Radiation Pyrometry TRIZ Cases

A second dispersion device disperses target light into multiple beams that act as a vernier scale for precise wavelength measurement.

A tunable Fabry-Perot etalon system uses a reconstruction matrix to determine calibrated spectral measurements from detected light intensities.

A thermographic imaging system determines thermal output using a thermal transition sensor and reference temperature data.

A compact UV sterilizing device uses a closed housing with reflective surfaces to maximize germicidal radiation exposure on medical instruments.

Virtual superposition of spatially separated diffraction gratings reduces weight and cost while maintaining broad spectral detection capability.

A shadow ring blocks laser energy while transmitting emitted light to a thermal sensor.

A tunable hyper-spectral illumination system uses a digital micro-mirror device to direct dispersed light into an integrating sphere for precise spectral control.

Optical detectors capture muzzle flash radiation in the visible and infrared spectrum to identify gunfire sources remotely.

Monolithic biosensor interferometer maximizes AC components and minimizes DC offsets through segmented optical elements, improving detection sensitivity.

Raman spectroscopy evaluates tissue samples to identify prostate tumors and distinguish aggressive from non-aggressive variants.

A spectrometer analyzes reflected electromagnetic radiation to determine chemical composition of foodstuffs.

A conical scanning optical device measures atmospheric gas emissions by dynamically adjusting its field of view to track emission plumes.

A microspectrometer module shifts its optical resonator mirror spacing to record a transmission spectrum for calibration.

A displaced Sagnac interferometer creates a local oscillator light beam through nonlinear optical interaction of aligned measuring beams.

Carbon nanotube thin-film devices generate uniform blackbody radiation for optical sensor calibration while minimizing size, weight, and power consumption.

A multi-channel imaging spectrometer uses shared optics and multiple diffraction gratings to disperse light onto a single sensor.

A transparent cylindrical sensor container holds a single detection element to capture electromagnetic radiation data from multiple spatial angles.

A pipelined spectrographic analyzer duplicates digital amplitude samples to detect pulse edges and integrate energy totals using dedicated hardware modules.

A synchronous mid-infrared laser system measures velocity and temperature of engine plume flow fields using absorption spectroscopy and Doppler shift detection.

A spectral imaging system uses a position measurement system to track reflector locations for image reconstruction.

A conversion crystal paired with a diffusive surface scatters ultraviolet radiation to boost fluorescent signal intensity for photodetectors.

High-energy beam processing removes peripheral coatings to enable reliable vacuum-tight solder joints on customized optical windows.

Conductive periodic structure generates characteristic absorption peaks in aqueous solutions, resolving flat spectra and enabling high-sensitivity measurements.

A calibrator uses a transformable absorption plate to attach securely to display screens via vacuum suction.

An active thermoelectric cooling pad lowers computing system temperature by transferring heat to a radiator, reducing fan noise through dynamic control.

Nanofinger substrate aligns stimulus polarization with plasmonic modes, isolating Raman signals from background noise without complex filtering components.

A rod lens creates a virtual slit image that replaces physical slit aspects, resolving non-uniform illumination errors in spectral imaging systems.

Merging collimating lens and diffraction grating into a single element reduces manufacturing complexity while maintaining long-term alignment stability.

Graphene-coated nano-pyramid optical fiber probe detects trace molecules while preventing metal oxidation.

Segmenting infrared radiation via a beamsplitter resolves the trade-off between measurement precision and device complexity in gas detection systems.

A wideband hyperspectral spectrophotometer uses ultraviolet illumination and line scanning to induce fluorescence in non-emitting objects.

Airborne differential absorption lidar maps gas plumes using path-integrated concentration data.

An asymmetric depression concentrates dispersed light, reducing stray light interference during miniaturization.

A meniscus compensation plate mitigates beam refraction from solution surfaces, enhancing signal-to-noise ratio and measurement speed.

Tilted freeform mirrors in this echelle spectrometer resolve wavelength overlap while maintaining high resolution.

A Fourier spectrophotometer multiplexes inverted interferograms to demultiplex and subtract signals for noise removal.

A two-channeled measurement apparatus uses a chopper wheel to combine and separate light paths for gas concentration determination.

Inclined excitation light and perpendicular fluorescence reception spatially separate signal paths, reducing noise interference in compact biometric devices.

Coordinate mapping resolves magnification differences between infrared and Raman systems, enabling precise position switching.

A silicon-based Mach-Zehnder interferometer uses refractive index modulation to vary optical path lengths without mechanical components.

Optical fiber probes transmit near-infrared light to assess propellant composition without disassembly, reducing testing complexity and time.

A spectroscopic optical system uses spatially separated collection regions to isolate penetrating light from surface noise.

Unfocused laser source collects scattered light from large sample areas using a hybrid diffraction grating and stacked fiber bundle.

Multiband image spectral reconstruction converts camera data into optical spectra for precise feature value estimation.

An inclined recess structure separates the adhesion zone from the optical filter surface, preventing adhesive leakage and ensuring accurate infrared detection.

Near-infrared light transmission and reflection determine crystal fraction in casted-mono silicon wafers.

A device creates localized thermal hotspots to enable non-contact infrared detection with high spatial resolution.

A noninvasive glucose analyzer modulates skin tissue layers to alter optical pathways for spectrometry.