Differentiable programming simulates endmember variability and iteratively estimates material abundances with physically plausible results.
A zone-trained neural network detects more optical spectrum peaks while limiting crosstalk sensitivity without adding detectors.
Fabry-Perot spectral filters combine with higher-resolution imaging to correct illumination locally across complex scenes.
A single camera combines N-band filtering, varied illumination, and matrix conversion to inspect different optical targets at one angle.
Shared Bragg reflective layers and cavity resonance combine wavelength filtering in a compact structure for chip-integrated image sensors.
A mid-infrared pump and visible probe detect thermal lenses for fast, sensitive imaging without cooled mid-IR detectors.
Coat, divide, test, and select filter portions to simplify optical systems while preserving measurement accuracy and wavelength resolution.
This imaging device uses diffraction and segmented sensor regions to capture multispectral data with less system complexity and computation.
Machine learning converts panel spectra into L*a*b* coordinates and predicts coating adjustments, reducing iterations and material waste.
Measure muscle pH and SmO2 through skin to estimate down time and assess treatment during cardiac arrest.
Pixel-specific filters expand spectral diversity in CMOS sensors while preserving light sensitivity for richer AI imaging inputs.
Measure 300–2,000 nm light intensity variation across cell masses to assess quality without lengthy time-series imaging.