Electric Discharge Tubes TRIZ Cases

Finer insulating structure bodies hold a stable emitter-collector gap and suppress heat conduction to preserve temperature difference and current output.

Segmented plasma regions with a shared grounded electrode improve low-temperature film uniformity while reducing particle generation.

Block-based correction compensates electric and magnetic field beam shifts in multi-beam writing to improve irradiation position and dose accuracy.

A split chuck surface with a nested focus ring reduces edge electric field differences and shields the chuck from plasma damage.

Independent foil-heater duty-cycle control improves wafer temperature uniformity in plasma processing while reducing external wiring and filters.

Independent ramp control of high- and low-frequency RF power improves high-aspect-ratio etching precision while limiting clogging.

Shipment inspection data and precomputed coefficients reveal MFC drift early, helping predict plasma tool degradation before abnormalities occur.

A rotating cover replaces screw locks to simplify microscope sample carrier assembly while keeping covers positioned and sealed.

An analog sync signal embedded in an EtherCAT train keeps multiple RF generators aligned despite internal clock drift, improving plasma process consistency.

Illumination lowers the work function of N-type semiconductor emitters, enabling stable thermionic conversion at lower temperatures.

Curved liner fluid guides create continuous gas channels in CVD chambers, reducing dead spots and stabilizing film thickness at higher flow rates.

A thin insulating shield on a heated chamber door blocks wafer heating, reducing temperature non-uniformity and uneven etching.

Neural-network scheduling predicts wafer routing and pacing from tool data to cut idle time and improve substrate processing throughput.

Real-time code checking in a blanking aperture array catches transmission errors during high-speed beam writing without stopping mask exposure.

A dual-layer seal uses an inner hermetic adhesive and a removable plasma-resistant ring to protect ESC bond layers from erosion and contamination.

An inflatable chamber airbag cuts focused ion beam pump-down time and its conductive coating adsorbs contaminants before they reach the wafer.

A bypass curtain gas line and interlocked valves keep cleaning and source gases apart, reducing manifold by-products and chamber contamination.

Alternating plasma etching and in-chamber annealing improves wafer etch selectivity while removing damaged layers without separate equipment.

Rare-earth coating regions combine water repellency with hydrophilic exposed areas so droplets drain and visibility lasts under UV or plasma exposure.

Independently controlled heater zones in an electrostatic chuck improve in-wafer temperature uniformity without overly complex power-feeding structures.

A ceramic-coated aluminum pedestal with brazed metal layers and backside gas channels speeds substrate heating and cooling while limiting contamination.

An array of independently controlled oscillator-amplifier-applicator modules replaces waveguides to tune plasma density uniformly across large substrates.

Variable laser polarization in an optical cavity modulates the TEM electron beam to deliver stable phase contrast without contamination or electron loss.

A parallel magnetic field with mu-metal circuits and hollow-tube cooling improves plasma uniformity, target erosion, and magnet protection.

A valve-fed inert gas capsule keeps beam system samples isolated from air during transfer and chamber venting, limiting oxidation and nitridation.

Plasma confined to the wafer edge forms a flat bevel film, protecting the substrate while preserving a flat surface for device mounting.

Multiple electron sources and tilted columns let each beamlet be corrected independently, improving SEM resolution uniformity and throughput.

An amorphous rare-earth interlayer boosts coating adhesion to 60 MPa or greater while preserving plasma resistance and limiting cracks.

Detector voltage is adjusted to stabilize the sample electric field, improving charged particle beam image quality and measurement repeatability.

Multi-level RF bias and frequency pulsing reduces ion angular spread, improves mask selectivity, and sustains high aspect ratio wafer etching.

Using cyclic precursors with carbon-terminated C-N bonds helps nitrogen-containing carbon films resist etch and CMP while improving optical properties.

Region-based coolant pressure and flow control brings all placing table zones into range, reducing thermal non-uniformity in plasma processing.

Two plasma generators at the chamber top and periphery improve activated gas distribution and support uniform film formation on substrates.

Rotating substrate support and reactive-gas plasma needles clean bevel and backside deposits for more uniform edge exposure and fewer lithography defects.

Independently timed plasma elements improve wafer uniformity and process flexibility without larger chambers or complex analog control.

Bromine or iodine plasma etches IGZO oxide semiconductor films while preserving silicon oxide masks and maintaining vertical profiles.

Megasonic cleaning with a scanning transducer removes submicron particles from ceramic chamber components, cutting defects and seasoning time.

Alternating nitriding and adsorption-inhibiting plasmas improve SiN coverage in substrate recesses while reducing voids during PE-ALD.

A non-circular bush insert with internal female threads prevents rotation in plasma electrode plates, enabling faster and more stable assembly.

A co-strike plasma treatment on a tungsten nucleation layer enables bottom-up, seam-free gapfill in high-aspect semiconductor features.

A back-and-forth internal cavity disrupts coating buildup on an ion source insulator, reducing leakage paths and arcing risk.

Asymmetric alternating attenuation current demagnetizes magnetic lenses with lower current, minimizing remanence and instrumental errors.

An electron reflector layer sends secondary electrons back into EUV resist, cutting dose and reducing shot-noise-driven roughness.

An insertion-triggered inclining mechanism tilts the sample stand to a preset angle, clearing the frame from observation and processing beams.

Controlled SiO2-Al2O3-MgO glass composition lowers thermal expansion, resists plasma etching, and reduces particle defects in chamber parts.

Pulsed high-energy ion removal after surface modification improves sub-10 nm etch uniformity in high-aspect-ratio features.

Reactive pulsed magnetron sputtering forms crack-free gamma-Al2O3 tool coatings with higher hardness, even thickness, and better wear resistance.

Pressurized backside gas in a substrate support improves heat conduction while vacuum chucking, reducing temperature and film thickness non-uniformity.

Cooled dummy substrates condense moisture in vacuum transfer and process modules, removing particle causes without chamber cooling.

Deuterium plasma in ALD removes hydrogen and chlorine impurities during low-temperature silicon nitride film formation, improving film uniformity.

An electron beam splitter uses oscillating electric fields to create pseudopotential minima for transverse confinement.

Varying hole densities in the faceplate regions modulate the plasma field, reducing edge ring-induced non-uniformities while maintaining particle protection.

A substrate processing stage adjusts heat transfer gas flow through a pin insertion passage to maintain precise temperature control.

Dual rotation of a planetary rotary rack prevents uneven coating thickness caused by localized gas concentration near exhausting ports.

A rear surface magnet generates a strong field that induces magnetic lines toward the substrate, resolving divergent fields and improving deposition efficiency.

Segmented planar tiles resolve boundary treatment gaps in large-scale plasma sources, ensuring homogeneous delivery.

A rotating cylindrical cathode deposits film material onto a base substrate through controlled plasma sputtering.

Shielding sample regions with a beam limiting aperture reduces radiation damage while maintaining high image quality in helical tomography.

Automated position tracking resolves the contradiction between high production capacity and deteriorating management efficiency in semiconductor clean rooms.

Varying shot dosages through circular apertures eliminates corner rounding and reduces Mask Error Enhancement Factor at sub-80 nm nodes.

Periodic RF power modulation lowers by-product gas concentration to resolve aspect ratio dependent etching non-uniformity in narrow-gap chambers.

A charged particle beam apparatus uses an electrical conduction sensor to detect sample piece connection status during automated transfer operations.

A discharge surface treatment apparatus uses an inductance element to generate induced electromotive force for pulsating discharges.

A multi-unit plasma device ignites subsequent regions using radiation from a primary source to maintain coverage with lower power.

A charged particle beam system detects discharge positions using multiple antennas with distinct resonant frequencies.

Configurable showerhead assemblies deliver distinct gas compositions to isolated substrate regions.

A biasing mechanism maintains shield contact during thermal expansion, preventing particle leakage and ensuring stable plasma generation.

Inclined reflectors on an isotropic diffusion layer redirect scattered light to boost horizontal luminance while eliminating separate prism sheets.

A biosignal measurement adapter uses tool-less connectors to join electrodes to an external support structure for reliable skin contact.

A Cu-Ga sputtering target employs a coexistence microstructure of low-Ga and high-Ga phases to prevent cracking during machining while maintaining high density.

A sensorless RF impedance matching network adjusts variable capacitors based on reflected power measurements at the power source.

Segmented showerhead electrode steps create distinct gas flow regions to ensure uniform process gas dispersion across the plasma surface.

Alternating gas between storage tanks and the chamber stabilizes mass flow controllers while preventing wasteful discharge of expensive process gases.

A charged particle beam seals tumor periphery to restrict nutrient delivery and induce starvation necrosis.

An LCOS-SLM light stimulation device modulates phase and adjusts light amount to control stimulated spot patterns on specimens.

Serpentine cooling channels in the backing plate reduce thermal stress and mechanical bowing during high power sputtering.

A data processing apparatus calculates pre-irradiation pattern dimensions and contours from electron beam images.

Stacked plate-shaped metal mesh members minimize conductive path length to prevent abnormal heat generation and ensure thermal uniformity.

Surface-mounted wedge clamps measure RF frequencies while avoiding parasitic capacitance shifts from added electrical length.

Calibrating ion beams to lattice structure reduces shadowing effects and improves semiconductor device repeatability.

A dual-sensitivity resist stack enables multi-depth photomask patterning through a single exposure step.

Segmented pedestals with independent temperature regulation zones control plasma strip tool uniformity.

A lamp cap electrical connection structure integrates electrodes directly to a substrate, simplifying the assembly process.

Segmented pump paths isolate lower electrodes from plasma byproducts during substrate removal to prevent component erosion.

A rotating and swinging tubular drum stirs particles in a vacuum container, ensuring uniform target atom deposition on all surfaces.

Backside electrode envelops substrate holder to isolate plasma from showerhead, preventing aperture clogging and particle generation.

Cathode sputtering target deposits metallic nanoparticles onto glass substrates to create adjustable color characteristics.

A mechanical resonating structure uses a compensating layer to balance stiffness variations and stabilize frequency.

Multi charged particle beam writing apparatus uses an electric field control electrode to lift secondary electrons.

Dynamic current adjustment reduces unnecessary power consumption and shortens drift standby time by accelerating thermal equilibrium.

Plasma treatment removes oxide layers from substrate surfaces in a vacuum, preventing oxidation and minimizing thermal stress during bonding.

Low-temperature developer treatment compensates for proximity effects to achieve sub-10nm pattern resolution.

Silicon carbide hardmask films deposit via plasma treatments to achieve high hardness and controlled stress, preventing buckling during lithographic patterning.