Electrostatic collection concentrates particles on an electrode tip before high voltage spark ablation enables real-time atomic emission spectroscopy.
Sorbent coating concentrates analytes within a waveguide evanescent field to enhance Raman scattering signals, enabling portable trace gas detection.
A spectral characteristic measuring device corrects wavelength shifts using intensity distribution analysis.
Piezoelectric actuation deforms a SERS-active structure to tune Raman signal intensity, resolving hot spot volatility across analytes.
An optical instrument combines coherent light scattering with Raman spectroscopy to measure particle size and molecular structure simultaneously.
A prismatic plate refracts light beams to reject parasitic reflections in multispectral imagers.
Alternating pressure vessels maintain continuous liquid tin supply for EUV sources, preventing gas dissolution instability during replenishment.
A radiation generation device uses multiple independently activatable elements and a fixed dispersive optical component to shape output light.
Segmenting the movable mirror from the SOI substrate expands the mirror surface area while enabling precise angular deviation measurement.
A support structure with low thermal conductance positions optical components within a Dewar.
Automated optical measurement replaces subjective human inspection to resolve matching precision trade-offs for gonioapparent colored surfaces.
Rotating a segmented Fresnel lens array aligns specific columns with slotted walls to switch detection ranges without exposing internal components.
A two-dimensional spectroscopy system generates response pulse waves with relative time delays to read out optical signals from a sample.
FTIR-based multivariate model correlates infrared spectra with cetane numbers for rapeseed methyl ester diesel fuels.
Integrating dispersive optics and reflective imaging on a single substrate defines a flat optical path volume, reducing device complexity and production costs.
A method corrects in vivo intrinsic spectrum distortion using correction terms to enhance analyte concentration prediction accuracy.
A columnar fiber rod mixes and collimates external light to improve measurement precision by ensuring parallel entry into the sensor.
Closed-loop feedback control compensates for part reflectivity variations, eliminating manual trial-and-error adjustments during laser plastics welding.
An accessory integrates infrared optics and an excitation light source into a spectrophotometer to acquire spectra at one sample position.
An electrostatic precipitator concentrates particles onto a collection surface for optical probe detection.
A colorimetry device uses a movable trap and non-reflective lid to switch between SCI and SCE modes through an integrating sphere.
Spatial power maximum above threshold transfers sample into reduced excitability state, resolving measurement precision versus device complexity contradiction.
Trench-formed waveguides in bulk silicon substrates enable direct optical interconnection with standard CMOS circuitry, eliminating costly SOI processing steps.
FPGA-based centroid tracking corrects multi-sensor boresight alignment in real-time.
Spherical mirrors in a specular array reflect sunlight to calibrate sensors, avoiding complex on-board systems and atmospheric degradation.
An integrated spectrophotometric system combines absorption, fluorescence, and reflectance measurements using a bifurcated fiber assembly.
A digital filter spectrum sensor digitizes spectral responses from a filter array to reconstruct incident radiation profiles.
A light filter structure with a graded layer reduces angle dependency and spectrum deformation for narrow-band applications.
A spectrally encoded imaging device uses a diffractive element to disperse light for video-rate three-dimensional tissue visualization.
A spectral reflectance system adjusts an optical director position to maximize detector signal strength.
Integrating sphere captures scattered photons to expand absorbance range and improve hemoglobin measurement accuracy in whole blood.
A near-infrared spectral sensor selects relevant wavelengths using machine learning for object recognition.
A tubular gas cell features an oval cross-section that monotonically decreases from inlet to outlet, optimizing internal vortex formation.
A high-frequency power supply integrates a dynamic coolant path within its cooling block to manage thermal loads during plasma operation.
Mask plate reflects off-axis light toward a trap space, attenuating stray radiation that degrades measurement precision.
A tunable laser directs intermittent radiation at surfaces while an imaging device captures on and off images for signal processing.
Spectral radiance analysis identifies volcanic ash plumes by detecting brightness temperature deviations from a calculated baseline.
A microimager analysis system uses a slit projection module to illuminate samples and detect transmitted light for rapid hemoglobin concentration determination.
A method isolating individual molecule emissions using non-switchable fluorescent dyes for high spatial resolution imaging.
A multi-wavelength temperature sensing apparatus measures melt pool distribution via spectral intensity ratios.
Nano-scale protrusions on the substrate boost Raman scattering intensity, resolving weak signal issues in low concentration single molecule detection.
Nano-structures absorb projector light to emit blackbody radiation, overcoming thermal inertia and spectral inaccuracies in infrared sensor calibration.
Multi-color pyrometry imaging system segments spectral ranges using band-pass filters to compensate for soot interference and reflection errors in gas turbines.
A lens-free imaging device charges and images particulate matter particles to capture holographic data.
Trenches in the passivation layer reduce light path length and prevent color filter peeling during CMOS image sensor fabrication.
Recursive least squares extracts phase errors from earth scene and background spectra to correct fringe count inaccuracies.