Electric Discharge Tubes TRIZ Cases

A switching manifold directs precursor and inhibitor gases to control deposition sequences in atomic layer deposition processes.

Protrusion-recess interfaces absorb differential thermal expansion forces, preventing ceramic damage during high-temperature processing cycles.

Forming a protective SixNy film on silicon surfaces before plasma exposure prevents material loss during photoresist removal.

Multi-charged-particle-beam writing apparatus uses inspection aperture plates and current detectors to measure beam vibration.

Adjusting substrate speed compensates for deposition rate variations to maintain uniformity below 0.1% across large areas.

A replaceable liner in a multi-cathode PVD chamber absorbs unbalanced silicon and molybdenum stress, preventing defects on EUV mask blanks.

Helium-argon gas mixture enhances secondary electron emission to improve metal sidewall coverage, avoiding film stress from high DC bias voltages.

A remote plasma etching method flows fluorine effluents and hydrogen precursors to remove silicon oxide from semiconductor substrates.

A charged particle beam lithography method determines overlapping shots to reduce sensitivity to beam blur variations.

Staged RF power and gas flow adjustments in PECVD silicon nitride deposition reduce etch rates to ALD levels while maintaining high throughput.

A segmented mask with a silicon nitride layer and gold coating resolves the contradiction between small feature size and electron penetration in lithography.

A reactive gas injector delivers high-pressure reactants locally to a substrate surface while maintaining low pressure in the processing chamber.

Mixed grain size powders enable stable high-speed deposition by suppressing particle generation in high purity targets.

Gas through-holes in the stage detect holding sheet crimping via pressure regulation, preventing uneven etching during plasma treatment.

Annular electrode deflects beamlets into a dump structure, resolving charging artifacts on non-conductive areas during high-throughput inspection.

A pulsed radio frequency system modulates duty cycles to stabilize hole dimensions during semiconductor processing.

A plasma modified field coupling mechanism generates therapeutic electromagnetic energy using ferroelectric or piezoelectric elements.

An overmolded adapter integrates XOR logic to enable flashing signals on standard single intensity lamps.

A charged particle beam detection unit combines analog processing and pulse counting to enhance signal resolution.

Segmenting the keeper orifice into multiple openings reduces ignition gas flow while maintaining electrical conductance.

Thermal depolymerization of a pre-formed polymer film removes stubborn deposits from hard-to-reach plasma chamber surfaces without damaging components.

Independent center and edge gas feeds confine plasma treatment at the bevel edge, minimizing deposit accumulation that reduces usable substrate area.

A ground shield between conductive portions in a plasma supply unit prevents electromagnetic interference.

A convolution method calculates semiconductor design metrics using kernel functions and deformation shifts.

Dynamic plasma plume scanning maintains layer homogeneity while expanding the deposition area on large substrates.

Segmented gas introduction unit supplies ion implantation gas along the axial direction of a roller electrode to create uniform plasma density.

Gas cluster ion beam processing applies metrology-based correction data to substrates for precise surface modification.

A filter shields sample light from interfering with backscattered electron detection during heating.

Varying base dosage levels across multiple exposure passes reduce shot counts and processing time while maintaining pattern precision.

Adjustable substrate stage distance creates separate plasma zones, resolving the contradiction between wafer damage reduction and pre-treatment effectiveness.

A three-dimensional shape detection apparatus measures spectral reflection intensity to isolate target pattern dimensions from surrounding structures.

Oxide additives in the CoPt sputtering target separate crystal grains to maintain thermal stability during recording density increases.

A plasma processing method applies DC voltage to an edge ring while generating plasma inside a chamber.

Offset sheet metal contacts resolve the contradiction between high current flow capability and compact connector size.

Segmenting the thermal interface isolates the gasket from showerhead passages, preventing process gas contamination while maintaining efficient heat transfer.

Segmented plasma sources enable uniform crystallization of semiconductor films while preventing substrate damage from prolonged thermal exposure.

Rounded top corners on textured process chamber surfaces prevent cracking and flaking of accumulated residues.

A sensor head conceals bonding wires beneath the detection area to maximize radiation capture.

A one-molecular-layer protective film forms on recess side walls to enable precise plasma etching of target films.

Elastic portions of a metallic shell enclose an insulative housing to reduce manufacturing costs by eliminating precise plastic molding requirements.

Sulfur fluoride plasma etches laminated silicon films at sub-zero temperatures, suppressing side etching while maintaining high productivity.

A VHM end mill uses a TiAlN-ZrN multilayer coating deposited by high-power impulse magnetron sputtering to achieve fine layer structures.

Selective reduction of oxidized magnetic films using formic acid gas suppresses hydrogen plasma damage on magnesium oxide layers during dry etching.

A specimen holder integrates electrical contacts into its clipping mechanism for secure mounting.

Liquid or solid heat transfer media replace gas interfaces to resolve insufficient thermal conductivity during high-heat plasma processing.

Segmenting antenna functions into low and high frequency units resolves energy loss from asymmetric plasma generation while stabilizing ignition.

A dynamic electron beam drift correction method adjusts intervals based on real-time disturbance factors to maintain pattern accuracy.

Injector flange covers window plate fastening hole to protect vulnerable regions from plasma damage.