Scattering Properties Measurements TRIZ Cases

A particle size distribution measuring apparatus applies pressure or shearing force to a sample within a cell using a dedicated mechanism.

Satellite remote sensing determines total phosphate concentrations from reflected light, replacing costly field sampling with extensive data coverage.

Optical path adjustment separates complex conjugate noise from the imaging object signal, eliminating wall reflection interference without adding hardware.

A material classification system selects optimal light source clusters to compute feature vectors for object identification.

A focused beam scatterometry system measures scattered light intensity and polarization to characterize submicron structures.

Spatial light modulators create destructive interference patterns to identify microorganisms without culturing, eliminating the need for visible colonies.

A planar electrode apparatus directs a laser beam parallel to the sample surface for accurate charge detection.

Switching between slice and en-face modes reduces system complexity while maintaining diagnostic reliability for high-resolution imaging.

Multiple light sources illuminate a lens module from various directions while an image capturer detects reflections, reducing sequential testing time.

A non-invasive biolipid concentration meter calculates lipid levels using light scattering coefficients detected by an optical sensor.

Fused quartz lining shields monolithic fumed silica from water absorption, maintaining reflectivity above 99.5% and enabling repeated cleaning.

Non-contacting pillars in a flow cell create gaps that prevent impurity clogging, ensuring stable suction force while maintaining a compact planar shape.

Segmented sectoral patterns arranged on a polar coordinate system resolve uniform flare evaluation gaps, ensuring precise directional light ratio determination.

A unitary reflective insert directs light to a scattering zone in smoke detectors.

A two-dimensional image sensor captures specular and diffused reflection regions to extract glossiness, surface roughness, and coloring evaluation values.

An optical image measurement device adjusts a reference mirror position to align the depth axis for fundus observation.

Frequency-modulated light beams generate image data to calculate cell parameters, resolving the trade-off between measurement precision and device complexity.

Merging separate detection channels into a single scattering volume improves interference immunity while reducing structural complexity and installation space.

A road-surface-detection device uses headlight reflection intensities across multiple visible wavelengths to identify surface types.

Flexible sheet with integrated lighting and sensor elements enables direct spatial frequency domain imaging.

A fluorescent light tomography system reconstructs three-dimensional probe distributions using photon propagation models.

Spatial signal discrimination isolates specific binding events from non-specific noise, enhancing measurement precision without blocking processes.

A rotatable light trap within an integrating sphere adjusts position to manage specular reflections during optical measurements.

Bright area changes across varying exposure times quantify reflectivity, resolving automatic exposure setting failures on highly reflective workpieces.

Segmented pupil regions eliminate unwanted depth signals by maintaining consistent optical path lengths for accurate characterization of absorptive samples.

Laser reflection sensors detect wafer centering errors and edge bead removal size deviations for automated correction.

A LiDAR detection method uses a standard target plate to determine reflectivity accuracy and precision across multiple channels.

A fluid stream adsorbs material onto reflective surfaces to enhance diffuse scattering, resolving glare and distortion that obscure structural data extraction.

A smartphone colorimeter accessory integrates an interference filter and light source to enable precise optical measurements.

A signal processing unit removes scattered light noise from fluorescence detection signals using a high-intensity calibration process.

A biosensing light guide collects supercritical angle light via total internal reflection.

Laser speckle rheology replaces mechanical mixing to measure clotting time and strength, reducing laboratory testing delays.

A mirror monitoring system uses an analysis head to measure specular reflectivity and fouling rates.

A transducer module integrates a light scatter detector assembly to measure multiple optical angles simultaneously.

A multi-channel surface plasmon resonance sensor uses beam profile ellipsometry to detect amplitude and phase changes simultaneously.

A baffle mount blocks external light paths to prevent false signals from window reflections while maintaining sensitivity to distant reflective material.

A s-SNOM optical arrangement uses a high-intensity reference beam to demodulate near-field signals with high accuracy.

Evanescent wave reflectance detects lubricant spread on tablet particles, replacing destructive microscopy with real-time non-destructive monitoring.

A measurement system combines optical excitation with electron beam detection to characterize plasmonic properties.

CMOS active pixel detectors replace slow CCDs to achieve high frame rates and efficient photon utilization in EUV coherent diffraction imaging.

Phase correlation detection in a dynamic light scattering colloid analyzer extends measurement range into turbid suspensions and weak signal regions.

Aperture total internal reflection measures sub-degree contact angles without complex microscope systems.

Segmenting speckle grain regions reduces analysis time and computational burden while maintaining measurement precision in scattering media.

A computer-implemented method calculates electrostatic data from spectral reflectance to identify pigments in textured coatings.

Handheld lidar system measures plume opacity using low-power pulsed lasers, reducing power consumption for portable environmental compliance.

A smoke detector uses a segmented housing with a guiding channel to direct gaseous matter toward an optical detection module.

Segmented light receiving units isolate diffused reflection from toner images against regularly-reflected light from grooved intermediate transfer bodies.

Fixed geometric alignment on a mounting section resolves trade-offs between measurement precision and reversible vessel installation.

Actinic radiation reactor converts free radical precursors into scavengers to remove particulates from semiconductor water.