Light scattering and camera mapping detect chamber particles in real time without invasive sampling, helping preserve process integrity.
Potentiometric sensing tracks aerosol composition changes to adjust heating, control generation, and detect material exhaustion.
Dual tilted detectors and polarizer masking detect cloud phase and density while avoiding solar interference and high-speed electronics.
Dual tilted detectors, masking, and synchronous modulation cut solar interference while detecting cloud phase and density for aircraft icing.
Waste heat preheats sensor gas flow to evaporate fog droplets and block large particles, improving PM sensor accuracy without extra energy.
Airspeed-corrected optical peak amplitude and duration analysis separates water, ice, and ash particles without added optical elements.
Optical peak amplitude and airspeed-corrected duration help distinguish water, ice, and ash without extra optical elements.
Rotated waveguides collect side- and forward-scattered light from a microfluidic flow channel while limiting background noise.
Atomized particles escape during short-distance spraying; a conditioning hood and carrier gas guide deposition and reduce overspray.
Two fluorophore emission bands enable side-scattered light measurements of spray droplet distribution and composition without mechanical collection.
Particle, temperature, and humidity readings estimate airborne glycol without chemical sensors, enabling real-time dispersal regulation.
A dual-fluorophore light-sheet method measures liquid spray distribution without collection-device trajectory errors.
Optical extinction and aerosol flow rate predict deposition and film properties, helping control print drift in real time.
Smaller aircraft particle sensors use protruding optics to shorten sampling distance.
This aircraft particle sensor places collection optics beyond the surface to shorten sampling distance and reduce sensor size and weight.
Separate sensors monitor bleed air. Engine-specific warnings identify oil contamination.
Time-resolved scattered light intensity measurement extracts diagnostic parameters from droplet jets for industrial process control.
A receiver array measures scattered light intensity across angles to estimate water droplet median volumetric diameter.
Automated fraction collector replaces manual size exclusion chromatography with optical drop detection to eliminate human error during exosome isolation.
A particle characterization apparatus measures scattered light intensity at specific angles to determine size and complex refractive index.
Condensing water vapor in a chilled passage prevents biomarker dilution, concentrating non-volatile protein analytes on an ice collection surface.
Centers droplets via swirling flow to avoid wall collisions and enable portable spray measurement.
A constrained impactor stage limits axial space to reduce gas deceleration and deposit particles evenly on the grid.
Enclosed high voltage chambers and adjustable rod holders prevent lethal user exposure while enabling customizable droplet levitation configurations.
A portable air quality meter uses microscopic imaging to identify airborne particles and droplets in real time.
Real-time vortex detection interrupts aerosol deposition to maintain uniform film thickness despite high flow rates.
Optical sensor measures emitted gas intensity to detect low liquid levels, preventing ultrasonic resonator damage from dry operation.
A LiDAR method calculates aerosol mass concentrations using multi-wavelength extinction coefficients and the Ångström exponent.
Dual-volume optical sampling distinguishes sparse super-cooled large droplets from continuous backscatter signals.
Tomography algorithms reconstruct extinction maps from cycled electromagnetic emitters to detect ice crystals without intrusive airflow interference.
An electrostatic ion wind sensor generates airflow using unipolar ions to measure volumetric flow rates.
A droplet size determining device uses multiple liquid droplet detectors with different electrode gap widths to measure droplet dimensions.
Visual indices on a gimballed housing indicate maximum droplet sizes to prevent ice accumulation and maintain aircraft safety.
Fluorescence and polarization detection differentiate volcanic ash from ice crystals, resolving precision-versus-adaptability contradictions.
Optical imaging system analyzes suspended particle characteristics to detect nozzle clogs and maintain process reliability in abrasive blasting.
A microparticle sorting device uses harmonic vibration to control droplet formation.
A particle optical measurement system calculates spray flux using trajectory-corrected sampling areas.
A dynamic particulate collection system adjusts capture medium positioning and fluid flow rates to acquire airborne particles for automated analysis.
A corona discharge device senses satellite aerosols by monitoring electrical variations in the discharge field.
Temporal measurement of particle target density differences resolves the contradiction between detection precision and information loss in optical sensing.
Automated probe displacement acquires force-displacement profiles to quantify phase volumes, replacing subjective visual assessments with reproducible data.
A lifting plate applies pressure to an absorber while an injection portion delivers ink for simultaneous absorption and dispersion measurement.
An optical engine uses multiplexed light sources and detectors to measure angular scattering properties of aerosol particles.
A lens with a bottom-equipped groove separates optical paths to eliminate undesired reflected light and prevent detection accuracy deterioration.
A dual optical sensor combines transmitted and scattered light paths to detect fine oil droplets in gas samples.
Periodic thermal stimulation accelerates gas desorption, enabling rapid concentration determination without waiting for equilibrium.
A valveless wet dispersing device circulates liquid samples using a centrifugal pump and gravity-driven overflow channels.
Multi-sensor probe measures pore fluid velocity and residence time using pressure, temperature, and conductivity data.
Dual-wavelength optical sensor measures backscattered light intensities to identify cloud composition, eliminating high-speed electronics requirements.
Segmenting optical pulses into collimated and divergent paths samples distinct cloud volumes to detect super-cooled large droplets.