Radiation Pyrometry TRIZ Cases

Universal interface devices enable accessory integration, reducing complexity and cost while improving adaptability.

Evanescent coupling fixes coupler positions relative to pixels, eliminating light loss and resolution deterioration caused by transmission system adjustments.

A light selection layer routes circularly-polarized and unpolarized light through distinct paths to an optical sensor for ambient brightness measurement.

Distributed optical amplifiers along the bus segment reduce cumulative attenuation and noise figure, enabling large-scale sensor multiplexing.

Pre-computed lookup tables enable rapid extraction of tissue absorption and scattering coefficients from diffuse reflectance spectra.

A fluorescence imaging probe reflects excitation light via a 45-degree dichroic filter, expanding working distance while maintaining uniform illumination.

Molecular resonant RF heating eliminates contact components to improve calibration accuracy.

A Fourier optical system measures angular and spectral emission simultaneously using shaped selection surfaces and dispersed light paths.

A spatially resolved counter-coloring method calculates location-dependent pigment quantities to achieve target coloring on optical glass.

Continuous rotation of the diffraction grating eliminates oscillation, boosting data acquisition speed and mechanical reliability.

Tunable laser architecture integrated within an explosion-proof enclosure for hazardous environments.

Vertical carbon nanotubes on a panel provide high emissivity and temperature uniformity for infrared detector calibration.

Wavelength-splitting device separates responsive light emissions into spectral bands for simultaneous optical detection.

Dynamic dark correction methods stabilize spectrometer baselines by adapting reference data to temperature changes.

A compact optical spectrum analyzer design using a 2-core ferrule to receive orthogonal polarization components.

A telescopic color calibrator adjusts its length to position an optical sensor at the center of display devices.

Registration marks correct displacement errors in the optical path to ensure repeatable color measurement results.

Segmented light guide cores isolate peripheral image capture from displacement measurement to prevent heat-induced chromatic aberration.

In-phase and in-quadrature demodulation calculates spectral information independently of data frame length, reducing scanning time.

Radially inward receiver positioning minimizes optical path length, reducing device size while maintaining high light collection efficiency.

A spectral imaging device uses movable filter structures to divide ambient light into narrow bands for high-resolution analysis.

A galvanometer-based optical switch redirects light paths rapidly to enable continuous multi-modal imaging.

An etchless silicon waveguide uses thermal oxidation to form a high-quality microresonator.

Periodic planar illumination encodes spatial information in turbid media to enable non-contact three-dimensional fluorescence imaging.

Merging source rotation and mirror positioning into one mechanism reduces system weight, size, and complexity while maintaining calibration accuracy.

An image-based feedback loop adjusts the laser beam focus and target position, resolving the trade-off between manufacturing precision and device complexity.

A reflective diffuser optical head converts incident light into a Lambertian pattern using a dedicated reflector to recycle scattered rays.

A dual-sensor device captures thermographic and polarimetric images of manufactured parts for real-time quality assessment.

A near-infrared sensor measures engine oil absorbance at wavelengths above 1000 nm to detect chemical changes.

Polarization filters replace complex diffraction elements to measure alcohol and carbohydrate concentrations accurately.

Curved back faces shift parasitic MWIR images away from focal planes, eliminating visible ghosts while correcting optical aberrations.

A color measurement device uses a blue LED light source to illuminate objects for spectral analysis.

A spectrally encoded endoscopy probe integrates a triangular grating directly onto the light guiding component to direct dispersed light along the optical axis.

A tunable laser gas analyzer adjusts scanning time to match light-receivable periods.

Automated digital imaging analyzes substrate regions to identify corrosion features and track development trends in industrial water systems.

Confocal Raman spectroscopy measures stratum corneum water content to evaluate antiperspirant composition efficacy non-invasively.

A temperature measurement system calculates object temperature using an optical path length ratio derived from dual-wavelength reflected spectra.

Near infrared sensor measures red pepper powder spectrum, using reference correction to resolve subjective sensory variability.

SWIR imaging devices capture radiation from hot glass containers to enable real-time quality analysis on a touchscreen interface.

Infrared detector integrates quantum dots into the absorbing layer to select wavelengths, eliminating bulky band pass filters and cooling systems.

Empty modeling iterative resolution separates overlapping minor component spectra without over-modeling major components, stabilizing concentration images.

Merged slit and detector structure prevents relative positional deviation between the incident slit and diode, ensuring secure light guidance.

A method links spectroscopic data sets with digital images of contrast enhanced tissue using spatial coordinate mapping.

A spectroscopy module uses a light passing hole in the detection element to maintain precise alignment with the incident slit.

A photonic chip integrates optical source, tunable filter, and detector to generate spectral output signals.

Segmented SERS sensors with through holes reduce fluid flow interference while maintaining accurate detection of fluid types and concentrations.

Differential thermal expansion isolates the sensing fiber from mechanical strain, eliminating refraction errors during temperature monitoring.

Inline Mach-Zehnder interference structure in a single-hole twin-core eccentric optical fiber enables precise temperature detection.