Radiation Pyrometry TRIZ Cases

Multiple ambient color sensors feed a processing system that clusters measurements and applies weights to generate a single accurate colorimetric value.

Multi-threshold digital signal processing differentiates photon arrival events to resolve detection saturation in Raman spectroscopy.

Pulsed broadband illumination and spectral analysis improve signal-to-noise ratios while preventing thermal damage during continuous blood monitoring.

Crossed PTFE diffuser elements scatter near-infrared light to eliminate orientation-dependent variations and ensure accurate coating thickness measurements.

A piezoelectric blocking unit removes unwanted droplets to maintain vacuum purity and prevent contamination in the EUV light source.

A secure data transmission cable integrates fiber optic sensor lines within its protective layers to detect physical disturbances and unauthorized access attempts.

A reflector redirects outside light to a spaced sensor element, resolving casing size versus viewing angle contradictions.

A hyperspectral image sensor uses an optical irradiator and segmented detectors to capture sub-hyperspectral images from partial regions simultaneously.

Optical splitter and delay system splits light into two paths for balanced photodetection.

A sensor chip uses suction and light intensity adjustments to detect fluid samples.

Automated optical detection locates color shifts to reduce waste.

A spectrometer uses modulated light sources and a Fabry-Perot filter to detect multiple wavelengths simultaneously.

A light-measuring system constructs a look-up table to determine accurate color coordinates from stimulus values.

An optical sensor system measures particulate concentrations through container walls using scattered light detection.

Magnetic field guides ions along flux lines to reduce debris on optical elements.

Freeform optical elements correct astigmatism and coma in two-dimensional spectra, enabling high detection sensitivity with compact detector arrays.

A silicon nitride Echelle grating uses a metal-filled trench mirror to reflect light toward output waveguides.

Diamond-like carbon coated infrared sensors monitor wafer surface temperatures in real time, correcting readings despite chemical fumes and moisture.

Optically pumped erbium-doped ZBLAN microspheres generate mid-infrared laser emission for molecular detection.

A light source controller adjusts LED intensity based on initial color readings to optimize signal capture.

Dual feedback loops stabilize interferometer light and temperature, correcting environmental drift to maintain spectroscopy measurement precision.

A MIRA sensor uses acousto-optic tunable filters to enable high-speed chemical signature detection across multiple optical channels.

Heaters and dynamic current distribution stabilize thermal loads in integrated laser sources, reducing crosstalk between adjacent wavelength channels.

Segmented slits on a rotating disk allow simultaneous spectral data capture, resolving poor pixel utilization in conventional single-slit hyperspectral imagers.

A spectrometer uses a rotating mirror assembly to move a focused incident beam across a sample surface.

A monolithic spectrometer merges collimating and focusing functions into a single continuous optical surface within a solid body.

A mobile reflectance optical spectroscopy device uses broadband light and an optical detection system to differentiate individual wavelengths of reflected light.

Concentric optical folding with curved prisms reduces satellite spectrometer weight and minimizes smile distortion.

A multi-parameter test system uses a nanosecond light source to drive an LED and PMT loop for precise spectrometer calibration.

Electrochromic modulation replaces mechanical cooling to improve signal-to-noise ratio and reduce device size.

Gaseous laser generates light downhole within a temperature control chamber, bypassing fiber optic cables twisted by rotating drill strings.

Segmenting object and dust radiation with two meters compensates for interference, ensuring precise temperature readings in high-dust environments.

A color calibration hologram emits diffracted light to estimate spectral sensitivity for imaging devices.

Vacuum insulation and asymmetric heat blocking eliminate Pelletier elements to reduce power consumption.

A coaxial optical spectrograph uses an integrated grating to direct light through a central aperture for high-resolution detection.

Integrating a light blocking layer into electrode structures reduces device thickness while maintaining high-precision biometric authentication.

Applying multiple lateral pulses expands the EUV plasma discharge volume, reducing spatial fluctuations and doubling output power.

A spectroscopic measurement device uses a transmissive optical member with a sloped face to divide measurement beams for spectral analysis.

A miniature spectrometer employs a diffuser-based optical system and polarization interferometer to achieve compact construction.

A spectroscopic analyzer adjusts irradiation conditions to optimize absorbance spectral data analysis.

Spectral profiling of optical filters using calibration light sources improves measurement accuracy by resolving detection capability trade-offs.

An integrated band-pass filter enables two-point calibration for electromagnetic radiation sensors, eliminating costly factory visits and Peltier modules.

A thermal infrared sensor incorporates a sub-wavelength antireflection structure on the absorbing film surface to enhance detection sensitivity.

A temperature-compensated resistance circuit combines two parallel resistors with a series diode to adjust thermal coefficients.

A multi-waveband spectroscopic probe emits and receives light through optical fibers to evaluate tissue molecules.

Automated spectral analysis replaces manual grab sampling to detect subtle seabed changes without operator bias.

Merging visible and infrared sensors on one substrate eliminates wiring complexity while enabling precise color control and wireless communication.

A multi-element detector captures interference patterns and color images simultaneously to generate true-color 3D surface representations.

A self-referencing optical absorption spectroscopy method utilizes spectrally selective broadband light sources coupled through optical waveguides and a mode coupler to homogenize radiation characteristics.