Electric Discharge Tubes TRIZ Cases

A circular groove distributes purge gas across the wafer back surface to maintain uniform temperature.

A beam trap redirects electron beams to maintain chamber temperature during coating operations.

Segmented plasma grids decouple generation from treatment zones, resolving the trade-off between etching rate and center-to-edge uniformity.

Burying a dielectric in the movable upper electrode divides potential differences to enable uniform plasma density across the processing space.

Segmented microwave transmitting windows achieve uniform plasma distribution without complex antenna redesigns.

A lead frame unit forms multiple heat-conducting paths between a base plate and a casing part to dissipate thermal energy from an LED package.

An asymmetric coupling ring with varying thickness distributes electric fields uniformly across the substrate, resolving thin film deposition inconsistencies.

Remote plasma oxidation modifies titanium nitride surfaces, enabling selective halogen etching that reduces substrate damage and lowers thermal budget.

A nonsinusoidal bias voltage with a ramp portion controls ion energy distribution at the substrate surface.

A remote arc discharge plasma assembly confines high-density ionized jets to enhance coating deposition uniformity.

A silicon nitride film forming method deposits layers by alternating silicon raw material supply and ammonia physical adsorption.

High dielectric strength solid insulators enable 600 kV terminal energization, eliminating bulky air-insulated enclosures.

Simulated pattern difference extraction modifies design parameters to match light exposure shapes, eliminating reticle costs for small quantity production.

Rotating the substrate during relative motion eliminates multiple passes and complex velocity control, increasing throughput and uniformity.

Necked boron carbide particles create a dense microstructure that prevents particle formation and maintains thermal stability during plasma etching.

Titanium doped vanadium dioxide absorbs heat through phase transition while resisting moisture induced oxidation and hydroxylation.

A wafer chuck supports the device along its outer perimeter while maintaining a gap between the chuck and the front side.

An elastic clamping mechanism secures specimen mesh in a holder tip, reducing manual handling damage and contamination risks during electron microscopy.

Segmented branch lines and a buffer unit suppress flow rate variations between supply lines, enabling uniform gas distribution without increasing line length.

Dynamic impedance conversion across distinct frequency bands resolves matching contradictions, boosting etching rates and electron density.

Low-temperature tungsten film formation eliminates temperature changes, increasing silicon-containing film etching rates and throughput.

A susceptor cover uses larger through-holes to align with the underlying heating element.

Scanning an ion beam at higher frequencies during profiling reduces dosimetry integration time while maintaining accuracy through composite profile synthesis.

Isotropic oxidation at 100°C or lower forms a smooth oxide layer, which complexation gas removes via sublimation at 150°C to 250°C to reduce surface roughness.

Aperture array and cup electrodes direct ion beams while magnets suppress secondary particles to prevent measurement errors.

Sealed chamber structure maintains distinct pressure environments for atomic particle detection and high voltage electronics.

Diamond-like carbon coating on polymer film substrate replaces aluminum foil to reduce production costs while maintaining oxygen transmission rate performance.

Periodic microwave heating sublimates low-volatility by-products like ammonium fluorosilicate, maintaining plasma stability and preventing shape deterioration.

Sequential pre-coating films with adjusted gas flow ratios reduce particle generation while maintaining strong film adhesion.

A removable deposition barrier intercepts sputtered particles within the plasma processing chamber to protect critical interior surfaces.

An electron microscope adjusts detector offset via a noise canceling circuit to reduce image noise.

Factory interface robot positions carrier within FOUP, eliminating real-time alignment delays during processing.

Elastic strut members stabilize a dual-carriage electron microscope stage, reducing vibrations that degrade imaging resolution.

A scheduling engine routes pattern data packets across multiple output buffers based on real-time vacancy levels to maintain high-speed transmission.

Immersion eliminates quartz window erosion and reduces RF current needs by positioning the source coil inside the chamber near the substrate.

Segmented housing and bracket structure isolates terminal rows to prevent signal interference in high-speed connectors.

Control cleaning gas density and quantity in processing chamber regions to prevent by-product adherence and ensure consistent substrate quality.

Fluorine plasma conditions chamber walls to inhibit nucleation at feature openings, preventing voids and seams in high aspect ratio fills.

Self-organized plasma patterns in saline create selective reactive species that target cancer cells while sparing normal tissue.

Solenoid fringe field accelerates ions via Hall effect, neutralizing space charge to resolve beam divergence and angular momentum trade-offs.

Reflective member scans linear ranges to calculate positional relationship between focus ring and object, ensuring in-plane uniformity during plasma processing.

Segmented heater elements with independent power lines prevent contact failures during continuous operation.

A sample analyzer uses dual energy beams and separate sensors to detect reflected and transmitted signals during phase changes.

Segmenting plasma generation into a remote chamber eliminates electric arcs at the substrate interface while maintaining high ionization rates.

Simultaneous plasma etching and target conditioning reduce total processing time without compromising layer adhesion.

A semiconductor manufacturing device calculates particle sticking probability to adjust chamber parameters.

Rotatable pins and biased conductors enable orientation adjustment within legacy fluorescent fixtures without specialized tools.

Segmenting the chuck into thermal zones with independent heaters resolves center-to-edge temperature gradients that degrade processing uniformity.

Error detection circuitry monitors blanking control data in buffer stages and triggers retransmission to prevent pattern errors.

Segmented electrode group applies shifted AC phases to boost plasma density and source gas reactivity, resolving low deposition rate bottlenecks.