Electric Discharge Tubes TRIZ Cases

An ion implanting system electrode assembly adjusts beam energy via applied voltage.

A focused mixed ion beam uses light and heavy species to mill surfaces while imaging subsurface features simultaneously.

X-ray detectors capture channeling emissions to measure incident angles, resolving Rutherford Backscattering limitations for heavier ions.

Adjustable reflectors compensate for lack of rotation to maintain temperature uniformity in vacuum processing chambers.

Electron beam excitation forms radicals that selectively remove dielectric layers, enabling accurate defect diagnosis without destroying the device structure.

A wafer carrying apparatus adjusts the edge protection ring position vertically to maintain a precise gap during semiconductor processing.

Spatial wafer processing aligns station temperatures and emissivity to eliminate non-uniformity during rapid transfer, ensuring consistent film quality.

A hybrid plasma chamber uses a movable chuck to process substrates without complex RF wiring.

Cryogenic dual-frequency plasma etching suppresses hydrocarbon deposition to prevent mask clogging and surface roughening during silicon oxide processing.

A vacuum sample chamber uses a detachable holder to transmit light without inserting optical tubes.

Dual scintillators detect secondary and backscattered electrons via distinct light colors for precise overlay imaging.

Segmented electrodes maintain uniform energy distribution across extended lengths, resolving trade-offs between coverage area and beam quality.

Rotating calculated patterns aligns non-smooth boundaries with beam shots, simplifying revision and improving manufacturing precision.

Electromagnets create horizontal magnetic fields to boost plasma density, reducing ion energy and preventing unwanted silicon nitride etching.

Graphite electrodes create opposing fields to decelerate scattered ions, preventing secondary contamination during large-area implantation.

A composite fiber-reinforced lid design with chemically-resistant plastic layers.

Vortex cooling stabilizes electrode temperature, preventing rapid wear from high heat during atmospheric pressure plasma generation.

Adding tungsten or molybdenum to a Mn-Zn-O target prevents anomalous discharge during DC sputtering.

Optimized magnetron and substrate distances extend gold target lifetime by resolving the trade-off between high throughput and erosion uniformity.

A scanning electron microscopy system acquires complementary images in opposite scan directions and combines them to generate a composite image.

Transparent top electrodes pass infrared energy through quartz to heat substrates, reducing thermal cycle time and improving uniformity in plasma etching.

A non-plasma etch process uses halogen-containing gases to selectively remove titanium material layers.

Direct workpiece surface sensing eliminates support decoupling errors during ion implantation processes.

Inverting deposition to the back surface corrects front-side film stress, preventing distortion and bonding defects.

A beam tilt lens uses independent coils to focus and incline a charged particle beam simultaneously.

Segmented pressure zones and an intermediary membrane allow secondary electron observation while maintaining atmospheric pressure around the sample.

A stinger with a reduced area contact interface manages thermal stress on the cathode.

A vacuum stage mechanism uses a heat pipe to transfer thermal energy from a mounted heat source to an external cooling unit.

A beam cross-section deformation device shapes charged particle beams into anisotropic profiles to enhance current values in exposure systems.

A device determines particle number distributions at sampling points to optimize dose delivery in target volumes.

A height adjustment member defines the optical reference point for precise sample positioning in charged particle beam observation systems.

A plasma ion source uses an electrode with through-holes smaller than the plasma sheath length to maintain insulation properties.

Dynamic focus correction compensates for beam distortion across wide fields, maintaining shape uniformity without repeated stage movements.

Hardware logic bypasses the processor in a network switch to provide direct power, ensuring UL924 compliance when software fails.

Porous anodized aluminum oxide membranes eliminate amorphous carbon interference to enable high-resolution imaging of structures smaller than 5 nanometers.

Segmented scanning along adjacent partial paths reduces calibration time while maintaining measurement precision for laser processing systems.

A gas distribution plate assembly uses a silicon infiltrated metal matrix composite base plate coupled to a perforated silicon disk faceplate.

A coiled flexible tube member adapts its bend radius to accommodate rotating platen movement, preventing cryogenic fluid leakage during ion implantation cycles.

A control circuit switches from current to power regulation during emergency lighting mode.

Extended coolant passages in shield plates prevent gas discharge and maintain uniform aluminum film quality by suppressing local temperature rise.

Cutting trims sputtered grains from the coil while re-knurling restores texture, eliminating particle generation and arcing risks.

Propagates corner metadata through fractured geometry streams to resolve manufacturing precision trade-offs and enhance pattern fidelity.

A temperature adjusting mechanism compensates for upper electrode heat accumulation during plasma processing.

Blocking filters and variable capacitors in a harmonic control unit remove specific RF harmonics, improving plasma density uniformity during substrate etching.

Controlled passivation prevents catastrophic undercut during tantalum nitride etching, maintaining critical dimensions for functional semiconductor devices.

A mixed acid cleaning assembly segments showerhead electrode volumes to pressurize acidic solutions through gas passages for thorough internal rinsing.

Reverse ion sputtering cleans shadowed electrode surfaces in situ, eliminating maintenance downtime and reducing particulate contamination on wafers.

A plasma cord coating device uses conveyor foils to transport cords through a dielectric barrier discharge zone.