Radiation Pyrometry TRIZ Cases

Optical pump pulses induce strain in substrates, resolving measurement time and precision trade-offs.

A parabolic reflector and fly's eye integrator create a homogeneous radiation beam, eliminating measurement errors from beam inhomogeneities.

Sequential UV and visible LED illumination enables accurate fluorescent material measurement without multiple illuminators.

A light source control part adjusts power supplied to a light source based on signal change amounts.

Interference filter unit with segmented regions stabilizes optical characteristics through structural isolation.

Dynamic liquid crystal pixels control reflection states to enhance frequency selective resolution without enlarging the apparatus size.

A light-receiving element positioned off-axis directs reflected return light away from the optical fiber.

Dual-focus energy beam detection simplifies calibration by comparing spot positions against a digital model, eliminating complex coordinate transformations.

A real-time target detection method refines a spectral library by extracting effective bands to reduce processing complexity.

A thin opaque mask uses metal-insulator-metal structures to block electromagnetic radiation in infrared detection components.

Second-harmonic generation creates synchronized pulses from one laser, eliminating synchronization complexity while maintaining CARS signal efficiency.

Integrating absolute wavelength differences over time filters transient shifts, preventing excessive error detection and maintaining measurement accuracy.

Periodic scanning reduces energy consumption while maintaining measurement precision across multiple gases.

Pneumatic bellows replace mechanical towers to apply uniform compressive force across irregular sample surfaces, eliminating signal variation.

A luminescence sensor uses flexible nanofingers and a liquid ejector to deposit droplets that converge the tips into an enhanced detection zone.

A dual-mode microwave antenna combines heating and radiometry to characterize biological tissue temperature.

Thermochromic ear tips change hue with temperature, allowing optical sensors to measure core body temperature without fragile contact probes.

Four parabolic mirrors in a reflective Raman probe disperse energy density to prevent sample damage while maintaining high collection efficiency.

Dual synchronized laser sources generate pulse trains with matched repetition frequencies for high-speed molecular imaging.

An arcuate detector replaces complex optics with machine learning, reducing device size while maintaining spectral resolution.

Circularly birefringent medium rotates light polarization to deduce frequency from absorption line shifts.

An air-gap spacer between incident medium and dielectric filter reduces spectral broadening under diffuse light by controlling angular dependence.

Broadband light source illuminates spectrometer through optical interferometer to generate detector signals, eliminating separate wavelength calibration steps.

A diffraction grating with connected column structures on a concave cylindrical substrate separates and focuses optical signals simultaneously.

Dielectric and copper layer stacks separate visible and infrared spectral bands, eliminating black resin absorption and reducing device complexity.

Phononic structured nanowires reduce thermal conductivity while maintaining electrical pathways, resolving the trade-off between emissivity and reliability.

Introducing a low-pressure mercury lamp with a shutter mechanism allows accurate wavelength accuracy determination without expensive optical filters.

Bifurcated optical probes eliminate reference material dependency, resolving system complexity and reproducibility issues in thin film coated glass measurement.

A monolithic system converts infrared photons to visible light using an integrated absorber and emitter.

A spatial light modulator directs specific light spectrum portions to a photodetector using independently controlled pixel groups.

Multi-channel source assembly modulates individual LED frequencies for synchronous detection in downhole spectroscopy.

A high-density channel spectral imaging device uses collimated light and a diffraction grating to capture multi-channel optical data.

Segmented disposable wing elements prevent cross-contamination while elastic structures maintain measurement precision across varying anatomies.

A spectrometer system separates metadata from spectral data transmission to reduce network traffic and storage requirements.

An optical regulator disperses and couples pulses at different frequencies, resolving the contradiction between wide frequency coverage and high scanning speed.

A computer system calculates intrinsic viscosity and Huggins constant from concentration detector signals and specific viscosity values.

Sum-frequency generation in a non-linear crystal converts LWIR to SWIR, eliminating bulky cryogenic cooling and reducing system weight.

A spectrometry device uses a differential circuit to process detection signals for precise start timing alignment.

Nanolaser spectroscopy measures bioparticle refractive index, replacing time-consuming cell staining with rapid optical resonance detection.

Biomolecular component analysis subtracts protein and nucleic acid spectral contributions to determine intracellular lipid saturation levels.

A plasmonic lens converts evanescent waves to propagating waves for high-resolution optical inspection.

Handheld infrared acid detector distinguishes organic and inorganic acids using specific absorbance wavelengths.

VIPA etalon generates interference patterns from scattered light to determine corneal biomechanical properties via Brillouin frequency shifts.

Processor determines valid spectra via HQI, hemoglobin index, and contact position verification to estimate antioxidant levels.

An automated FTIR gas analyzer system scans sample gases to calculate intensity responses and determine concentration levels.

Silicon nanowires absorb radiation while a cooling fluid dissipates heat, eliminating noise in the infrared signature.

Spectral phasor imaging system uses moving sine and cosine filters to generate hyperspectral images from scattered light.

Magnetic trapping extracts ion debris from the plasma plume to prevent optical element damage while avoiding EUV light path interference.