Electric Discharge Tubes TRIZ Cases

An inductive circuit coupled to a dielectric liner electrode reduces electric field amplitude, preventing outer region plasma ignition.

Cooling gas injectors resolve temperature adjustment speed bottlenecks by enabling rapid substrate cooling between ALD steps.

Segmented gas nozzles on a rotating turntable maintain film-thickness distribution and purity while increasing throughput during high-speed deposition.

A position adjustment mechanism corrects ion beam center shifts caused by attaching errors to improve surface processing accuracy.

Integrated vector field imaging separates depth-resolved signals in charged-particle microscopy using segmented detectors and linear deconvolution.

Segmented conductive layers define aperture geometry independently of the substrate, reducing ion beam erosion and extending component lifespan.

An inspection device merges electron and laser emitters to generate electrical signals in semiconductor samples.

Replacing toxic metals with zinc and boron oxides enables reliable adhesion while meeting environmental safety standards.

Multiple radial gas supply parts adjust conditions to balance diffusion and flow, resolving non-uniform radical distribution across the wafer plane.

Remote plasma fluorine etching uniformly recesses tungsten slabs while suppressing electron temperature to prevent physical damage.

A lining ring assembly creates a flow uniformizing cavity to transport processing gas into the reaction compartment.

An asymmetric partition wall design resolves the trade-off between thin film strength and electron detection efficiency in atmospheric observation.

An adjustable magnetron assembly moves magnet bars via an actuation mechanism to maintain magnetic flux adequacy as the target erodes.

Lateral shielding portions prevent tool extension beyond the insert periphery, eliminating abrasive contact between securing hardware and electrode material.

A compressive sensing system acquires undersampled electron beam projections to reconstruct high-resolution structural images.

Staggered electrical connector terminals enable flexible insertion directions and enhanced normal force through extended elastic arms.

A disk-shaped shield positioned between an annular plasma source and substrate reduces film thickness variation below 6% while maintaining deposition rates.

A programmable correction plate diverts always-on beamlets using electrostatic electrodes to block defective paths.

Segmented tapered crucible walls extend operation time by accommodating more solid aluminum without obstructing vapor flow.

A repeating setpoint generator module varies output parameters across successive time intervals to manage power delivery.

Floating plates and anti-rotation retainers mitigate thermal cycling stresses in wafer-processing pedestal electrode connections.

Beveled peripheral edge and concave sidewall on alignment pins reduce plasma arcing during high-frequency RF deposition.

A second objective lens positioned opposite the sample enables simultaneous dual-lens operation in scanning electron microscopes.

A heat-conducting anisotropic material layer manages thermal gradients between adjacent temperature zones.

Segmented RF power cycles balance film formation efficiency with stress uniformity, reducing line edge roughness.

Nested graphite heat sink dissipates LED thermal energy within standard Edison bulb housing, resolving space constraints that limit heat dissipation.

Dual-layer carbon deposition fills substrate recesses with distinct density profiles, eliminating surface roughness and reducing critical dimension variations.

Adjusting electrostatic chuck temperature from low etching to high cleaning phases increases deposit removal rates and reduces chamber maintenance downtime.

A patterning system design method incorporates fidelity metrics into parameter optimization.

A charged particle beam writing apparatus divides regions based on pattern density to optimize data processing efficiency.

A thin film forming apparatus uses a guide to direct particulate material onto substrate surfaces, ensuring uniform deposition and reducing production time.

Heating silicon oxide films after plasma etching restores electrical characteristics.

Fast valves and equal-conductance orifices in the manifold improve gas delivery precision while reducing system complexity and cost.

Field emitter arrays with individually switchable electron sources enable dynamic pattern writing.

An automated system slices samples into thin sections, uses fluid flow to sequence them, and mounts them on holders to reduce manual labor.

Optical detection replaces mechanical checks to resolve cartridge attachment uncertainty during cryogenic sample handling.

Opposing magnetic lenses cancel harmful fields at the sample plane, enabling high-resolution imaging of sensitive magnetic materials without damage.

A plasma processing apparatus applies DC voltage to an outer peripheral member to control silicon deposition on wafer edge regions.

A linear actuator uses a vacuum bellows to seal the environment while conducting high frequency signals through an insulated shaft.

Plasma dicing silicon carbide wafers with an etch stop layer prevents mechanical defects and tool wear while enabling high-rate mass production.

A substrate treatment method uses organic solvent surface modification to align block copolymer phase separation on semiconductor wafers.

Modulating ion beam acceleration energy during substrate movement creates smooth doping profiles, reducing thermal budget and eliminating end-of-range peaks.

A dual-wavelength optical apparatus measures semiconductor substrate thickness and temperature simultaneously using split interference light paths.

A steam plasma torch refines upgraded metallurgical grade silicon using reactive gas injection within a vacuum chamber.

A cooling device uses a cold finger to thermally connect a sample table to a coolant container for precise temperature control.

Internal trapping tower with disc-type units captures reaction by-products as a thin film.

Segmented cooling cells compensate for chamber asymmetries to achieve temperature uniformity within ±1 degree Celsius across the substrate surface.

Burn-off particles in a ceramic mixture paste reduce shrinkage to 1% or less, preventing porous body displacement from through holes.