Electric Discharge Tubes TRIZ Cases

A gas processing apparatus integrates a through-hole and pressing part to compress an annular sealing member against the injector.

Insulating modifiers shape the plasma sheath to direct ions at varied incident angles.

A cover plate with a flange and upper wall shields the substrate support platen from halogen-based contaminant build-up during cleaning cycles.

Segmented center and edge coils adjust independently to correct plasma density non-uniformity in semiconductor processing.

A tantalum sputtering target incorporates niobium and tungsten to stabilize plasma during deposition.

A load driving apparatus generates integer and fractional signals to control LED brightness with high precision.

Integrating analog and digital control modules reduces wiring complexity, enabling precise mechanical arm feedback for efficient semiconductor processing.

Segmented electrode design with independent DC control adjusts frequency-impedance characteristics to resolve in-plane non-uniformity and charge-up damages.

Reducing feature sizes and adjusting exposure doses in overlap areas maintains critical dimension uniformity without throughput penalties.

A movable limiting aperture compensates for chromatic aberration differences between high and low emission currents, maintaining resolution consistency.

Plasma dicing separates semiconductor substrates via reactive ion etching, reducing die breakage and processing time while maintaining substrate integrity.

An optical pyrometer measures workpiece temperature to dynamically adjust a heated chuck, resolving slow thermocouple response times.

Using insulating structures as alignment marks during epitaxial growth enables accurate diffraction grating patterning without degrading device reliability.

A charged particle beam deflector evaluation method uses pattern intervals to measure settling time shifts.

Detective pin contacts grounded shell to identify insertion direction, enabling selective activation of USB 2.0 or 3.0 terminals for reliable communication.

A carrier proximity mask suspends substrates between two bodies to enable non-contact processing.

An integrated cooling flange maintains connector temperatures below 50°C, resolving heat buildup that compromises operational stability and lifespan.

Fixed posts and resilient contacts distribute electrical paths across the pedestal, resolving non-uniform contact issues from non-conforming carriers.

A charged particle beam system segments incoming beams into spatially separated beamlets using a multi-beam generator and objective lens.

A non-planar lithium sputter target with a textured backing plate compensates for plasma density variations to achieve uniform deposition.

A directional coupler uses a backside sensor line to detect power signals through electromagnetic induction.

Adjustable geometry variables in a microwave cavity plasma reactor enable precise control of the plasma discharge position and power coupling.

A light source and detector system analyze the matrix layer of biological samples to determine thickness and contamination levels in real time.

A plasma treatment device uses a bias power supply to control surface wave attenuation across a circular upper electrode.

Ex situ electron beam irradiation with gas drivers separates petroleum hydrocarbons from soil, reducing treatment time and costs.

Adjustable dual linings block transfer openings to prevent wall etching and maintain plasma confinement for uniform wafer processing.

Alternating adsorption and desorption plasma states removes substrate monolayers while preventing profile variation and substrate damage.

Variable force pins prevent resist damage and dust by adapting contact pressure to material thickness.

Calculation circuit acquires reflected wave power to determine optimal radio-frequency set parameters for plasma processing.

Triangular waveform scanning acquires data during forward and backward beam movements, eliminating high slew rate retrace requirements.

PVD deposition with substrate annealing migrates copper into fine trenches, eliminating voids and removing the need for plating equipment.

Superimposing pulsed current on direct current stabilizes the arc discharge, reducing spatter formation and thermal stress during insulating layer deposition.

A parallel HPF and low-pass circuit detect RF bias parameters without expensive matcher modules, reducing system costs.

A control model calculates actuator settings from optical emission intensity deviations, stabilizing plasma spectra during semiconductor manufacturing.

A mask fabrication method combining imprint lithography for repetitive patterns with electron beam writing for unique features.

A cross-beam system merges ion milling and electron monitoring to fabricate thin transmission electron microscopy specimens in a single vacuum chamber.

Voltage snapping aligns carbon nanotubes into needles, resolving manufacturing precision and controllability issues in field emission sources.

Segmented gas supply lines with isolation valves enable rapid gas replacement, reducing transition time and improving plasma processing throughput.

Segmented shadowing units adjust the plasma exclusion zone dynamically, resolving adaptability trade-offs while minimizing wafer defects in IC fabrication.

Standing wave lasers create an optical lattice to trap individual particles, resolving placement precision conflicts in single-layer manufacturing.

Varying surface dosage for pattern portions reduces sensitivity to beam blur variations, improving manufacturing precision in lithography.

Replacing magnetic collimators with electric field lenses reduces power consumption and equipment footprint while maintaining beam uniformity.

An unbalanced magnetron sputtering source integrates an isolated electrode driven by radio frequency power to enhance plasma density and ionization.

Mirror-symmetric sector magnets deflect charged particle beams to reduce optical aberrations in transmission electron microscopes.

A two-step voltage sequence attracts a substrate onto an electrostatic chuck using initial low and final high direct current potentials.

Dynamic smoothing parameters reduce data delay and improve the signal-to-noise ratio for precise changing point detection in plasma etching.

A tantalum sputtering target with controlled {100} crystal orientation and specific hardness improves film thickness uniformity during high-power deposition.

A dual-frequency plasma reactor uses ultra-low and high RF power to accelerate ions toward the substrate.

A hybrid substrate with a dielectric interlayer forms spectrally isolated optical transmission resonances through extraordinary optical transmission.