Electric Discharge Tubes TRIZ Cases

Divided magnetic core layers reduce thermal deviation in plasma reaction apparatuses to stabilize ignition.

Reactive magnetron sputtering creates a CeOx coating resolving polymer wear limitations through composite inorganic matrix stability.

Complementary gas flow patterns from rotated diffusers eliminate purge times, boosting throughput while maintaining film uniformity.

A coaxial air-core filter circuit stabilizes frequency characteristics in plasma processing heater power supply lines.

A magnetron sputter system uses shared magnetic field lines to confine plasma across multiple target units.

Segmented cathodes and a straight lower shield reduce particle defects while maintaining optimal temperature control.

An adjustable shielding member modifies the aperture area and shape between the sputter target and substrate to control material flow.

Microwave hydrogen plasma removes surface hydrogens from silicon nitride films to improve etching selectivity.

Locating notch and positioning block prevent relative movement between connector body and metal shielding shell during insertion.

Dynamic angle adjustment via an elongate source and shielding aperture resolves homogeneous thickness challenges in oblique incidence manufacturing.

Differential thermal expansion between composite gas passage sections sheds deposited metal films, preventing blockage and maintaining deposition efficiency.

A diamond-like carbon film forming apparatus applies pulsed power to deposit homogeneous films on substrates.

Plasma functionalizes 3D graphene particles in-situ to bond with resin binders, preventing carbon agglomeration and improving mechanical strength.

Fluorocarbon precursor deposition enables selective etching of silicon nitride over oxide using inert plasma, reducing particle generation.

Transition metal dopant atoms between graphene layers facilitate strong pi-electron delocalization and d-electron localization near the Fermi level.

A charged particle beam drawing device generates pattern data dynamically using a program that specifies figure types and regular arrangements.

Remote plasma etching removes titanium nitride hardmasks using chlorine effluents.

Doping material layers using energetic charged particles modifies etch resistance and selectivity.

Molybdenum alloy sputtering targets deposit conductive layers that prevent undercutting during etching.

Periodic plasma activation during deposition improves step coverage in high aspect ratio trenches while preventing void formation.

A magnetized sputter device generates high-density plasma via electron cyclotron resonance to deposit inorganic films.

Non-overlapping concentric slot pairs boost radiation electric field intensity, resolving plasma stability issues when using negative gases.

Sputtered yttrium oxide films with optimized pore size and distribution reduce particle generation while maintaining adhesion strength.

Writing data processing control apparatus detects errors in parallel units and reassigns tasks to maintain continuous operation.

Alternating deflection patterns remove crucible residues, preventing shading effects that obstruct the electron beam.

A multi-charged particle beam writing apparatus uses measurement beams and mark members to detect position deviations.

An asymmetric stamped fixing ring reduces material usage while maintaining structural stability for various burner configurations.

Electrical signal spectral analysis extracts plasma discharge properties using Fast Fourier Transform evaluation of dielectric displacement current.

A thin graphene pellicle shields the detector from kinetic and thermal energy damage without impairing electron detection accuracy.

A method using ozone etching to remove ruthenium layers and hydrogen radical treatment to clean copper surfaces.

A thermally conductive unit transfers heat from source ICs to a bottom case using elastic pads and a metallic plate.

Terminal return current measurements adjust ion beam scanning speed to maintain dose uniformity across wafers.

Side-mounted ion sources at controlled angles improve film homogeneity and refractive index consistency while reducing production costs.

A plasma processing apparatus uses a reversing unit to invert coolant flow direction through dedicated spiral paths in the lower electrode.

Independent flow control in a dual zone gas injection nozzle compensates for radial non-uniformities in plasma ion density across large substrates.

Coordinated multi-beamlet arrays average performance variations to maintain uniform exposure while reducing device complexity.

A non-oxidizing plasma method removes photoresist from semiconductor substrates using a downstream inductively coupled source.

A dielectric layer mediates electrostatic coupling between hot and cold surfaces to boost power throughput while reducing fabrication complexity.

Segmented magnetron cavities minimize cross talk interference while closed loop control ensures uniform UV dosage across the wafer.

Symmetrical resonance circuit balances voltage distribution to reduce vacuum chamber wear.

Angle discrimination images from a scanning electron microscope estimate side wall shapes without destructive sample preparation.

Segmented electrode plates compensate for capacitance variations caused by mechanical distortions, maintaining high power supply efficiency.

Composite oxide sintered bodies combine bixbyite and garnet phases to prevent micro-cracks during high-power sputtering.

A plasma enhanced chemical vapor deposition apparatus positions the substrate between the monomer discharge source and the plasma generation source.

A thermal silicon etch process uses fluorine-containing precursors to remove polysilicon at high rates without plasma contact.

A radiation imaging apparatus features a detachable lever input unit mounted on a rail to maintain ergonomic positioning.

Segmented conductive element uses elastic restoring force to maintain contact pressure, preventing solder skip and short defects during assembly.

Moves electrical contacts under vacuum pressure to improve heat dissipation, increasing sputtering rates while maintaining system reliability.

A movable oxidation head integrates metal sputtering and gas-phase oxidation within a single processing chamber.