Electric Discharge Tubes TRIZ Cases

Layered electrode coatings suppress eddy currents and charge-up, keeping magnetic fields stable and reducing charged beam drift.

Recipe set values are adjusted to component deterioration tolerance, preventing abnormal discharge and avoiding plasma tool shutdowns.

Adjusting the carbon-to-fluorine ratio shapes protective polymer deposition during plasma etching, improving oxide opening uniformity and reducing substrate loss.

A flat carrier with minimal gripping arms keeps substrates on one support through multiple vacuum treatments, reducing breakage and contamination.

A floating-gate detector measures EUV, DUV, and e-beam intensity without detection power, enabling feedback to improve lithography uniformity.

Pre-process temperature sensing with plasma heating and cooling-gas purging stabilizes chamber conditions across multiple substrate lots.

Pressure switching in the vaporizer support space preserves crucible temperature during heating and speeds cooling after shutdown.

A shaped grounded shield cuts plasma potential difference in PVD chambers, reducing sputtering and contamination at high deposition rates.

Conductive sacrificial layers stabilize drift correction marks during focused particle beam defect repair while preventing electrostatic charging.

A grooved resonator array couples microwave energy into plasma beyond skin depth, reducing reflection at cutoff density and widening high-density processing.

Non-contact sensors track process kit ring erosion in situ, avoiding chamber venting, contamination, and downtime during replacement.

Modular imaging tools and automated substrate transfer enable dense cleanspace layouts with easier installation, replacement, and cleanroom upkeep.

Focused ion beam micromachining boosts contrast around the ROI, enabling precise cryo-lamella creation with less user input and contamination.

Pulse and slope circuits with inductive elements shape chamber bias to narrow ion energy spread and stabilize wafer plasma processing.

A two-stage grounding circuit clears residual electrode charge from heater leakage, enabling reliable electrostatic chuck substrate release.

Independent controllers preserve vacuum, temperature, and gas states through processing unit restarts, cutting setup time and part damage.

A current-probe feedback loop compensates parasitic loss at the impedance match output to stabilize delivered RF power across plasma chambers.

Variable dielectric levels shift microwave power between concentric waveguides to tune plasma uniformity and reduce charge-up damage.

Database-based temperature and flow tracking estimates precursor fill level and remaining time, helping maintain continuous gas feed.

Segmented clamping and heating electrodes improve plasma etch uniformity, temperature control, and sealing against gas leakage.

Adjustable multi-plate shielding changes slit width and target distance to control particle incidence for more uniform, selective sputtered films.

Radial purge gas nozzles form an air bearing that prevents lift pin binding and particle deposition during substrate transfer.

A perforated sloped annular ring redirects plasma and particles away from the wafer edge, reducing contamination during etching.

A machinable ceramic base with a plasma-resistant protective layer cuts corrosion and particle generation in semiconductor wafer supports.

A standardized EFEM uses modular tunnel and passthrough layouts to fit single, dual, or quad process chambers while preserving service access.

Plasma plus positive voltage pulses forms graphene on a carbon layer at lower temperatures, improving film uniformity and reducing transfer-related defects.

A single PVD chamber switches from inert-gas sputter cleaning to deposition to limit oxide regrowth on aluminum pads and lower contact resistance.

Segmented conductive enclosures isolate each ion energy sensor to prevent charge distortion and preserve true RF current flow in plasma measurements.

Negative pressure in a plasma-box nozzle guides cleaning gas to remove deposits, cut particle generation, and extend maintenance cycles.

Laser-shaped round light modulates electron beams to correct spherical aberration and image magnetically sensitive targets without complex lens control.

A single PVD chamber combines inert-gas ion cleaning and immediate deposition to limit aluminum pad oxide regrowth and lower contact resistance.

Lowering ion implantation dose at the donor substrate edge cuts blistering and particle formation during annealing and layer transfer.

Targeted particle-beam inspection and repair correct underexposed EUV resist defects, improving feature dimensions and alignment accuracy.

Alternating plasma-generation and bias pulses reduce hole bowing while maintaining etch speed and anisotropy in semiconductor dry etching.

Discrete cover ring protrusions clamp the wafer edge to flatten thin substrates, avoid carrier bonding steps, and reduce plasma arcing.

Spatially arranged high-voltage wires cut peak electric field and stiffness, improving object table positioning in electron beam tools.

Regularly spaced dielectric window convex portions concentrate VHF electric fields to suppress circumferential plasma bias and improve film uniformity.

Thermoelectric cooling, sealed packaging, and heat sinking lower SiPM dark noise below room-temperature limits for weak-light detection.

Separator-guided coolant channels keep the reactor shower head uniformly cooled, preventing overheating, flow interference, and film quality loss.

A vacuum-sealed TEM transfer assembly preserves ultra-high vacuum, prevents ice on cryosamples, and supports low-temperature in-situ work.

Microwave-driven wall vibration dislodges etch chamber polymer deposits so gas flow and pumping can remove particles before they contaminate substrates.

A temperature-tuned oscillatory diffractive MEMS shutter modulates hard X-rays at ultrafast rates while preserving spectral brilliance.

A wavelength-tuned distributor layout splits one microwave source to multiple radiation units while limiting reflection, loss, and plasma nonuniformity.

Specific silicon surface energy and contact angles improve showerhead hole uniformity, plasma flow, and contamination control in etching.

Real-time OES feedback moves and tilts the plasma coil to maintain spatial uniformity as semiconductor features shrink.

A separation grid preserves dense neutral radicals near the substrate while backside lamps independently control temperature for more uniform plasma processing.

A separate edge plasma generator improves wafer-edge uniformity without the higher power use and global plasma shifts caused by larger peripheral coils.

Fluorine gas converts chamber metal residues into removable intermediates, enabling faster cleaning with less damage and residue than chlorine.

Concentrated nitric acid oxidation merges intercalation and reduction steps to produce reduced graphene oxide, eliminating chemical waste.

Sintered yttrium-zirconium oxide solid solution ceramic provides halogen plasma erosion resistance.

Optical sensing detects wafer position during transfer to dynamically compensate errors without unloading, improving throughput.

Hydrogen flow tuning prevents bubbling and peeling while enabling optical property control in semiconductor manufacturing.

A substrate support with dual embedded electrodes applies pulsed DC voltage to control ion acceleration.

Alternating film formation and electrode ashing steps suppress particle generation to improve surface flatness and recording density.

Selects multiple plasma emission wavelengths with high mutual information to determine processing endpoints accurately.

A stacked substrate support uses a thin attraction part and interposed RF electrode to manage plasma processing.

A bevel mask with an inclined surface increases vertical distance toward the center to enable uniform plasma treatment on the substrate back side.

Reducing gas treatment lowers oxygen and carbon impurities in a copper alloy sputtering target to prevent defects in ultra-thin seed layers.

A mirror support module reduces X-axis and Y-axis distance errors in scanning electron microscopes by matching thermal expansion coefficients.

Segmented vacuum chambers and fiducial alignment marks prevent substrate damage during ion beam positioning, reducing takt time.

Chlorine radicals block upper adsorption sites to enable bottom-up silicon nitride film growth, resolving non-uniform modification.

Recessed substrate geometry guides organic metal adsorption for self-aligned film deposition, resolving lithography positioning limits.

Conductive edge ring on dielectric coupling ring reduces byproduct deposition and chamber wear.

A circulating ionic liquid replaces solid focus rings and quartz parts, preventing vacuum level decreases during plasma etching.

A plasma diagnostic system measures real-time density via capacitance changes using a non-overlapping frequency signal.

A displaceable retarding electrode member moves between insertion and withdrawal positions to enable precise alignment with the sample stage.

Heating the gate valve and passage inhibits gas adsorption, reducing purge time while maintaining chamber purity.

A nanofluidic cell system uses segmented silicon-wafer dies to maintain controlled fluid flow during high-resolution microscopy.

A sputtering target insert rotates within an outer skirt to distribute ion beam wear evenly across its surface.

Enhanced heat dissipation through serial fluid passageways and radiative back plates maintains precise showerhead temperatures for consistent film uniformity.

A cover lock uses a male member slot to receive a tool for unlocking electrical housings.

A rod-shaped light guiding member uses a narrower belt-like diffusing portion to control light distribution along its longitudinal axis.

Oxynitriding a silicon carbide surface with plasma reduces interface trap density and oxide fixed charge to improve transistor reliability.

Shifting the imaging lens focus from the diffraction plane corrects geometrical aberrations in scanning transmission electron microscopes.

A collimator plate uses holes with increasing area ratios from center to edge to modulate particle flow.

Controlled particle size distribution prevents gas voids during sintering, ensuring stable light transmission.

Segmenting substrates into high and low gradient regions allows tailored gas cluster ion beam resolutions, resolving precision versus throughput trade-offs.

Repeated plasma deposition and etching cycles form multiple cycle spacers, reducing profile faceting and footing while improving critical dimension control.

A water-cooled backplate manages heat during physical vapour deposition, maintaining wafer temperature between 350 and 450 degrees Celsius.

Multi-frequency bias controls ion energy distribution to prevent underlayer penetration and footings during gate electrode etching.

Actuator adjusts electron beam position to compensate for roller mold rotational runout during exposure.

Arc-sprayed aluminum ceilings with RA over 2000 capture residues to prevent flaking contamination while maintaining electrical insulation.

A multi-beam writing apparatus shifts beam positions by integer multiples of the beam pitch during tracking control cycles.

Serial deflection units with independent angular orientations minimize off-axis coma and distortion across large image fields.

Adjust electrostatic shield RF voltage via tunable reactive impedance circuits to control plasma potential and ion energy.

An integrated hollow profile eliminates soldering points to prevent leaks and reduce assembly time in vacuum chambers.

Angled mask features align ion trajectories to prevent sidewall convergence and shadowing in optical grating fabrication.

Segmented sub-electrodes adjust local voltage distributions to compensate for wafer warpage and ensure uniform adsorption.

Ion assisted deposition apparatus adjusts angular flux to prevent seam defects and voids in three dimensional features during film growth.

A single lithography exposure process patterns two distinct photoresist layers simultaneously using a specialized photomask design.

A control unit corrects radiation dose using distinct ionization currents from air and solid electrodes.

Measuring current on the low-voltage side of a boosting circuit simplifies the design while enabling accurate filament lifetime estimation.

A charged particle source uses asymmetric steering electrodes to deflect secondary particles away from the emitter surface.

A SATA connector design integrates power and signal pins within a single male-female interface to enable direct electrical coupling.

A writing data verification method converts pixel data back to vector format and performs an exclusive OR operation on the resulting graphics.

Angled nozzle outlets distribute gas flow evenly, eliminating striations and tapering in high aspect ratio vias.

Segmented wire arrays map beam intensity at multiple locations to resolve center-only measurement limits and ensure consistent spot size.