Electric Discharge Tubes TRIZ Cases

Phase-difference feedback adjusts pulse count and oscillation frequency to keep high-frequency output uniform and stabilize plasma processing.

A PECVD plasma using hydrocarbon, argon, and hydrogen forms carbon film only on pattern tops, boosting throughput and avoiding trench-blocking overhang.

Injecting an alternating signal builds a baseline Bode fingerprint that detects processing chamber faults early and reduces diagnostic downtime.

A thick-walled dielectric plasma chamber resists hydrogen and halogen erosion, cuts metallic contamination, and simplifies manufacturing.

Standing acoustic waves shape ionized gas into tunable 3D plasma structures for precise coating and etching of complex objects.

A universal outlet core with removable sleeves lets one PDU accept C14 and C20 plugs, cutting variant count and simplifying inventory.

Segmented dielectric plates, coils, and intersecting diffusers decouple plasma density and gas flow to improve film thickness uniformity on large substrates.

A plasma-formed protective film blocks moisture adsorption on chamber members during maintenance, reducing heating time and downtime.

Measured wafer state is used to adjust focus ring height, keeping sheath position stable and edge etching more uniform.

Pitch-relaxed cut features are shifted for single-mask lithography, then enlarged by angled ion implantation to recover cut margin and reduce errors.

Compressed seal layers and dual-chip windows keep liquid or gel samples airtight, reducing leakage and improving charged particle beam observation yield.

A common test control port lets each die in a 3D stack be tested independently while also checking interconnect integrity with parallel scan paths.

An impedance matcher on the anti-adhesion shield offsets rising shield resistance, keeping plasma stable and film quality consistent.

Alternating plasmas from different gases improves selective film etching on substrates, raising etch efficiency and process yield.

Nb2O5 in a Co-Pt sputtering target improves magnetic grain separation while preserving crystallinity, anisotropy, and saturation magnetization.

Delayed source and bias RF pulsing controls ion energy, angle, and radical flux to improve high-aspect-ratio etch profiles.

Independent bias electrodes shape plasma sheaths near substrate edges, improving ion trajectory control and processing uniformity.

Direct contact between the mounting table and refrigerating mechanism cuts substrate cooling time and improves processing throughput.

Ion flux data between plasma and substrate enables more reliable endpoint detection and clearer plasma state monitoring during substrate processing.

Dynamic frequency and power sweeps track plasma parameters during each pulse to improve ignition stability and reduce manual impedance tuning.

A dielectric protrusion and overlapping lift pin guide create a tortuous path that suppresses arcing and blocks process gas attack on chuck bond layers.

Balanced triaxial grounding diverts plasma-induced parasitic currents away from the substrate to minimize crazing in glass coatings.

An inert gas curtain at the slit valve blocks oxygen and moisture inflow during wafer transfer, helping preserve chamber vacuum and gas purity.

Opposed flat-coil pairs simplify charged particle beam deflector manufacturing while reducing aberrations, astigmatism, and cost.

Modified periodic bias waveforms with ion current compensation narrow ion energy distribution and improve etching precision in plasma chambers.

Sequential chlorine- and fluorine-based gas cleaning removes tube deposits and byproducts faster, improving process tube cleanliness.

A guided RF feed through the ground member reduces field concentration and impedance, improving plasma and etch uniformity.

Short frequency tests above and below the current RF setting cut reflections quickly, helping maintain stable plasma heating under changing impedance.

Diffusion-bonded plates and post-bond electroless nickel plating protect reactive gas channels from corrosion and help maintain uniform film deposition.

Fluidically isolated inner and outer plenums let wafer tools tune center and edge gas flow and composition for more uniform deposition or etch.

Controlled carboxylic acid pressure dry-develops exposed metal-containing resist regions while preserving selectivity for precise substrate processing.

A porous metal fiber matrix with sintered nodes enables thin gas filters to achieve high particle removal with low pressure drop.

Higher-vapor-pressure hydrocarbons replace naphthalene in beam-induced deposition, maintaining carbon coverage while reducing health and disposal risks.

Localized inert gas mixtures balance plasma density along the racetrack to equalize sputtering rate and thin film thickness.

Heating a metal exhaust pipe above 180°C activates ClF3 for faster deposit removal while metal seals avoid cooling delays and excess gas use.

Graph-based netlist standardization rebuilds HDL signal declarations and assignments to recover RTL for IC refabrication and hardware assurance.

A shield ring or baffle blocks sputtered electrode material from the discharge chamber and window, improving monitoring reliability and chamber life.

Alternating Ar sputter etch with O2/O3 chemical etch removes fluorine residues after plasma dicing while protecting temperature-sensitive carrier sheets.

A fluorine-hydrogen plasma mix tunes F/H ratio to selectively etch silicon nitride over oxide while controlling profile through the stack.

Electromagnetic irradiation boosts and stops electron emission by scan cycle, enabling fast beam current changes for voltage contrast defect detection.

An optical beam tracks local sample height during SEM scanning to detect focus status quickly and compensate electron beam misfocus.

A reflective thermal shield diverts GIS heat from the sample, preserving sticking coefficient and raising charged-particle deposition throughput.

An active-matrix heating layout cuts lead-out lines in electrostatic chucks while preserving precise multi-zone temperature control for plasma processing.

Stacked dielectric layers and air gaps attenuate RF fields near the showerhead, suppressing parasitic plasma without creating a low-impedance ground path.

A carbon plasma pretreatment shields dielectric surfaces so halogen plasma can selectively etch metal layers with higher precision.

A separated plasma chamber, backside radiative heating, and magnetic rotation cut wafer transfer time while improving temperature control.

Separating plasma generation from the treating space stabilizes pressure and substrate temperature for uniform etching with lower particle contamination.

Angled film deposition plus reactive ion etching selectively reshapes trenches of different widths when high aspect ratios limit ion access.

Absorbing recesses and conductive coating capture secondary charged particles, limiting charge buildup and beamlet deflection.

A roll-to-roll transparent film keeps the plasma OES view path clean, preserving light intensity and diagnosis accuracy despite chamber contamination.

A flexible conductive plate keeps a movable plasma shield grounded during reverse sputtering, removing oxide films without particle generation.

Fast IGBT-based synchronization of grid power supplies cuts arcing and plasma instability while enabling instant ion beam power transitions.

A resin bonding layer tuned for elongation, strength, and modulus keeps electrostatic chucks bonded at −60°C without peeling or ceramic fracture.

A tunable edge ring applies DC and RF control to flatten the plasma sheath, improving wafer-edge etch uniformity and reducing yield loss.

Directional plasma modulation compensates wafer anisotropy to reduce bonding distortion and improve bond strength uniformity in 3DICs.

A sloped flow-directing structure and tray collect curing residues inside the chamber to prevent wafer contamination and reduce defects.

Measured wafer topography guides zone heating or cooling during dry etch back to equalize removal rates and smooth post-etch surface height.

Late Mn and active-element addition into stirred molten copper avoids graphite carbide formation and lowers CuMn target defects.

UV or laser radiation further dissociates plasma precursors to deposit void-free, seam-free semiconductor layers with fewer defects and impurities.

A sensor-equipped transparent jig aligns and levels height-adjustable edge rings in minutes, reducing chamber downtime and plasma nonuniformity.

Separate gas channels feed center and outer plasma regions to improve etch or deposition uniformity and stabilize fluorine plasmas.

Hydrogen-radical defluorination removes post-etch fluorine residuals before plasma stripping, limiting metal contamination and strip-rate loss.

Segmented heater protrusions and embossings compensate thermal strain to keep substrate contact uniform and reduce particle density.

Evenly spaced inlets and equal-length channels balance chamber vent flow, improving deposition uniformity and reducing peeling risk.

Maintaining the wafer support hotter after chamber cleaning shifts etchant absorption to chamber walls, reducing first wafer under-etch and burn-in time.

A multi-zone insulated grid and shutter-chuck motion balance tilted ion-beam exposure to deliver uniform lateral etching across the substrate.

Hole-like openings above chuck trenches spread cooling gas more evenly, improving wafer temperature uniformity and etch consistency.

Shielding, cooling, and segmented voltage control reduce x-ray damage and thermal drift in multi-beam charged particle imaging.

Differential thermal expansion and elastic support help stacked coolant tube blocks maintain close contact and prevent vacuum leakage in cryogenic etching.

Series switch modules and transformers generate steep high-voltage pulses for capacitive plasma loads, improving wafer field uniformity.

A low-conductivity support and heat-spreading plate limit mask temperature variation in vacuum transfer, improving drawing accuracy and soaking time.

Bias voltage tuning speeds ARC and LAL defect etching in EUV photomasks while protecting the capping layer and cutting repair time.

Matrix and zone heaters sense heat flux and temperature in situ, enabling closed-loop plasma and ESC uniformity compensation during wafer processing.

Decoupled plasma power enables single-chamber flowable film fill and in-situ densification to reduce voids and improve sidewall coverage.

Modified periodic biasing with ion current compensation narrows ion energy distribution for better etch profiles without disrupting plasma density.

Galvanically separated carrier electrodes localize RF coupling to active plasma zones, reducing spillover plasma and reactive currents.

Nonlinear fitting of single-probe I-V curves captures plasma nonextensivity and improves electron temperature, potential, and density diagnosis.

Dynamic signal tuning, pin repositioning, and vibration improve wafer grounding through backside films while reducing damage and contamination.

Excited species and vapor etchants remove native oxides and residues from substrate surfaces while preserving IC fabrication throughput.

Keyed dowels and receiving slots clock a substrate pedestal into the correct position, speeding installation while reducing misalignment, vibration, and particles.

A deformable metal coating on a core ring maintains vacuum sealing under high heat and pressure, avoiding seal failure in semiconductor chambers.

Differential pumping and external sensors track rotary seal leakage in vacuum wafer stages, helping predict wear and reduce unplanned maintenance.

Conical and cylindrical diffuser openings balance gas flow and plasma density to improve large-area film uniformity at the same RF power.

A radially profiled upper electrode improves plasma uniformity in semiconductor etching, reducing hole defects and residual by-products.

Asymmetric external magnets reshape plasma density and ion distribution in a single-turn PVD chamber to correct non-uniform etching.

A baffle-guided airflow path and variable blowers cool the chamber lid more evenly, cutting thermal gradients and substrate defects.

A recessed support plate and gas supply create selective plasma deposition at the bevel edge, restoring film thickness without coating the substrate underside.

Discrete electron beam spot welds with solidification between adjacent spots reduce humping while speeding multi-component joining.

An extendable sensor arm and rotary jig measure substrate support to pre-heat ring alignment, helping prevent chamber damage and particles.

A temperature-controlled shield adds pre-heating or post-cooling zones to spread heat evenly, protect substrates, and reduce material waste.

A protective film formed in the plasma generation region enables more uniform chamber cleaning, reducing over-cleaning, particles, and container wear.

A photoconductive LC light valve replaces scintillator-camera coupling to cut optical loss and improve x-ray microscopy throughput.

By mounting the wafer parallel to gravity during plasma etching, particles fall to the side surfaces instead of contaminating the top surface.

A shared edge sensor and rotating support align both wafers and focus rings precisely before robot transfer, reducing handling deviation.

Using an Al-SiC base plate and conductive bonding layer, this chuck reduces CTE strain, gap formation, and wafer temperature nonuniformity.

Quadrant pin-outs and keyed mating connectors let patient monitors mount vertically or horizontally while maintaining secure power and data coupling.

Periodic etch-back resets use sacrificial residue to preserve deposition selectivity, reduce defects, and avoid extra lithography steps.

A conductive shield between the magnet and target locally tunes field strength to improve sputtered thin-film thickness uniformity.