Radiation Pyrometry TRIZ Cases

Internal reflecting optics focus CO2 radiation on sub-100 μm droplets to boost conversion efficiency while protecting input windows from debris.

A photonic integrated circuit device uses a cavity and reflective surface to couple light from an integrated waveguide toward a planar detector.

A heat treatment apparatus uses contact and non-contact sensors to measure substrate temperature during rotation.

Segmented spherical micro-mirrors relay light beams across multiple detectors, resolving image quality degradation caused by increasing device size.

Metal nanoparticles on a periodic grating structure control propagating surface plasmons to generate dual resonance peaks for enhanced detection.

Optical method measures semiconductor substrate temperature using interband absorption edge analysis for real-time control.

Programmable infrared camera system automates operator training and validation routines to standardize thermographic inspection workflows.

Standardized flowcell block with adjustable spacers resolves drainage issues while maintaining calibration accuracy.

Optical emission spectrometer detects plasma spectra intensity to predict maintenance needs without adding sensors.

Burst control unit adjusts laser oscillation timing during pause periods to prevent plasma generation and reduce heat load variations on optical elements.

Segmented spectral filters generate replica images for simultaneous multi-wavelength particle detection in flowing streams.

An integrated optical calibration element enables in-use self-calibration, eliminating external reference samples and reducing measurement errors.

A sapphire crystal fiber doped with chromium and titanium ions generates narrow-band and wide-band light beams to enhance Raman scattered light intensity.

A multi-band focal plane array integrates visible and infrared detectors on a single readout circuit for simultaneous spectral detection.

Raman spectroscopy measures acid gas concentrations in amine solutions, replacing manual titration to optimize thermal regeneration energy usage.

Conveyer system moves large samples past an ellipsometer while a height monitoring and controlling system maintains precise distance between the sample surface and the electromagnetic beam source.

Splitting monochromatic pulses into probe and local oscillator beams enables heterodyne detection, overcoming coherence limits in scattering tissue imaging.

An aspherical lens merges collimation and focusing functions to resolve the trade-off between spectral resolution and device volume.

Segmented sensor modules integrate optical components to track object interactions, reducing installation complexity in retail environments.

Electronic control module compensates for distance variations between spectrometer and sample, ensuring accurate spectral distribution measurements.

A photo sensor uses an amplifying element to boost sensing signals from a photosensitive element.

Quantum theory correction method determines radiance factors via energy level structures.

Automated optical sensing replaces subjective manual visual observation with precise infrared reflection detection for accurate burn test evaluation.

Wavelet decomposition of ore froth reflectance spectra replaces slow chemical assays, enabling real-time process control for bitumen recovery optimization.

A rotating chopper wheel with multivariate optical elements processes light signals from samples to enable high-speed property monitoring.

A semiconductor optical sensor measures electrical current via temperature-induced spectral shifts in its absorption edge.

Inserting a thermostatic bath into an outer circuit board slot reduces oscillator height and weight while enhancing electrical connection performance.

Segmented electrode structures allow wafer-state probe inspection while maintaining small parasitic capacitance for high-speed operation.