Figures & data
Figure 1. Polarization phase-shifting triple-interferometer. Li: Lens. MO: Microscope objective. BS: Beam splitter. PBS: Polarizing Beam splitter. Pi: Lineal polarizer filters. Mi: Mirrors. Beam cross section a = 2 mm. x0 = 2.5 mm. L1 = 100 mm (Video 1).
![Figure 1. Polarization phase-shifting triple-interferometer. Li: Lens. MO: Microscope objective. BS: Beam splitter. PBS: Polarizing Beam splitter. Pi: Lineal polarizer filters. Mi: Mirrors. Beam cross section a = 2 mm. x0 = 2.5 mm. L1 = 100 mm (Video 1).](/cms/asset/9786d60f-ceca-4bf0-a084-81c3b51bf7e0/tmop_a_1300697_f0001_oc.gif)
Figure 2. Temporal variation of the system showing the (a) four-phase shifted interferograms obtained in a single shot, its corresponding (b) wrapped and (c) unwrapped phase. By taking 1000 frames we obtain the (d) average and (e) standard deviation of each pixel of the demodulated phase.
![Figure 2. Temporal variation of the system showing the (a) four-phase shifted interferograms obtained in a single shot, its corresponding (b) wrapped and (c) unwrapped phase. By taking 1000 frames we obtain the (d) average and (e) standard deviation of each pixel of the demodulated phase.](/cms/asset/c06cf376-3d92-409c-9792-7be65c9e4ec3/tmop_a_1300697_f0002_b.gif)
Figure 5. Human red blood cells (a) π/2-shifted interferograms captured in a single shot. (b) OPD of sample of RBC. (c) OPD of single RBC. (d) Transversal section of RBC.
![Figure 5. Human red blood cells (a) π/2-shifted interferograms captured in a single shot. (b) OPD of sample of RBC. (c) OPD of single RBC. (d) Transversal section of RBC.](/cms/asset/18b7e751-b763-4b50-8608-7020634e1f30/tmop_a_1300697_f0005_oc.gif)
Figure 7. Four plastic microparticles (a) Four π/2-shifted interferograms captured in a single shot. (b)–(c) Slope.
![Figure 7. Four plastic microparticles (a) Four π/2-shifted interferograms captured in a single shot. (b)–(c) Slope.](/cms/asset/519d8ae3-256f-43f6-865a-2321717a37a1/tmop_a_1300697_f0007_oc.gif)