Radiation Pyrometry TRIZ Cases

A second lens system corrects chief ray angles to eliminate blue-shifting and ensure uniform transmission across the sensor.

Optical probe uses laminar fluid cushion to maintain stable light path for precise wafer thickness measurement.

A multimode imaging transform spectrometer dynamically switches between interferometric and spatial imaging by halting movable mirror scanning.

Segmented metamaterial resonators replace mechanical scanning to detect molecular fingerprints in nanometer-scale volumes.

Controller selects correction devices based on pre-acquired absorption spectra to eliminate stray light effects in wavelength distributions.

A light source estimating device groups neighboring pixel data using specular reflection components to identify material similarities.

Multi-wavelength optical absorption determines alkali metal concentration in furnace atmospheres, eliminating cold air ingress errors and alignment issues.

Guide laser beam stabilizes driver pulsed laser wavefront through continuous monitoring and deformable mirror adjustment.

A spectroscopic analysis device computes stray light ratios using unique wavelength coefficients to correct optical interference.

Segmented reflection elements maintain signal-to-noise ratios while strengthening absorption signals through shorter optical passage lengths.

A plane source blackbody employs a perpendicular carbon nanotube array to reach 99.6% emissivity, resolving calibration accuracy limits in infrared detectors.

Multiple Raman scattering amplifies weak signals to enable depth profiling and layer discrimination within multi-component non-metallic containers.

A meteorological lidar uses a diffraction grating to spatially disperse rotational Raman-scattered light for precise detection.

Spiral microfluidic chip isolates biomarkers using inertial forces while nickel micromagnetic arrays detect targets, eliminating centralized lab delays.

Segmented annular metallized layers guide molten brazing material flow to bond infrared detector window members and casing components.

A known mixture library assists Raman spectrum standard libraries by calculating similarity between to-be-tested mixtures and pure substances.

Inner wall regulation and buried leads secure the spectroscopic module, maintaining positional accuracy while preventing optical element breakage.

Integrated pivot door masks sensor to disable lookdown function without disassembly, preventing component loss and circuit exposure.

A flash drum removes light hydrocarbons from the ionic liquid stream before it reaches the ATR window, preventing measurement interference.

Direct electron beam lithography on flexible substrates achieves sub-50 nm resolution, overcoming transfer-induced precision loss in metamaterial fabrication.

Adjusting optic sensor light reception areas compensates for wavelength response differences, eliminating complex power amplification circuits.

A microwave thermometry network couples to the transmission line to measure noise temperature signals via a radiometer.

High band gap material converts infrared light to visible wavelengths via multiphoton absorption in a Fourier plane setup.

Decoupled actuators bend a dispersive optical element to select precise light source bandwidths.

A floating optical mount uses an elastic bearing to stabilize the lens position within a handheld infrared measurement device housing.

Merging sensing structures eliminates external filters, reducing material costs while maintaining high quantum efficiency.

A carbon nanotube coating on the cavity inner surface raises emissivity to 99.6% for precise infrared detector calibration.

A MEMS interferometer maps actuator capacitance to mirror position using a digital signal processor for precise control.

Replacing fragile optical cables with electrical leads and embedded lasers reduces breakage risk while maintaining measurement accuracy.

Segmented slits and collimating lens arrays increase optical signal strength and field of view without requiring mechanical scanning.

A chromatic confocal sensor uses a diffraction grating to route measurement light from multiple optical heads onto distinct areas of a single line sensor.

Segmented yellow and red phosphor layers prevent cross-absorption, boosting efficiency and color uniformity in white LEDs.

Depth sensor feedback compensates for ambient light interference to maintain measurement precision during remote sensing operations.

Two dispersive elements on a shared substrate enable simultaneous polarization state measurement using one detector array, eliminating manual alignment.

Dual microlens arrays and a fiber bundle enable simultaneous spectral acquisition across large sample areas, eliminating slow stepwise scanning.

A spectrometer calibration method aligns target spectra with reference distributions using distance metrics to correct wavelength measurements.

A cylindrical lens optical system modifies image aspect ratio on a digital micromirror device to enhance spatial resolution.

Satellite sensors capture reflected light spectra to map phosphorus levels, replacing time-consuming physical sampling with rapid optical analysis.

Double-pass spectrograph uses vertical Offner configuration to encode spectral images via programmable spatial light modulator.

Optical device controls moving target surface orientation and position using interferometric feedback loops.

Fluorescent conversion and segmented mirror detectors measure EUV intensity distribution, avoiding material absorption losses that degrade measurement accuracy.

A thermal imaging system generates temperature distribution data to create heater adjustment commands for a part bed.

An invisible servo beam monitors screen alignment through optical sensors, correcting excitation beam drift caused by environmental factors.

Deep UV Raman spectroscopy minimizes fluorescence interference to enable standoff detection of trace explosives at concentrations as low as 3 μg/cm².

An optical performance monitoring apparatus integrates power detection and insertion loss measurement using a switch device and circulator.

A noninvasive glucose analyzer applies physical force to alter tissue density and refractive index for photon-based concentration detection.

A temporal-spectral multiplexing sensor integrates HTI and HSI data streams to recover high-fidelity spectral signatures.

Conjugating assembly synchronizes hatch clearance with sensor deployment via a cam mechanism, reducing aerodynamic drag during flight.

Band-stop filters in a spectral sensor array reflect specific wavelength intervals, enabling efficient detection of light-emitting particles at high flow rates.