2 article(s) from Geivandov, Artur R
Figure 1: Electron microscope image of a grating with period p = 350 nm, duty factor w/p = 1/3.
Figure 2: Schematic layout of the gratings on the sample; the arrow on the left indicates the rubbing directi...
Figure 3:
Photos of the liquid crystal cell under polarized light: (a) , the sample axis (rubbing direction) ...
Figure 4: The transmittance for the grating with p = 300 nm and w/p = 1/2 versus wavelength (a) and wavenumbe...
Figure 5: The Fourier transform spectra of the transmittance spectra given in Figure 4b (grating p = 300 nm, w/p = 1/2...
Figure 6: Fourier transform spectra vs grating geometry.
Figure 1: Experimental LC cell geometry.
Figure 2: Experimentally measured electrooptical response for (a) E7 and (b) ZLI 1957/5 LC cells with chromiu...
Figure 3: Grayscale performance of E7 and ZLI 1957/5 LC cells with chromium electrodes, w/g = 0.5 (p = 6 μm), ...
Figure 4: Measured response times τon (a, c) and τoff (b, d) for E7 (c, d) and ZLI 1957/5 (a, b) LC mixtures ...
Figure 5: Polarized-light microscopy photographs of LC cells with electrode fingers at 45° with respect to th...
Figure 6: a) Top view showing the simulated local transmittance of an E7 LC cell with d = 3 µm and w/g = 0.5 (...
Figure 7: Simulated electrooptical response of an E7 LC cell with transparent electrodes: w/g = 0.5 (p = 6 μm...
Figure 8: Simulated distribution of the local transmittance of an E7 LC cell with w/g = 2.0 (p = 3 µm) and d ...
Figure 9: Simulated local transmittance response in an E7 LC cell with w/g = 2.0 µm (p = 3 µm) and d = 4 µm d...
Figure 10: Relaxation time of an E7 LC layer of thickness d = 3.5 µm as a function of p for different ratios w/...
Figure 11: Simulated electrooptical response for rectangular pulses of duration Δt = 2, 5, 10 and 15 ms applie...
Figure 12: Simulated electrooptical response for E7 LC cells with transparent and opaque electrodes (p = 3 µm ...