Scattering Properties Measurements TRIZ Cases

Optical sensor scans workpiece surface using angle-resolved stray light to identify characteristic features and determine precise position.

A scan mirror reflectivity calibration device directs light onto the back side of a rotating two-sided scan mirror to measure optical properties.

Digital image analysis replaces complex professional equipment to measure hair gloss, enabling users to select suitable products without specialized assistance.

A photon emitter array generates polarized light directly from the source to irradiate article surfaces without external filters.

A testing device uses layered optical modulation to simulate physiological light absorption for verifying pulse oximeter accuracy.

A broad-range spectrometer uses segmented photodetector arrays to capture scattered light across multiple angles.

An optical analysis method classifies blood dispersions using light scattering measurements and statistical parameters.

Software filter compensates for camera and light source differences, ensuring consistent color measurements despite effect pigment interference.

Field lens array creates uniform illumination to resolve broad band dispersion and non-uniformity in high power deep ultraviolet inspection.

Rotating polarized illumination captures scattered light from multiple angles to enhance signal detection on inspected surfaces.

Methyl salicylate detection liquid resolves low sensitivity for fluororesin particles by increasing refractive index mismatch, enabling 40 nm detection limits.

A scanning infrared measurement system uses a laminar flow cell to optimize signal detection in liquid samples.

A mechanical water stop mechanism employs a swelling element to block liquid ingress, protecting optics from leakage damage.

Near-infrared light penetrates opaque pulp walls to reveal internal damage, resolving the contradiction between inspection reliability and material opacity.

A measurement system segments total spectral radiance into reflection and fluorescence components for device-independent whiteness calibration.

Line camera captures reflected light from moving materials to calculate real-time quality parameters during transport.

Segmenting the scattering body isolates diffuse radiation interference, ensuring accurate scattered light measurement without external filters.

Reconstructs optical properties using a reference medium model to calculate corrected signals without experimental instrument response measurements.

Computational models normalize depth-resolved optical coherence tomography signals, removing shading artifacts that obscure glaucoma diagnosis.

Replacing white screens with a black enclosure and specular bottom eliminates optical cross-talk, enabling accurate measurement of low BRDF samples without increasing signal integration times.

Hybrid adaptive optics introduces astigmatic wavefront aberrations to modulate probe light phase for optical coherent tomography.

Tilting the optical axis according to the Scheimpflug principle focuses all stacked layers at once, eliminating time-consuming multi-acquisition cycles.

Multi-wavelength optical detection in a wearable device isolates tissue hydration levels from blood volume noise using vector projection analysis.

Depth-adaptive phase correction compensates optical dispersion across multiple imaging ranges, resolving axial resolution loss at varying depths.

Monochromatic light illuminates nano-sized gold or silver labels bound to target analytes in a microarray sample.

Integrating transceivers directly into the cable structure prevents light loss from contamination and refraction at joints.

A scattered light separating mask divides side and forward scattered components for downstream detection, reducing optical system complexity.

Curved surfaces focus scattered light while spatial filters block stray interference, boosting signal-to-noise ratios.

Dual light sensors measure reflection loss to detect clear media presence in conveyance paths.

Modulated metrology targets determine exposure dose through scattered radiation analysis, resolving substrate space constraints in lithographic processes.

Multi-wavelength light scattering differentiates smoke from nuisance particles, reducing false alarms caused by dust or cooking aerosols.