Testing Optical Properties TRIZ Cases

Extracting the lens support from the optical path eliminates surface imperfections that interfere with defect identification.

Linearizing the optical transfer function eliminates iterative minimization, reducing calculation time for real-time onboard systems.

Segmented diffraction element produces interference patterns from incoherent light for wafer-level optical phase detection.

Wavefront sensors detect fiducial mark positions to measure angular errors, resolving misalignment risks that degrade astigmatism correction outcomes.

A lens evaluation device calculates a difference index from measured power distribution to quantify optical characteristics.

Pre-calibrated probe heads compensate for manufacturing tolerances to maintain coupling efficiency variations under 0.5 dB across high port counts.

An optical reflectometer corrects spectrum spread using a monitoring beat signal to maintain measurement accuracy.

Adjusting manufacturing parameters based on modulation transfer function values reduces optical distortion in glazing films at high angles of incidence.

Dual optical two-tone signals enable accurate common mode rejection ratio measurement across wide bands by adjusting amplitude and delay time.

Adjusting pixel aperture ratios across distinct display regions to balance brightness levels in large OLED panels.

A lens evaluation device uses a point light source array and imaging unit to capture stack images for aberration calculation.

Mirrors reflect on-axis light rays to project patterns onto the periphery of an image sensor, removing distance restrictions between the chart and the device.

Segmented cuvette design immerses a stationary inspection window to maintain lens position, eliminating settling delays during ophthalmic lens testing.

A wave front sensor divides incident beams into derivative paths with varying polarizations and optical lengths for a common detector.

Computing mode field diameter from combined light intensities eliminates complex multiplexers, simplifying multimode fiber testing.

A detection lens system uses a double-Gauss structure to simulate human eye observation for head-mounted displays.

Spatial light modulators adjust waveguide lengths to correct electromagnetic phase errors across multiple wavelengths simultaneously.

A movable disc positions wafer-level metalenses for optical detection without assembly.

Reflected light imaging detects transparent connecting resin position in optical fiber ribbons, solving low contrast issues at high traveling speeds.

A collimated optical instrument uses a backscatterer to capture clear images of micro-engravings on ophthalmic lenses.

A LiDAR field of view measurement apparatus uses a reflective surface and camera to determine light source projection geometry.

A visible light source adjusts its power level based on real-time optical fiber characterization data.

Scanning optical system directs linear luminous flux through a Hartmann plate to photograph point images on a fixed screen.

A distance measuring apparatus detects optical system abnormalities by comparing measured distance values with light intensity against reference thresholds.

A controller adjusts actuators by matching spectral responses against a reference device, reducing computational complexity and observing time.

A camera testing box uses a light diffusion sheet and photographic film to control illumination distribution.

A wavelength dispersion measuring method uses Rayleigh scattering to calculate dispersion from scattered light amplitudes at multiple points along an optical waveguide.

A dimming tester station uses a rotatable motion stage to position optical objects between cameras and light panels for transmittance analysis.

A wavefront measurement device uses a first lens array and concave lens to condense split light beams for accurate detection.

Multi-position light sources enable simultaneous acquisition of intensity distributions, resolving the contradiction between measurement precision and time.

An optical measurement device uses telecentric emission and adjustable light paths to resolve focal length mismatches in head-mounted display testing.

An inspection apparatus projects light through an eyepiece to capture leaked radiation via mirrors and a telecentric camera.

A lens distortion measurement system positions dots on a test card using a planar coordinate system to calculate optical aberrations.

Digital image cells capture emitting surface luminance for automated photometric control of automotive lighting units.

Merging transfer function and interferometer functions into one platform reduces equipment complexity while maintaining measurement precision.

A phase contrast imaging unit inspects ophthalmic lenses by translating refractive index differences into intensity variations.

Machining head uses separate measuring light to detect thermal focal shifts, ensuring precise spot positioning.

A lens measurement device uses dual wavelengths and an index plate to capture optical characteristics and lens information simultaneously.

Segmented metrology structures measure full critical dimension ranges to resolve etch density effects in metasurface manufacturing.