Electric Discharge Tubes TRIZ Cases

Segmented rings with expansion gaps divert thermal energy to prevent window breakage in high-power plasma systems.

Placing absorbed current detectors within the vacuum specimen chamber reduces stray capacitance, enabling accurate high-frequency signal measurement.

Non-overlapping variable shaped beam shots use varying dosages to reduce write time and computational complexity while maintaining pattern accuracy.

A pre-oxide layer on CVD chamber walls prevents particle contamination from stripping during high-power plasma deposition, improving yield.

Atomic layer etching calculates synergy between modification and removal gases to maximize the process window while preventing sputtering damage.

Segmented socket geometry eliminates shadow projections by reducing the housing profile in the light path.

Atomic layer etching with a conformal protective film reduces line width roughness and stabilizes pattern density variations in EUV lithography.

Ion-implanted nanoparticles release ions at specific temperatures to detect thermal events, replacing costly non-destructive testing methods.

A plasma generation device circulates cooling fluid through heat sinks to absorb discharge heat and emits the warmed gas onto processing objects.

Annealing refractory metals into a macrocrystalline structure resolves erosion and efficiency trade-offs in ion sources.

A Mn-Zn-W-O sputtering target uses wet mixing and high-temperature sintering to form a composite material with improved mechanical integrity.

An integrated anode and gas concentrator structure directs ionization near the sample surface for charge neutralization.

Controller lowers heat transfer gas pressure before processing to remove moisture, preventing abnormal discharge.

Differential amplification detects ground potential variations to correct control signals, preventing electron beam irradiation accuracy deterioration.

Intermediary Faraday cup captures ion beam signals during implantation for immediate parameter adjustment.

A charged particle beam treatment apparatus adjusts beam current values dynamically to optimize dose delivery across different target regions.

A low-profile electrical connector uses a sliding top housing to secure an electronic package via horizontal and vertical movement.

Applying a nano-scale multilayer diamond-like carbon film to polyethylene joint cups prevents substrate thermal damage while boosting wear resistance.

A flow distribution plate mixes oxygen and hydrogen with fluorine radicals to form hydrogen fluoride for substrate processing.

A substrate processing apparatus deposits silicon carbonitride films using alternating precursor and modifying gas cycles to achieve high carbon content.

A substrate processing method adjusts high-frequency waves based on measured charging conditions to form uniform films.

A dual-antenna plasma generating unit excites gas into plasma state using electromagnetic induction.

A scanning electron microscope signal processing unit switches frequency bands to match beam speed.

Automatic aberration-correcting device learns optimum adjustment procedures using reinforcement learning.

Segmenting dielectric etching into high-energy capacitive and low-energy inductive stages prevents ion bombardment damage to underlying semiconductor material.

Lanthanated tungsten cathodes resist fluorine corrosion by forming stable oxide layers, extending ion source lifetime and beam stability.

A monitoring apparatus calculates output electron beam quality from input parameters and lens operation data to determine calibration needs.

Simulated TEM images from a parametrized 3D model fit measured data with weighted regions, resolving low contrast noise in semiconductor metrology.

A movable shower head alters gas flow paths to resolve residual gas retention in plenum regions that prolongs switching time.

A charged particle beam device coil generates a parallel magnetic field to rotate primary sub-beams for precise spot targeting.

A semiconductor gas inlet mechanism uses switch elements to isolate a uniform-flow chamber from the reaction vessel during idle periods.

Biasing the collimator creates an electric field that facilitates plasma breakdown at low power, reducing ignition retries and particle contamination.