Electric Discharge Tubes TRIZ Cases

Offset pattern element boundaries via a dose slope function to maintain nominal exposure doses, resolving throughput and precision trade-offs.

Segmented membrane structure integrates reinforcement regions to support large viewing areas for microscopy analysis.

A substrate rack integrates an illumination system to radiate ultraviolet energy onto substrates.

Periodic plasma action lowers hydrogen content in amorphous silicon layers without damaging temperature-sensitive underlying structures.

A resonant capacitor adjusting circuit changes equivalent capacitance to control lamp filament current.

A phase compensation circuit connected in parallel with an electromagnetic lens controls lens current to stabilize convergence effects.

A plasma etching method uses oxygen and sulfur gas mixtures to selectively remove block copolymer layers.

A substrate processing system indexes and rotates a substrate during ion beam deposition to ensure symmetrical treatment profiles.

A smart lighting control system uses wireless modules and sensors to manage luminaire brightness and operating modes via a central server.

A connector housing integrates distinct mating cavities for USB and eSATA terminals to enable secure engagement across alternate plug orientations.

Segmented guard structures intercept leakage current along the insulator to reduce false neutron counts and improve measurement precision.

CxFy gas with a benzene ring structure boosts etching rate and selectivity for high aspect ratio holes.

Integrates an auxiliary processing chamber with the loadlock to perform stripping without contaminating the main vacuum frame.

Segmented narrow sputtering sources resolve maintenance complexity and target utilization issues in semiconductor fabrication.

Segmenting the pedestal allows quick temperature process switching without breaking vacuum seals, maintaining throughput.

Adjustable electrodes maintain precise gaps to remove byproduct layers and prevent contamination during semiconductor processing.

A dual-cavity receptacle connector integrates power terminals and signal terminals within a single insulative housing to enable simultaneous data transmission.

Magnified imaging of lithography mask regions extracts measurement mark positions for local error analysis.

A high-purity titanium target with a macro pattern-free surface and average crystal grain size of 10 microns or less.

A plasma processing apparatus uses a dividing wall with an adjustment opening to control the gap between the cylindrical member and the rotator.

A shield with a heat exchanger cools sputtering targets in substrate processing chambers.

Heating the support base prevents impurity adhesion in the thin film passage hole, maintaining accurate beam detection during high-throughput writing.

A pulse tracking circuit adjusts RF matching network impedance using phase and magnitude detector signals to maintain optimal power transfer conditions.

Moving liquid chambers extends ion beam pathlengths to control kinetic energy, resolving trade-offs between device complexity and measurement precision.

Segmented pedestal rollers align wafers to shadow masks, reducing transport system complexity.

A charged particle detector grid assembly shapes electric fields to distribute secondary particles evenly across the sensor surface.

Thermal deposition forms silicon-carbon layers with high carbon concentration, reducing roughness and stress in sub-10nm semiconductor structures.

A sacrificial tube intercepts debris in the exhaust conduit to protect the pump assembly from contamination.

Internal magnets densify plasma for cleaning while shielding prevents ferromagnetic short circuits and contamination buildup.

A bi-modal process gas composition switches between etching and deposition states via radiofrequency power modulation.

Multi-zone gas supply units adjust processing gas flow rates to optimize radical distribution across the wafer plane.

Cam locks compress a positioning gasket between the electrode and backing plate, eliminating adhesive contamination while maintaining thermal conductivity.

Digital logic circuit synchronizes multiple amplifier paths by applying stored calibration data, resolving phase mismatch during plasma arcs.

A particle detector uses intersecting superconductive and conductive lines to measure voltage changes from particle impacts.

Shielding unit prevents electromagnetic field dispersion outside the chamber, resolving trade-off between field confinement and treatment efficiency.

A mobile gas containment apparatus channels plasma exhaust through a duct and vacuum pump to extract harmful gases from the treatment zone.

Segmented ring plasma sources with independent gas flow and magnetic control eliminate center-to-edge non-uniformities in dielectric etch processes.

Positioned energetic electrodes prevent back-sputter coating, reducing maintenance downtime.

Matrix mapping coordinates multiple lenses to adjust imaging scale and rotation without compromising beam path convergence.

Multi-state RF pulsing modulates plasma power levels to trim deposited polymers and straighten mask necks during etching.

A Faraday shielding plate integrates resistance wires to directly heat plasma etching dielectric windows.

Adaptive double exponential smoothing adjusts parameters via error-based probability density functions to process plasma emission signals.

A superconducting gantry magnet uses left-right canted-cosine-theta windings to generate alternating quadrupole and dipole fields for ion beam control.

Radio frequency hydrogen plasma transforms beta-phase tantalum into mixed beta-alpha phase for low-resistivity films.

A charged particle beam writing apparatus divides chip regions into mesh areas to calculate pattern area density for dose determination.

A charged particle filter uses a magnetic deflector to redirect backscattered electrons away from the detector tube.

Segmented cathodes isolate sputtering from treatment zones, preventing excessive heat while enabling uniform alloy deposition on metal surfaces.

Voltage and current sensors feed analog multipliers to measure instantaneous RF power, eliminating phase shift complexities.

Segmented intra-chamber electrode assembly applies periodic RF power to filament groups, improving plasma uniformity and reducing metal contamination.