SEM retrace time to track shifting secondary beam spots, adjust detector cells, and preserve collection efficiency with less cross-talk.

A movable stage aligns interchangeable aperture arrays to switch beam current and resolution quickly without beam deflection or lengthy recalibration.

Reciprocating substrate motion during plasma CVD improves nano coating uniformity, compactness, deposition efficiency, and corrosion resistance.

Separate gas supply and extraction channels improve substrate treatment uniformity, local product removal, and gas concentration control.

Dual modifiers create a stable, sterically hindered base surface that suppresses unwanted film deposition and preserves selective growth precision.

Region-based variable gain tuning adjusts RF matching capacitors to cut reflected power, prevent oscillation, and stabilize plasma operation.

Switching low and high temperature heat media stabilizes placing-table cleaning, speeds reaction product removal, and avoids vaporization.

A ceramic sleeve with O-ring sealing protects the gas injector interface from corrosion and leakage, extending plasma tool service life.

A wall-mounted cooled block removes heat from a moveable deposition preventive plate without moving piping, reducing gas release and leak risk.

Correction data links source voltage to heater resistance error, enabling precise substrate support temperature control without extra sensors.

A conductive-film dielectric plate suppresses standing waves and tunes surface-wave propagation to improve plasma uniformity at VHF/UHF.

Gas nozzles placed outside the plasma space enable reverse diffusion, reducing substrate particle adhesion while preserving film uniformity.

Direct semiconductor conversion with low-frequency filtering and signal integration improves radiation absorption, spatial resolution, and noise control.

Low-permittivity liners in stage through-holes suppress abnormal discharge under high RF power while preserving substrate and edge ring cooling.

Plasma maintained during chuck electrode switching buffers potential differences, suppressing edge ring discharge and contamination.

A roughened annular edge on a TiW PVD target suppresses nodule peeling, cuts particles, and extends chamber and target life.

Target-wavelength UV and a grid plate neutralize high substrate charge while limiting ion-induced pattern damage in semiconductor processing.

SEM surface charging plus EFISH measures wafer interface trap density without contact, avoiding contamination, charge diffusion, and scribing.

Set multiple machining conditions for one specimen region so focused ion beam cross-section machining continues without repeated region setup.

An adjacent specimen generates electrons that decompose precursor gas, enabling symmetric lamella deposition or etching without beam-induced curling.

Coarse and fine z-positioning lets one SEM metrology tool switch landing energies while maintaining focus and reducing stabilization downtime.

A ring-shaped edge electrode with exhaust holes stabilizes edge pressure and gas flow to maintain dense, uniform plasma treatment.

A tilted helical gas conduit creates electric field reversals in each winding to arrest breakdown and enable safer high-voltage delivery.

Wireless induction heating inside the lower electrode improves substrate temperature uniformity while removing cables and RF noise sources.

Dielectric layers and a defined electrode gap stabilize atmospheric cold plasma, raising reactive species output for air treatment and sterilization.

Dual exhaust outlets flanking a gas injector improve gas flow and by-product removal, reducing WIWNU in closely spaced substrate processing.

Adjusting bias frequency during fluorine plasma etching helps photomasks cut dissimilar layers selectively while preserving sidewall profile.

A grounded shield with a tuned surface-area-to-height ratio cuts sputtering and contamination in high-density PVD plasma.

A combined preclean and PVD chamber removes native oxide and deposits metal without vacuum break, preventing re-oxidation and boosting throughput.

Symmetric permanent magnets in a PVD reflector steer edge ions, improving capture and film uniformity without chamber wiring changes.

Electron inflow dose at individually wired control electrodes enables pre-installation conduction inspection of small-opening multipole aberration correctors.

Synchronous rotary drives and a bar-and-hinge mechanism keep wafer tilt, twist, and beam focus stable during full-surface ion beam scanning.

Adjusting deflection excitation during focus changes keeps object features aligned, making particle beam image sharpness easier to compare.

Segmented plasma-exclusion-zone rings isolate dielectric layers from plasma damage while removing bevel edge contaminants.

A variable Faraday shield adjusts plasma exposure to manage substrate holder sputtering in reactive ion etching systems.

Grooves in the ceramic body accommodate electrical leads and sensors, resolving the trade-off between thermal stability and machinability.

A rotating radio frequency applicator uses electromagnetic coupling between coil members to transmit power through a shaft assembly.

A fluorine-based resin condensing unit captures deactivated light to boost detection yield.

Fluorine-based dry cleaning resolves throughput and contamination trade-offs by efficiently removing precious metals and ferroelectric substances.

Atomic layer deposition coats porous chamber pore walls with plasma resistant oxide layers, preventing erosion while maintaining gas permeability.

A high-speed SATA and SAS plug connector design minimizes interconnection length to maintain signal integrity.

A pulsed CFE electron source uses a fast beam blanker to modulate charged particle beams for ultrafast transmission electron microscopy applications.

Single chamber eliminates transfer time between deposition and etching steps.

Tunable impedance devices in ground straps dynamically adjust RF return currents to compensate for chamber asymmetry.

Sequential beam extraction with a movable detector resolves interdependent optical adjustments, improving semiconductor inspection accuracy.

Cooling units adjust fan air volume via photon counting rates to prevent temperature fluctuations and image deterioration during sudden dose changes.

A plasma discharge arrangement uses an electrically isolated confinement to concentrate ion density near the substrate surface.

Multi-level interconnect structure reduces wiring complexity and alignment precision requirements for reliable sub-55 µm beamlet control.

Melting the target surface before irradiation prevents roughening and contamination, ensuring uniform plasma plumes.

Sputtering a consumable electrode creates a uniform adhesive layer that prevents flaking and enhances durability of cylinder liners.

Controller executes etch recipes and generates metrology data to determine relationships between control parameters and etch characteristics.

A flash lamp annealing apparatus manages chamber pressure and inert gas flow to discharge airborne particles from the processing environment.

Alternating silicon halide and oxygen plasma cycles deposit conformal oxide films on semiconductor masks.

Applying a silicon-containing deposit on a polysilicon mask via negative DC voltage increases mask selectivity and line smoothness during CF-based gas etching.

A hybrid plasma reactor combines transformer and inductive coupling to generate stable plasma discharge across varying pressures.

Segmented electrode layers with varying electrical resistance optimize plasma density distribution in electrostatic chucks.

A plasma processing device adjusts electrode power to control radical and ion densities.

Computing device detects plasma module faults by comparing measured output values against pre-recorded constraints.

A side gas plenum with segmented passages controls radial and azimuthal flow, reducing pressure drops while enabling damage-free assembly.

A portable UV device uses germicidal light to inactivate microorganisms on container surfaces.

A vertical movement mechanism adjusts the position of a conductive ring-shaped ground member to stabilize DC voltage grounding.

Sputtering a zirconium-copper metallic glass layer on aluminum alloys extends component lifespan by up to fifty times while maintaining low weight.

Plasma sputtering reduces particle thickness on substrates, eliminating contamination and extending cleaning cycle intervals.

Remote plasma etch with directional sputtering pretreatment selectively removes titanium oxide relative to silicon oxide and nitride.

Boron-doped silicon parts reduce etching rates, suppressing particle formation and extending component lifespan.

A remote plasma source delivers neutral radicals to pre-treat substrates, reducing ion damage to low-k dielectrics.

A multi-charged particle beam blanking apparatus transmits batch ON/OFF control signals to individual mechanisms.

Dynamic electrostatic chuck voltage control prevents wafer peeling and cracking by adjusting output based on self-bias voltage monitoring.

Adjustable inductor tunes impedance matching network to deliver power across 400 kHz to 220 MHz frequency range.

A canceller circuit unit neutralizes low frequency noise in ion pump load current detection.

Variable stiffness in the bending section controls the neutral plane position, reducing stress on transistors and organic EL elements during folding.

A porous electrode and ceramic nozzle structure directs secondary gas through an isolated path to mix with plasma outside the generation region.

Alternating oxygen flow rates controls CF-based polymer deposition, suppressing base loss and tapering in deep holes.

A modular high-frequency emission source segments microwave power into independent modules to form uniform plasma fields.

A support member shields a measuring device from an ion beam, enabling efficient conveyance and beam current monitoring to shorten total treatment time.

A small-angle electron scattering apparatus characterizes nanostructures on opaque substrates using collimated beams and projection optics.

A proactive arc management system adjusts power supply settings based on actual and anticipated arc occurrences to minimize electrical discharges.

Angled ion implantation protects extension regions from wet etching damage while enabling precise cavity shape control.

Segmented rod electrodes adjust plasma distribution to prevent substrate damage during treatment.

Spring-loaded contacts in a bayonet rotary connector maintain electrical connections under vibration and rotational stress.

Airtight rotating sample holder prevents atmospheric exposure during gas flow and heating, enabling precise three-dimensional analysis of sensitive materials.

Orthogonal transistor arrangement eliminates mask complexity by directing ion beams at specific angles for independent analog and digital FET doping.

A multi-charged particle beam evaluation method writes patterns with varying line widths to measure controllability and resolution.