Radiation Pyrometry TRIZ Cases

Oscillating sensor temperatures resolve measurement uncertainty caused by unknown or changing target emissivity.

Bellows piston vacuum extraction removes liquid interference to enable accurate gas concentration measurement.

A spectroscopic identification method isolates primary spectral features to distinguish substances.

A pyrometer calibration method uses reflectance ratios from a transparent layer to assign accurate temperature values.

A non-contact temperature measurement apparatus uses pulsed excitation and probe light to detect substance temperature.

A spectrometric measurement apparatus uses a diffraction element to disperse light beams into specific pixels of a line sensor for spectral acquisition.

A subject identification device iteratively adjusts illumination characteristics to refine spectral data for precise matching.

Through holes in the circuit board block harmful substrate light, maintaining high contrast and image quality.

Apertured attenuator reduces laser intensity before detection, preventing thermal damage to the sensor substrate.

A single-sensor hyperspectral imaging device uses a spectral filter array to generate data cubes from photo-sensor outputs.

A tunable resonant cavity integrates a grating and nanoparticles to amplify weak Raman scattered radiation for spectroscopy analysis.

A Raman spectroscopy system uses a 405 nm laser and software processing to identify minerals.

A spectroscopic gas sensor uses a homogeneous reference gas to calibrate measurements directly within the sample cell.

A plant leaf imaging system detects trichloroethylene exposure through spectral band analysis of interacted light.

A spatially variable filter integrates with vertical scanning interferometry to measure surface profiles.

Segmented reflective zones and adjustable emitters optimize reflection counts for accurate gas analysis while reducing manufacturing complexity.

Defocusing radiation distributes light across sensor pixels, compensating for burn-in effects and ensuring accurate element analysis.

A nested beam splitter module directs orthogonal light paths using secondary splitters and reflectors.

Spatially offset Raman spectroscopy with SERS nanoparticles determines sub-surface pH without contact, eliminating contamination risks in clinical applications.

An optical fiber envelops electrical conductors to guide arc light directly to a transformer.

Deconvolution processing on spectral waveforms narrows the spectral linewidth, reducing color aberrations in semiconductor exposure.

Parallel probe system overcomes slow throughput of single-well readers by using a shared 2D sensor to simultaneously acquire Raman spectra from multiple spots.

A control circuit modulates light pulse repetition rates using a phase detector and actuator element to enable precise time axis calibration.

Integrating multi-band photo sensors into a display panel enables autonomous UV intensity detection without external internet access or specialized instruments.

A laser rangefinder adapter measures gas chromatography column length through a light guiding capillary.

Local minimum identification separates overlapping photon pulses, correcting energy-discrimination errors at high count rates.

A terahertz radiation diagnostic system directs THz pulses into plasma to induce fluorescence emission for precise characterization.

Optical weighting devices apply spectral filters to integrated computational elements for simultaneous multi-analyte detection.

X-ray spectroscopy and CT scanning capture material composition and internal structure data to enable accurate multi-material 3D reproductions.

A light measurement device merges single-channel and multi-channel detectors using a selective coupling element to direct incident radiation.

Separate reflector cups block direct electromagnetic radiation between transmitter and receiver, eliminating cross talk in compact proximity sensors.

A compact spectrometer uses a planar optical grating aligned at an acute angle to direct diffracted radiation onto a sensor element.

A spectrometer control circuit adjusts LED emission based on detected outside light characteristics to optimize reference signal strength.

Cold plate thermal coupling eliminates differential expansion to maintain beam alignment stability.

Optical coherence tomography detects refractive index boundaries to determine sample position relative to the objective lens.

Capacitive coupling transfers THz energy across an air gap to a suspended MEMS sensor, enabling high sensitivity at room temperature without cryogenic cooling.

A rare-earth metal-organic framework binds biomolecules to visualize latent prints via fluorescence.

A pulse laser material aging apparatus expands light beams to deliver high-intensity irradiation onto test objects.

A spectrophotometer holds liquid samples as droplets between optical fibers.

Segmented spectral analysis resolves chemical composition while minimizing post-processing time.

Sapphire lenses collimate light through high-pressure fluid pathways, eliminating dead volumes and O-ring seals to enable spectroscopy at 20 kpsi.

A compact infrared device merges a light source and sensor within one component to detect gas concentrations.

A magnetic field generator converges charged particles toward a collector while positioning the target nozzle outside the convergence region.

An elastic member holds a movable unit in place along the optical axis, resolving impact attenuation conflicts that degrade color measurement accuracy.

An inert gas barrier protects optical surfaces from plasma-induced deterioration, maintaining EUV generation efficiency.

A biometric terminal uses a semi-reflective plate to project a floating holographic guide for contactless hand placement.

A sensor system transmits multiple light wavelengths simultaneously onto a single spot using optical amplifiers and modulators.

A pattern of transparent areas controls light admission to identical photodiodes in an imaging sensor array.