Electric Discharge Tubes TRIZ Cases

Segmented piezoelectric actuator units expand and contract to counteract mechanical oscillations in optical equipment.

Segmenting plasma removes charged species that damage substrates, allowing radical treatment to reduce interfacial dipoles and enhance bonding strength.

A plasma-treating unit modifies recording medium surfaces to control ink droplet behavior during high-speed printing.

Hall-effect magnetron sputtering deposits nanolayered coatings on RF accelerator surfaces.

Zigzag branch channels distribute gas density independently to prevent edge etching speed differences and critical dimension variations.

A plasma generator uses a heater and sensor to control gas temperature.

PECVD silicon oxide coating deposits on metal substrates to resolve chromium toxicity and mechanical weakness in traditional paint systems.

Control device adjusts radio frequency power supply times based on plasma impedance changes during gas switching, resolving machine responsiveness variations.

Stationary electron beam detects high-frequency electrical noise via secondary electron time-series analysis, bypassing scanning shake-back limits.

A plasma deposition method using an electrostatic chuck to create high-density dielectric films at low temperatures.

Segmented magnetic fields and a canceling coil maintain small spot diameter despite increased probe current.

Continuous graphene deposition on metallic members improves heat transfer efficiency and corrosion resistance while lowering manufacturing costs.

Vector scan electron beam exposure fabricates precise photo mask patterns for organic light emitting displays.

Plasma generation in a second region removes sodium from chamber walls via a sacrificial dummy wafer, preventing substrate contamination.

A plasma processing electrode uses low-frequency power to store charge before operation.

Embedding catalysts in nanoporous dielectric layers enables selective tissue removal by controlling electron temperature and density.

Alternating halogen and amino source gases deposits silicon nitride carbon films on substrates at temperatures below 500°C.

A multi-charged particle beam exposure apparatus selects optimal divided shot combinations to achieve precise effective irradiation times.

Vacuum cathodic arc plasma deposition replaces costly magnetic sputtering to fabricate durable solid-state electrochromic devices with enhanced ion mobility.

Alternating fluorine modification with ammonia plasma removal suppresses chamber deposition and reduces ionic damage.

Differential gas control between center and peripheral substrate portions enhances film uniformity while reducing chemical vapor deposition processing time.

Seasoning films and gas monitoring reduce drift in semiconductor deposition processes.

Segmented nozzle arrays introduce processing gases at controlled heights, preventing excessive dissociation while ensuring uniform film formation.

Modulating SF6 gas flow enables optical emission measurement of Si species, eliminating substrate patterns and improving device integration.

Segmented parallel gas supply pipes maintain constant reactive gas concentration to resolve thin film non-uniformity.

A vertical lifting assembly uses wheel ramps to raise lithography modules without rotation.

A radiation sensor uses electrically isolated collection regions to create virtual spatial gradients.

Biasing an electrically isolated edge ring relative to the substrate compensates for edge effects, resolving non-uniform etch profiles on large wafers.

A charged particle detecting device uses a dual detector system to capture secondary electrons and ions simultaneously.

Composite elastic conductive sheet and rigid support unit resolve durability issues from deformation, ensuring reliable electrical connections.

Annular dielectric slow-wave members guide microwaves to achieve uniform plasma distribution across large semiconductor wafers.

Alternating fluorocarbon and oxygen plasma cycles remove carbon deposits in wide openings, preventing etching stoppage and maintaining mask selectivity.

Multi-zoned gas injection directs reactive gases to specific substrate regions, resolving edge-to-center uniformity variations in semiconductor manufacturing.

A temperature-controlled gas distribution showerhead circulates fluid through internal conduits to manage thermal conditions during deposition.

Angularly offset lugs and cutouts in a keyed lamp socket prevent incompatible wattage bulbs, avoiding thermal damage.

A scanning electron microscope corrects image drift between field images to form clear frame images.

An inductive coupling structure generates plasma to deposit uniform films on high aspect ratio grooves.

A beam modifier device scatters particle beams to create graded dopant profiles in silicon carbide substrates.

Applying a high-power RF pulse stabilizes plasma ignition while maintaining low base power prevents dopant implantation and substrate oxidation.

Segmented processing uses a charged particle beam mask to overcome laser wavelength limits, improving lateral resolution and aspect ratios.

A semiconductor chiller merges cooling and heating circuits into one unit to regulate coolant water temperature.

SiF4 gas flow ratios improve mask selectivity while maintaining in-plane uniformity during semiconductor microfabrication.

Chemically textured silicon liners retain deposited coatings via micropyramid structures, eliminating graphite particulation and downstream contamination.

A semiconductor exhaust cleaning system uses targeted gas supply to remove byproducts from the pipe interior.

Ion-doped patterned self-assembled monolayers guide selective atomic layer deposition, resolving non-selective deposition on single-material substrates.

Temporally and spatially controllable magnetic fields guide the cathode arc spot along predetermined tracks to ensure homogeneous material removal.

Adding argon to remote plasma oxidation reduces oxygen radical recombination, enabling conformal oxide films in high aspect ratio structures.

A thermotunneling device uses a vacuum nanogap to interrupt phonon flow while allowing electron transport between hot and cold plates.

A transmission charged particle microscope adjusts beam energy spread using a condenser lens assembly and variable virtual aperture.