Radiation Pyrometry TRIZ Cases

A hair inspection device uses a path-diversion element to direct reflected light toward spectral and imaging sensors simultaneously.

A lens assembly integrates a central light source to minimize optical interference and enhance measurement precision.

Direct multiplication architecture eliminates local oscillators and mixers, resolving phase coherence challenges while simplifying system complexity.

A sensor apparatus measures optical radiation distributions and trajectories through a transparent window without modifying the process chamber.

Segmented Faraday cups measure time-of-flight between thresholds to calculate charged particle energy, enabling precise ion implantation depth control.

Shared optical components in reference switch architectures compensate for source drift while modulators eliminate stray light errors during noncontact sensing.

Replace contact thermocouples with optical pyrometers to eliminate thermal conduction offsets and mechanical wear during high-temperature processing.

Curved hollow probe and selective cooling allow optical imaging of hot gas path components without engine shutdown.

A terahertz detection system locates suspicious areas and identifies hazardous substances using multi-wavelength spectroscopy.

Infrared sensors monitor wafer temperature through probe card apertures to prevent trimming errors from thermal drift during testing.

CATM uses near-field microscopy and polarization-dependent measurements to detect protein intramolecular vibrations in hydrated crystals.

Offset-arch gimbal drives pinions on arched racks to position a camera through a small window, reducing heat exposure while expanding field of view.

A spectroscopic apparatus detects discrete photoluminescence peaks at 681 nm, 705 nm, and 725 nm to identify treated diamonds.

A coded spectral imager transmits multiple wavebands simultaneously through a filter array to measure intensities for high-throughput imaging.

Digital phase-locked loops suppress noise from frequency instabilities, increasing signal-to-noise ratio without additional optical elements.

A reference current generator circuit uses a bias circuit and transistor pairs to produce proportional currents for stable oscillator operation.

A graphene electromagnetic wave detection element uses alternating conductive and dielectric layers to generate surface plasmon polaritons.

A pyroelectric infrared motion detector uses multi-level LED indicators to display signal strength from transient temperature changes.

A measuring beam deflects on an EUV mirror to ascertain optical parameters for determining the heating condition.

A color measurement device employs a multi-wavelength LED and fluorescent light source to enhance spectral detection precision.

A return beam diagnostics module splits reflected light into two optical paths to determine target image sizes for laser focus correction.

Saturated absorption cavity ring-down spectroscopy apparatus measures trace gas concentrations using tunable laser sources and high-finesse resonant cavities.

A light emitting device blends charge carrier supplier quantum dots into the host matrix to enhance injection efficiency.

Optimized incidence angles flatten the U-shaped spectral resolution curve across 400 to 850 nm, maintaining below 5 nm precision without complex optics.

A sintered glass-ceramic connecting layer joins transparent elements to form a fluid-tight flow channel for infrared radiation transmission.

A near-infrared estimation apparatus uses light path models and intensity distributions to calculate voting values for internal object detection.

A spatial aperture blocks stray signals from optical components while transmitting optically interacted radiation to a primary focal point.

Solid-state optical system eliminates mechanical parts to resolve pain and nerve damage risks while maintaining measurement precision.

A gas phasor element controls optical path length through refractive index shifts, eliminating piezo hysteresis and wobbling motion.

A frequency-selective optical system detects surface damage on wind turbine rotor blades using electromagnetic radiation absorption and fluorescence behavior.

A spectrometer optical input portion uses a detachable assembly structure to link an optical element axis to the defined light path.

A complexing gas adsorbs organic compounds onto transition metal films to form volatile organometallic complexes.

A monolithic spectrometer integrates a spectral filter array over an optical sensor with a transparent spacer to enable wafer-scale assembly.

A personnel security inspection system combines passive and active terahertz devices for dynamic crowd screening and targeted re-inspection.

A monolithic interferometric plate uses a partially resonant full cavity to enable two-wave interference for spectral analysis.

A sensing system applies stimuli to bonded sensors and monitors physical property outputs to determine bond integrity.

Surface enhanced Raman spectroscopy detects molecular vibrations in petroleum additives.

A warning apparatus directs light toward a slippery surface imbued with light-refracting powder to create a visible alert.

Near-infrared spectroscopy determines oxidative damage by comparing hair spectra against calibration models, replacing complex chromatography.

Segmented optical channels combine bandpass filters and broadband transparent paths to increase frame rate while capturing spectral data.

Aluminum cover reflects radiation back to ceramic heater, reducing insulation thickness and power consumption in FTIR spectrometers.

Broad-band illumination replaces single-frequency lasers to measure spectral and spatial resolution across wide ranges without expensive equipment.

Real-time image sensor feedback drives iterative tuning of the LED source, resolving the trade-off between measurement precision and optimization time.

Segmented metal-dielectric nanoparticles resolve spatial localization trade-offs to deliver controlled Raman signal enhancement and single-molecule sensitivity.