Reflective-coated filaments reshape circular light input into a slit output, cutting coupling loss and stabilizing spectrometer collimation.
Diffractive focusing features and partial wavelength filters improve color sensing sensitivity, resolution, and noise tolerance without absorptive filters.
A diffractive beam splitter creates spatially separated, focus-offset sub-beams to improve weak infrared beam analysis and droplet positioning.
Diffractive beam splitting creates spatially separated partial beams with focus offsets, improving low-intensity beam and droplet position measurement.
Diffractive focusing elements and partial wavelength filters improve low-light color accuracy while reducing crosstalk and light loss.
Opposed cholesteric liquid crystal layers and a C-plate maintain diffraction efficiency at high angles for compact, faster spectrum measurement.
Magnetic elements replace bulky photodetectors to detect reflected or transmitted light, enabling compact spectral analysis in portable terminals.
A flat grating with stretchable or low-friction sections is transferred onto curved substrates to prevent wrinkling and keep blaze angles uniform.
A transferred grating pattern is thermally shrunk on resin to create sub-wavelength grooves beyond lithography limits for higher analysis sensitivity.
Second-order diffraction distorts spectrophotometer color readings; wavelength-dependent ratios correct raw data without costly optical filters.
Wide-range spectrometers can lose diffraction efficiency; dedicated detection regions route selected orders for simultaneous wavelength measurement.
A multi-grating monochromator separates polarization paths for continuous wavelength scanning and more precise semiconductor measurement.
Light guides route each wavelength to its optimized diffractive network, reducing crosstalk for accurate, energy-efficient detection.
A micromechanical dispersive element deflects light about two axes to achieve simultaneous spectral and spatial resolution.
Dual orthogonal gratings decouple polarization sensitivity to enable wavelength tuning via polar angle variation.
An intermediary rigid substrate preserves groove pattern geometry during transfer, eliminating shape variations and mismatched intervals on curved surfaces.
A dual resolution spectrometer separates light into two wavelength regions using distinct mirrors and a diffraction grating.
A metrology apparatus extracts radiation components from a reflected beam using orthogonal polarization states and spatial filtering in the downstream pupil plane.
A monochromator calibration method measures reflected light intensity multiple times within each power supply cycle to locate the peak wavelength accurately.
A light irradiation apparatus splits white light into multiple wavelengths using a diffraction grating and scanning mirror for precise selection.
A particle analyzer detects decalibration by monitoring the Mie peak position in the digital channel of the size-dependent frequency distribution.
Segmented optical detectors isolate blood glucose signals from interfering tissue layers while light funnels increase collected power.
ZnSe enables ductile-mode diamond tooling on the grating surface, resolving precision and productivity trade-offs in infrared spectroscopic apparatuses.
Segmented entrance apertures and single-pixel detectors boost light throughput while resolving spectral resolution trade-offs.
A spectral character shift optic system transmits measurement data via a single fiber.
A phase grating suppresses out-of-band radiation in EUV mask inspection systems.
A tunable filter testing system converts spectral changes into spatial movements using a beam splitting element and image recording device.
Sub-wavelength grating Fabry-Perot resonators enable on-chip spectral analysis, resolving the weight and volume constraints of conventional spectrometers.