From: Smart computational light microscopes (SCLMs) of smart computational imaging laboratory (SCILab)
Source | Object | Imaging system | Detector | |
---|---|---|---|---|
Principle | Linear decomposition | Diffraction theory | Diffraction or modulation | Discrete sampling and digitization |
Solution | Coherent Modes | Approximation models; | Linear system theory; | Amplitude squared |
Scalar diffraction theory; | superposition; | |||
Vector diffraction theory; | ||||
Model | Wavelength; | Pure phase object [161]; | Point spread function; | Spectral response; |
Intensity distribution; | Thin object approximation [60]; | Coherent transfer function; | Quantum efficiency; | |
Complex amplitude; | Weak object approximation [160]; | Optical transfer function; | Noise statistics; | |
Coherence functions; | Slowly-varying object approximation [85]; | Modulation transfer function; | Bayer filter; | |
Polarization; | Born/Rytvo approximations [100, 162]; | Transmission cross-coefficient; | ||
Multi-slice propagation model [163]; | ||||
Non-negative refractive index [96]; | ||||
Modulation | Wavelength [164]; | Horizontal shift [168]; | Tunable lens [82]; | Lateral/axial displacement [176]; |
Intensity distribution [165]; | Axial shift [169]; | Coded aperture [172]; | Spectrum response cross-talk matrix [177]; | |
Wave vector angle [60]; | Angular rotation [170]; | Spatial light modulator [94]; | Pixelation binning/downsampling [178]; | |
Temporal coherence [154]; | Absorption spectrum distribution [171]; | Microlens array [90]; | Polarization detection [179]; | |
Spatial coherence [155, 166]; | Fluorescence excitation [16, 20]; | Phase plate [173]; | Single pixel detection [180, 181]; | |
Polarization [156, 167]; | etc. | Speckle [174, 175]; | etc. | |
etc. | etc. |