Electric Discharge Tubes TRIZ Cases

Distributed exhaust apertures and controllable valves create uniform chamber cleaning while maintaining efficient contaminant removal.

A micromanipulator-held doped semiconductor hardmask protects the cut edge during FIB cross-sectioning without deposition time or surface contamination.

Electrostatic flyback repositions the beam between scan lines, cutting magnetic deflector wait time to reduce distortion, blur, and sample damage.

Plasma functional groups bond to silicon- or carbon-based surfaces to improve metal photoresist adhesion, cut defects, and lower EUV dose.

Surface oxidation forms a controllable oxide layer before COR etching, enabling precise silicon nitride removal with simpler process control.

Series-connected fixed and weighted amplifier modules extend RF dynamic range beyond 20 dB and enable pulses below 20 RF cycles for etch control.

Elongated radial slit flow paths and narrowed gas passages lower pressure inside the shower head to prevent abnormal discharge and keep gas supply stable.

A port insert redirects process gas and increases clearance to limit back diffusion, abrasion, particulates, and showerhead degradation.

Multi-channel plasma flow heats both workpiece edge sides in one pass, improving smoothness while limiting thermal deformation and breakage.

A radially tapered upper electrode reshapes the electric field to reduce center-peaked plasma density, improving etch uniformity and profile tilt.

Arc-shaped electrode pairs around through holes reduce stress concentration and breakage while improving electron beam deflection control.

A hole-free baffle and tuned vessel spacing raise plasma density and energy, improving semiconductor substrate processing throughput.

A tuning electrode between target and substrate cuts negative ion energy, improving AZO film resistivity uniformity and surface homogeneity.

Automated prior-cycle emission current setting keeps spectacle lens coating rates on target while reducing manual tuning and downtime.

Cyclic PVD deposition and etching keep trench openings from pinching off, enabling void-free fill of high-aspect-ratio gaps in optical devices.

Remote plasma supplies cleaning species while in-situ plasma boosts local activation for faster, more complete CVD chamber residue removal.

Specific BCl3, H2, and inert gas ratios help etch high-Sc AlScN while preserving metal underlayers and sidewall angles.

Electrical bias on the sample stage deflects the ion beam to enable low-angle milling of larger samples with flatter, cleaner results.

Frequency-domain analysis of plasma emissions enables real-time surface feedback to stabilize discharge power and prevent damage.

Iterative tuning of shared control parameters cuts multi-beam distortion by measuring beam response and predicting better settings.

Paired emitting and receiving fibers at near-opposed angles improve light throughput and spectral fidelity for more accurate etch endpoint detection.

Independent flow control across multiple fixture cavities enables uniform removal of uneven deposits while protecting the showerhead plate.

Dual optical and electron-readable GUIDs let cryo-EM sample grids stay identifiable after vitrification, reducing tracking errors.

Magnetic levitation replaces robots and conveyors to cut particle generation, shrink footprint, and speed substrate transfer in process stations.

A toroidal plasma source with segmented plasma legs concentrates RF energy to improve NF3 dissociation while cutting power use and gas flow.

An in-chamber microplasma source dissociates ALD precursors at high pressure, reducing substrate heating, layer intermixing, and external plasma complexity.

Real-time impedance sensing and synchronized VHF frequency tuning reduce MF-driven plasma load modulation and stabilize power delivery.

A transfer device swaps focus rings and cleans the mount table without venting the chamber, cutting downtime and contamination risk.

Threshold-based process margin mapping sets inspection tool FOV by region to cut metrology time while preserving control accuracy.

Inhibitor adsorption and parallel energy removal shorten selective semiconductor material etching while preserving the underlying first material.

A conductive elastic contact keeps the shutter and baffle plate electrically connected during thermal expansion to suppress plasma leakage.

A lift pin shifts substrate height relative to the heater, enabling sequential etching and plasma annealing in one chamber without removal.

Nested vertical and horizontal plasma reactors improve center-to-edge control, plasma density, and etch rate uniformity.

A sheet sealing layer with aligned through holes prevents heat-transfer media and gas leaks while simplifying semiconductor pedestal assembly.

An insulating rotation mechanism and separate conductive path ground a rotating plasma nozzle without current through bearings, extending service life.

An ionic liquid film cushions the substrate on an electrostatic chuck to prevent scratches while preserving flatness and stable adsorption.

Direct-drive RF supplies and reactive circuits feed both coil ends symmetrically, removing cables and matching networks for precise plasma power control.

A static magnetron with rotating substrate supports improves vacuum coating uniformity without the complexity of rotating magnets.

Sequential aluminum deposition and annealing protect nickel semiconductor components from hot gases and reactive chemicals.

Reversed e-beam current reflects electrons onto the extractor to desorb chemisorbed radicals, cutting outgassing and emission noise.

A movable interface isolates socket contacts until bulb mounting completes the mechanical lock and electrical connection, reducing shock risk.

A restrained carrier and piezoelectric actuator maintain precise workpiece positioning on inclined guides while avoiding motor wear and beam interference.

Sequential DC supply across electrostatic chuck heater groups cuts peak power demand while preserving zone temperature control in plasma processing.

A halogen-free protective film on chamber inner members stabilizes etching rates and reduces plasma-induced chamber damage.

Dynamic objective-lens calibration keeps charged particle beam images in focus across uneven sample surfaces, improving metrology speed and accuracy.

Switchable aperture patterns let one charged particle column maintain resolution across beam currents while improving inspection throughput.

Measured site vibrations feed a simulation model to predict particle beam image distortion and guide parameter settings before installation.

Parallel rows of substrate process modules raise tool density while keeping RF, gas, and maintenance access organized in less fab floor space.

Simultaneous corona charging and SHG measurement enables non-contact wafer electrical testing without grounding, movement, damage, or contamination.

Symmetric choke plate protrusions and a pumping liner even out lid stack heat transfer, cutting thermal non-uniformity and power loss.