Electric Discharge Tubes TRIZ Cases

Segmented chambers with a booster tube increase plasma strength at low pressures while preventing arcing via differential pumping.

Integrating bolt and connector interfaces on one busbar eliminates multiple product variants, reducing mold costs and manufacturing complexity.

Multi-stage forging and precision rolling eliminate through-thickness gradients to ensure uniform sputtering rates.

Spring coil pins integrate into the main body to remove soldering steps, reducing manufacturing complexity while maintaining secure mating.

Integrated mass analyzer reduces device complexity by merging mass analysis and angle correction functions into a single component.

Constant entrance and exit fields prevent zero-field effects during scanning, maintaining stable flux profiles and uniform beam current delivery.

Segmenting the beam source into a self-contained module resolves the trade-off between high imaging resolution and complex vacuum chamber maintenance.

A plasma processing apparatus uses a detachable cylindrical housing to adjust antenna size and gap distance.

Ultraviolet radiation passivates trapped charge defects to suppress plasmoid formation and maintain film uniformity.

A charged cleaning wafer collects particles via electrostatic attraction within substrate processing modules.

A segmented silicon electrode ring joins multiple members using eutectic alloy and adhesion parts to form a unified structure.

A laminar enclosure structure conducts heat from pixel arrays to an external surface using a high-conductivity intermediary material.

Ceramic liners on the CVD susceptor block heat loss and abnormal discharges, ensuring uniform film thickness.

Microwave plasma treatment modifies substrate interfaces to enhance high-k film nucleation rates, resolving interface quality degradation during device scaling.

Plasma treatment renders medical device viewports highly hydrophilic, eliminating procedure interruptions caused by condensation blur.

A pressurized gas volume releases into a semiconductor showerhead to establish spatially uniform flow across the faceplate.

Digital control adjusts microwave field rotation frequency, allowing plasma to follow the field and ensuring uniform ion density at high chamber pressures.

Segmented holes with distinct cross-sectional profiles compensate for non-uniform plasma distribution, resolving MEMS gyroscope sensitivity inconsistencies.

A retractable energy dispersive X-ray detector moves between positions to achieve symmetrical angular coverage during specimen scanning.

Plasma hydrocarbon deposition narrows photoresist openings to prevent mask toppling without chamber wall adhesion.

Segmented ceiling exhaust holes and a movable ring eliminate peripheral chamber volume, resolving process uniformity issues in plasma etching.

A desktop ion plasma disintegrator vaporizes documents using a high-voltage arc guided by electromagnetic coils.

A contour roughness standard manufacturing method applies power spectral density compensation to generate precise surface profiles.

Alternating ion and reactive species fluxes selectively remove modified film portions, maintaining stability without fluorocarbon passivation.

Reversely mounted nozzles shield the plating layer from plasma erosion, preventing metal contamination in corrosive gas delivery systems.

A coaxial RF resonator plasma source uses a window to isolate the process chamber while transmitting optical signals for monitoring.

Segmented cooling plates with a thermal break prevent temperature differentials that cause non-uniform chemical reactions and process drift.

A charged particle beam inclination correction method uses a reflector plate to monitor secondary electron trajectories for precise alignment.

A high frequency generator applies IQ modulation to vector multiplier signals for precise power output.

Frequency selective demodulator circuit extracts RF signal amplitude and phase to enable closed-loop plasma process control.

Linear plasma generation reduces chamber size and energy consumption while ensuring uniform deposition.

Automated TEM sample alignment uses processor-controlled tilting to orient specimens precisely along the zone axis.

Segmented thermal control compensates for manufacturing-induced temperature non-uniformities across the electrostatic chuck substrate.

Coolant channels and a cold trap reduce material deposition on faraday flags.

Inclined permanent magnets in a racetrack apparatus shift the deepest erosion zone toward the center of the target surface.

Segmented grounding electrode adjusts area facing RF plate to compensate for RF harmonics and maintain etch rate consistency.

Segmented injection holes distribute process gas to resolve uneven deposition and partial deviations in substrate processing.

A plasma generation apparatus creates a conductive bridge between electrodes to lower electrical resistance.

A plasma processing apparatus regulates heat-transfer gas pressure in the wafer gap to stabilize surface temperature distribution.

Segmented ring-shaped contact portions maintain line contact with electrostatic chucks to stabilize attractive force.

Pulsed RF plasma etches silicon dioxide and polysilicon layers using non-corrosive fluorine gases, maintaining mask selectivity without corrosive HBr or Cl2.

A dual shower head deposition apparatus deposits reinforcing films on both wafer surfaces using distinct upper and lower gas supplies.

A charged particle beam device uses alternating current in a second coil to reduce residual magnetic fields.

An automated image analysis method aligns the phase plate inside an electron microscope by recording images at different focal lengths.

An electrical receptacle integrates a standard lower port and an upper high-speed port to enable simultaneous data transfer.

Porous foam captures sputtered contaminants on beam line surfaces, eliminating flaking debris that degrades device performance.

Uneven pattern on the focus ring reduces temporal change rate, extending useful life while maintaining conductance.

Charged particle beam lithography uses variable dosages on shaped beam shots to reduce dimensional changes and improve edge slope accuracy.

Intersecting stationary ion beams etch deep observation surfaces rapidly while maintaining structural integrity and uniformity.