Radiation Pyrometry TRIZ Cases

Apparatus measures Raman scattered light pulses from sample regions using elastic scattering indicator signals to classify spectral data.

Magnetic field traps ion debris trajectories to protect optical elements from contamination, extending operational life of EUV light sources.

A visual efficacy measurement method analyzes driver eye movements to determine optimal lighting parameters.

Integrated plasmonic filters and microlenses on a single metallic layer eliminate external optics while maintaining spectral accuracy across varying angles.

Segmenting detection via wavelength-selective mirrors and choppers eliminates mechanical scanning delays while maintaining spatial resolution.

A laser-based detection system analyzes surface enhanced Raman scattering signals from metal nanoparticles to identify cancer cells.

Direct bonding replaces liquid optically clear adhesive, preventing film peeling while supporting multiple infrared spectrum ranges.

A photodetection apparatus uses a wavelength-selective optical filter to separate interference light beams for precise scattering analysis.

A hyperspectral sensor uses a polarization diffraction element to split light into wavelength components and emit polarized light for spectral data acquisition.

Rotatable longpass and shortpass filters in a spectral slicing module deliver high transmission and sharp edges without mechanical tuning delays.

Supporting posts thermally isolate suspended conversion units from the substrate, enabling independent infrared emission while controlling response time.

RF-based thermometry isolates internal defects in stacked dies by mapping dielectric relaxation heating, bypassing electrical routing constraints.

A photoelectric coupling assembly mounts electrodes on a slanted distal end surface to enable reliable electrical connections.

Segmented optical paths with dedicated stops block unwanted background radiation leakage, preserving radiometric accuracy in compact infrared spectrometers.

A multi-layer light source uses a quantum dot layer to generate near infrared radiation for imaging device calibration.

A benchtop AFM instrument enables highly localized infrared spectroscopy using a pulsed tunable source.

A light-trapping sheet uses diffraction gratings to convert incident light into guided modes for photoelectric conversion.

Tuning laser wavelengths to plasma absorption lines concentrates energy in the hotter core region, overcoming exterior heating limits that reduce brightness.

Dual pyrometers measure substrate and window wavelengths, compensating for window energy to resolve low-temperature measurement errors.

A fluorescent infrared sensor uses chalcogenide glass doped with rare earth ions to generate stable radiation.

A crop growth measurement device combines laser beams and uses selectable light receiving units to capture reflected signals from varying distances.

A sub-millimeter circular dichroism spectrometer uses a metasurface to spatially separate left and right circularly polarized light spectra.

A thermal imaging device features a manual lens focusing structure with an axial positioning mechanism.

A printed security mark incorporates light-activated nanocrystals to generate unique spectral fingerprints for document verification.

Segmented sensors detect surface proximity without reflection, preventing unintended radiant heat exposure on non-flat targets.

RC-controlled semiconductor switching reduces peak currents in incandescent lamps, extending sensor lifetime.

Integrating optics within the dewar eliminates differential shrinkage fractures while minimizing external radiation to enhance sensitivity.

Fiber array spectral translator captures full-spectral images to resolve slow data acquisition rates in polymorph screening.

A computing device adjusts lighting color temperature to detect retinal reflections for accurate eye analysis.

A color measurement apparatus aligns its bottom opening portion with upper operation buttons in the user's view.

A hybrid spectra-camera splits display images using an aperture mirror to direct light simultaneously to a spectrometer and colorimeter.

A step scanning interferometer controller switches between AC and DC servo modes to stabilize optical path difference.

A waveform reconstruction device uses self-phase modulation in an optical fiber to calculate phase spectra from power measurements.

A contact-type endoscope SERS probe uses a GRIN lens to focus light onto a rough metallic layer.

Pre-calculating wave front phase compensates for thermal drift in non-linear interferometers, maintaining measurement precision without mechanical readjustment.

A coupled-cavity spectrometer uses adjustable recycling mirrors to control optical feedback and alter resonator finesse.

A Michelson interferometer uses flat springs to connect movable and fixed assemblies while preserving optical alignment.

Segmented cavities in a planar spectral filter enable fine-grained wavelength classification without bulky optical components.

A modified colorimeter uses near ultraviolet light to measure hexavalent chromium directly in water samples.

Nested concave mirrors extend the optical path for precise gas detection while reducing maintenance complexity through modular adjustment.

Orthogonal polarizers block surface glare in shiny objects, enabling accurate internal component analysis while reducing system size.

Controller differentiates electromagnetic response signals to isolate thermal characteristics of foreign matter within a sample matrix.

Spatial filter selects narrow wavelength subsets from ultraviolet illumination beams, reducing thermal loading on optical components.

Segmenting kernel images into regions of interest improves measurement accuracy while maintaining nondestructive and real-time examination capabilities.

A portable soil spectral probe measures reflectance using integrated light sources and optical fibers for real-time field data.

A position detection method splits detection light into first and second beams within an interference optical system to calculate movable portion coordinates.

Hybrid time-resolved spectroscopy recovers Raman signals via inverse transforms, separating fluorescence interference to identify biological analytes.