Reverse vortex flow shortens the ICP plasma path while maintaining stability, cutting argon and power use for faster spectrometry.
Reverse vortex flow cuts ICP plume broadening 10-fold, enabling faster spectrometry with lower power and argon consumption.
Multiple neural network sections and output concatenation improve time-series abnormality detection precision for real-time manufacturing control.
A split-ring resonator sustains high-density plasma in a portable setup, enabling rapid field spectrometry without lab sample transport.
A controlled iron oxide layer replaces the glass film to improve coating adhesion while reducing iron loss in grain-oriented electrical steel.
Controlled pickling and heat treatment form oxide layers that stabilize coating adhesion while lowering high magnetic field iron loss.
A layered lens-dielectric feedthrough enables stable DBD plasma generation and sensitive pressure or gas composition measurement across a wide range.
Pickling and heating create silicon- and iron-based oxide layers that stabilize coating adhesion without sacrificing high-field magnetic performance.
Pickling and heating form silicon- and iron-based oxide layers that stabilize tension-insulation coating adhesion without sacrificing magnetic performance.
Specific pickling and heat treatment build iron- and silicon-based oxide layers that secure coating adhesion and cut high-field iron loss.
Optical sensing of transistor electroluminescence enables adaptive zero-voltage switching with lower conduction loss and ripple under changing loads.
Timed solenoid magnetic confinement stabilizes spark OES plasma, improving signal-to-noise ratio, detection limits, and analysis speed.
AECL tags with HRP-mediated tyramide binding extend microarray detection to 1 fg/mL across six orders of magnitude.
An optical fiber captures plasma emission directly in liquid without focusing optics, reducing bubble interference for fast, accurate multi-metal testing.
Combining emission-line sensing with ion mobility spectra enables precise toxic gas identification without hydrogen or radioactive sources.
Broad-range LED spectroscopy and rotating sample storage extend wastewater pollutant characterization to size and mass concentration over time.
Ultrasensitive GFAP measurement helps distinguish mild TBI from severe injury and normal subjects while reducing APOE4-related misdiagnosis.
A narrow optical filter isolates the 309 nm plasma emission line so a photodiode can monitor semiconductor chamber moisture efficiently.
Automated optical detection replaces subjective human observation by calculating Go/No-Go thresholds from inert sample statistics.
Cyclometalated organometallic compound acts as a dopant in organic light-emitting devices to improve electrical characteristics.
Metal-antibody tagging and plasma spectroscopy resolve multiplexing limits by detecting metal ion signatures instead of complex optical labels.
A pump beam generating unit and probe beam generating unit create separate optical paths with distinct light penetration depths for material testing.
Transmissive grating projects zero and first-order diffractions onto a sensor to capture emission spectra from integrated circuits.