Radiation Pyrometry TRIZ Cases

Red light excites gem fluorescence for detector-only identification, avoiding naked-eye visibility.

A configurable imaging spectropolarimeter uses a movable mirror to shift polarization frequencies for simultaneous detection.

A diagnostic device measures optical fiber bandwidth using dual modulation frequencies to determine signal attenuation characteristics.

A reflective relay spectrometer employs a symmetrical refractive relay system with reflective optical elements to reduce aberrations.

Imaging high and low emissivity graybodies at identical temperatures performs non-uniformity correction, eliminating airborne thermal control constraints.

A carbon nanotube composite film with metallic particles provides a stable surface-enhanced Raman scattering substrate.

High refractive index immersion oil resolves the contradiction between high imaging resolution and device complexity in flow cytometers.

Server generates colorimetric jobs for independent measurement execution, resolving operational complexity and enabling flexible usage across locations.

A spectrometer system employs a voltage-tunable interferometer and self-calibration technique to adjust measurement accuracy.

A board inspection method uses multiple colored lights at distinct inclination angles to capture color images of solder joints.

Infrared and light sensors replace mechanical cut-band detection, eliminating false alarms and bypass risks while enabling full enclosure sealing.

Auxiliary sensors monitor input light intensity to correct main sensor outputs, compensating for accuracy drift and transmittance changes over time.

Photosensing array detects analytes moving through an optical cavity to capture output light intensity variations.

A measuring apparatus calculates total spectral radiance factor using bi-spectral data and virtual illumination synthesis.

Optical time domain reflectometer measures reflected signal strength to identify fiber geometry changes within composite panels.

An edge-mountable semiconductor chip package orients the chip perpendicular to the substrate using exposed electrodes and molded filler.

Nested reflective segments form converging light cones, resolving the trade-off between compact volume and high measurement precision.

Refracting prisms deflect the laser beam across discrete sample locations, preventing thermal accumulation and avoiding detonation of explosive substances.

A spectral detector uses a grating panel with multiple periods to measure light intensity changes for precise wavelength analysis.

A dual-band Fabry-Perot interferometer synchronizes infrared radiation sources with variable ramp control voltages to detect multiple gas components simultaneously.

Multi-angle illumination extracts doping level, stress, and composition data from nanostructures without increasing measurement time.

Merging beams at an angle reduces background noise and eliminates extra optical components.

An inclined gas curtain prevents dust and water droplets from reaching pyrometer optics, maintaining measurement accuracy in harsh industrial environments.

A Golay cell gas detector integrates a MEMS microphone directly onto a printed circuit board substrate to sense acoustic pressure variations.

Bending the optical path with prisms aligns slit and detector on-axis, reducing spectral smile distortion while maintaining high resolution.

A handheld IR spectrometer uses an electrostatically actuated MEMS array to diffract light and manage power consumption.

Alternating pixel sampling interleaves data to increase effective readout speed, resolving low sample rate ambiguity during scene changes.

Beam steering mirrors correct divergence to prevent vignetting and preserve measurement precision in extended Raman spectroscopy probes.

Elastic members absorb carriage impacts on the variable wavelength interference filter, maintaining gap stability and measurement precision.

A bisbenzofuranone-based coloring agent forms an infrared transmission filter composition.

A test specimen with a heat conductive member attaches to structures to replicate thermal conditions for infrared imaging.

A spectral filter absorbs specific optical wavelengths to manage radiant energy levels.

An optical splitter divides incident light into separate spectral portions directed to distinct detector rows.

Light pipes route radiation to sensors beneath audio meshes, concealing apertures within sleek electronic device designs.

A spectroscope module uses multiple lenses to reflect light and reduce color difference between different wavelengths.

A mosaic of Fabry-Perot filters integrates directly onto sensor elements to enable simultaneous detection across multiple spectral bands.

A calibration method derives full reflectance spectra by combining light source and camera response characteristics using reference objects.

A concentric silicon carbide lightpipe centers a sapphire core using local protrusions to enable uniform inert gas purging.

Segmented circumferential spectroscopic sensors maintain continuous tissue contact during device rotation, preventing measurement gaps from shifting wearables.

A UV absorbance measurement system evaluates sonicated cleaning solution activation states through spectral analysis.

Segmented nanowire substrates resolve porosity control trade-offs, enabling single-molecule detection via tailored surface characteristics.

A bimetal support arm varies the tuning plate angle to compensate for thermal drift and maintain ITU grid alignment.

Infrared microspectroscopy analyzes biomedical samples to detect disease states through characteristic spectral patterns.

A filter wheel integrates diaphragms with multiple apertures onto narrow-band optical filters to manage light energy distribution.

Thermal imaging sensors measure surface temperatures on extruded strips to identify material anomalies.

Periodic grating parameters align resonance modes with fluorophore spectra, increasing fluorescence emission intensity and extraction efficiency.

A light sensor system calculates infrared components using weighted color and clear channel signals to generate corrected outputs.

Temperature-tunable distributed feedback lasers eliminate mechanical tuning noise and enable compact, high-resolution gas phase spectroscopy.