A quartz annular member with 2.5 to 10 percent silicon releases ions to form a protective film on mask edges.
Fluorine-based plasma etches cobalt iron boron magnetic layers while protecting magnesium oxide insulating layers, reducing side wall residue and leak current.
Plasma enhanced atomic layer deposition forms conformal tantalum films on complex substrate geometries.
Independent aperture edges select spectral components to resolve signal-to-noise trade-offs.
Wavelength-specific optical monitoring determines photoresist and absorber layer endpoints, resolving interference from mixed material signals.
An embedded ground shield protects internal components from corrosive precursors, enabling high-temperature operations without material degradation.
A secondary position-sensitive detector monitors electron pattern shifts to provide real-time feedback for spectral stabilization.
A loading station with multiple ports and a rotatable receptacle transfers frozen samples between devices.
Optical collection module measures ion beam light signals, eliminating Faraday cup contamination and resolving spatial distribution noise.
Dynamic inert gas flow adjustment via flow switches reduces consumption and ventilation system size while maintaining safety.
A remote plasma system uses beta-phase aluminum oxide to generate stable plasma for semiconductor deposition and etching.
Boron-coated silicon field emitters generate primary electron beams to reduce electron-electron interactions and improve throughput in multi-column lithography.
A plasma power supply applies reverse polarity voltage to extinguish arcs using an integrated energy storage component.
Predicting stage drive amounts based on detected positions enables precise exposure control for varying line patterns.
Dead beat control detects capacitance current and initial output voltage to prevent secondary oscillations, enabling rapid wideband pulse power regulation.
A plasma processing apparatus heats a sample to a target temperature before applying electrostatic chucking force.
Method approximates transient sheath behavior using probability functions to reduce computational time for dual-frequency CCP etching systems.
Integrated flow restrictors in the showerhead reduce transition times between gas species, improving process precision and uniformity.
Pulsed RF plasma deposition reduces hydrogen content below 10% to prevent film peeling and migration in semiconductor fabrication.
Dual exhaust ports separate gas dispersion from purge flow, resolving the trade-off between uniform concentration and throughput.
Induction melting under reducing conditions produces a silver alloy target with fine grains that reduces spark discharges in large-area display manufacturing.
An electron gun uses a suppressor electrode to adjust voltages and prevent electron crossover.
Optical branching unit separates plasma emission from wall reflections to enable independent detection of spectral data.
Segmenting a pixelated electrode into sub-arrays reduces readout channel complexity while maintaining high measurement precision for radiation therapy.
Alternating fluorocarbon deposition and reduction cycles etch silicon-oxygen regions, suppressing cutting and maintaining opening width.
Silylamine precursors eliminate Si-H bonds to maintain film stability during thermal anneal.
Recess side surfaces absorb microwaves to control propagation, resolving non-uniform plasma distribution issues in processing chambers.
Resistive output stage discharges high voltage loads through parallel channels to achieve rapid pulse fall times.
Angled ion sputtering prevents overhangs by redistributing fill material for seamless bottom-up cavity filling.
A flexible enclosing cover integrates multiple plasma generators to spray reactive gases across contaminated surfaces for thorough sterilization.
Segmented exhaust ports and reduced volume prevent parasitic plasma generation, maintaining gas discharge efficiency while extending component durability.
A detection unit measures impedance changes to quantify particle adsorption on chamber surfaces.
Odd harmonic mixing generates square wave RF signals to increase peak ion energy and flux, resolving the trade-off between high etch rates and low ion flux.
An antistatic film connects to a ground wiring line through a joint extending vertically, preventing local potential gradients that deflect electron beams.
Controlled oxide grain size prevents abnormal discharge and particle generation during sputtering.
Independent voltage control switches plasma shower operation modes to maintain measurement accuracy across varying ion beam current regions.
A charged particle beam device adjusts the optical axis using lens excitation current changes to stabilize the electron beam state.
Directional plasma etching removes sidewall material from mask layers to expand initial photolithographic patterns, enabling smaller pitch and higher density.
Automated image processing replaces manual SEM review to resolve the contradiction between classification accuracy and productivity.
An automated method determines optimal capacitor values for mechanical RF match networks using predefined learning cycles and data averaging.
A displaceable displacement member integrates a shutter and sample holder to block the electron beam column opening.
Segmented lens units deflect multiple beams toward optical axes, correcting off-axis aberrations during high-speed field of view movement.
A partition plate separates plasma generation from substrate processing to control radical flow.
A prober device shapes input waveforms to produce clean output pulses for dynamic signal analysis.
A substrate processing apparatus uses a blocker to shield a sputtering target from oxidizing gas during metal layer formation.
Eliminates light guides by directly coupling scintillators to silicon photomultipliers, resolving low collection efficiency and high voltage constraints.
Gas-assisted etching creates topography differences between specimen materials, resolving charging effects and improving cross-section image contrast.
A heat transfer plate design with multiple units connects components to facilitate thermal conduction in electron beam writing systems.