Radiation Pyrometry TRIZ Cases

A calibration matrix and HSV threshold setting reduce LED sensor cross-talk, improving color classification accuracy and manufacturing yield.

Dual-stop placement and three positive lens groups increase light intake from a wider target region while keeping photometric optics compact.

A recessed support and filler-free epoxy adhesive improve silicon chip centering and preserve terahertz transmission at the lens interface.

Real-time phasing correction reuses partially corrected color values to cut memory load, reduce noise, and improve sequencing accuracy.

Capillary-fed light-blocking resin forms a precise filter frame without post-processing, preventing overflow and preserving spectral accuracy.

A dichroic mirror splits visible and near-infrared light to replace multiple spectrometers with one compact analyzer for fluid testing.

Interpolated spectral curves let portable low-resolution spectrophotometers produce accurate on-site paint tint formulas without lab sample transport.

Active phase-locked tunable lasers replace external optical modulators in CLaDS, cutting complexity while widening modulation flexibility.

Combining IR photothermal readout with Raman analysis enables sub-micron mapping and nanoscale spectroscopy on one platform without sample transfer.

Handheld NIR spectra and biometric ID verify both the pill and the patient, reducing incorrect medication administration.

Discrete diffusion-angle peaks and tuned pupil-to-spread ratios suppress diffraction stripes and luminance unevenness in compact optical imaging.

Combining IR and UV pulse paths enables stable in-situ gas analysis at low concentrations while reducing drift and cross-sensitivity.

Nanoparticle wavelength conversion replaces tunable optical filters in PAS, enabling compact, selective, and low-power multi-gas detection.

An IR-transparent flow shield blocks gas currents above a probe wafer, enabling more accurate infrared chuck temperature calibration.

A light-emitting, magnetically aligned backing plate keeps thin transparent samples accurately positioned for portable color measurement.

An absorbing reflector layer turns infrared light into a temperature signal, enabling tunable wavelength detection without a separate sensor.

A protruding, carriage-supported colorimeter scans in contact to block stray light, stabilize color readings, and reduce paper damage.

A robotic manipulator aligns leaves with an imaging chamber to improve field phenotyping consistency, throughput, and image quality.

A camera and light-based protractor capture viewing angles and coating texture together, enabling non-destructive matching on non-planar surfaces.

Separated infrared and sound paths let an earbud read eardrum temperature accurately without blocking audio or adding irrelevant radiation.

LIBS oxide-thickness measurement and hydrogen fume detection let pickling lines adjust acid use in real time to avoid over-pickling.

AI-based visual sensing in tactical gear identifies persons of interest and triggers haptic alerts for faster threat response in crowds.

A two-step aperture-marker focus routine helps spectrometers align reflective or featureless samples and avoid ghost images during spectral acquisition.

Periodic pulsed light boosts flash-method S/N ratio while limiting sample temperature rise for more accurate thermophysical property measurement.

Specific LED wavelengths and hybrid phosphors stabilize D65 spectral output, cut metamerism drift, and reduce power use in color matching.

Annular excitation and central-light shielding improve Raman signal purity while reducing fluorescence interference for higher-accuracy confocal analysis.

A silica-shell SERS structure captures biomolecules non-specifically to improve reproducibility and enable diagnosis when specific biomarkers are absent.

Periodic pulsed light and spectrum fitting raise S/N in flash thermophysical measurement while limiting sample heating and damage.

Plasmonic terahertz sensing with machine learning boosts SNR for rapid, non-invasive detection of contaminants and material defects.

Variable-thickness spacers and mirror layers enable sub-10 µm sensor spacing while improving transmissivity and reducing angle shift.

Infrared thermal imaging tracks relay contact temperature, cycle count, and duration to assess real-condition performance safely and efficiently.

An annular waveguide and segmented LEDs deliver accurate spectral analysis while reducing the bulk and cost of traditional spectrophotometers.

An LED and narrow bandpass filter with a movable optic probe enable fast, dilution-free fluid concentration measurement in less space.

A fluorescent lens converts incident light from any angle into detectable emission, enabling wide-angle laser reception without complex alignment.

A slip ring and rotary encoder let an uncooled thermal sensor rotate continuously for full-area imaging with reliable power, data, and aiming.

A conical side-panel energy collector boosts light capture for compact infrared detectors, preserving battery-free autonomy in IoT use.

A turntable-based optical analyzer combines spectrum, brightness, chromaticity, and viewing-angle testing in one instrument for faster, steadier display measurement.

Airtight mirror and optical path layout lets FTIR modules use larger movable mirrors without losing motion reliability or increasing module size.

A 3D folded optical path and reference plate combine absorbance and fluorescence measurement in a compact spectrometer with minimal alignment.

A single fibre coupler with thin-film mirrors and OTDR sensing removes circulator and EDFA losses for practical remote attenuation sensing.

A multi-slit Raman microscope uses a 2D photodetector to capture spectra from multiple points while avoiding wasted CCD pixels and unnecessary wavelengths.

Region-wise DOF capture and image fusion reduce focus blur on uneven targets, improving hyperspectral image sharpness.

A back-reflection grating and planar reflector layout shortens the optical path while improving spectral resolution and visible-range sensitivity.

Coupled Fabry-Perot resonators concentrate light in a colloidal photoconductor, enabling CMOS-integrated IR pixels with tunable spectral response.

An air-filled cap keeps the sensing optics out of direct water contact, preventing suspended matter fouling during underwater spectroscopy.

A parallel calibration beam and extra detector correct laser drift and oblique reference incidence without interrupting FT spectrum measurement.

A positioning section aligns the optical filter with the light-reduction opening to prevent axis shift and preserve color measurement accuracy.

Non-parallel plane mirrors create a long inclined optical path for sensitive gas absorption sensing without bulky, high-precision concave mirrors.