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Beilstein J. Nanotechnol. 2017, 8, 872–882, doi:10.3762/bjnano.8.89
Figure 1: (a) FTIR spectra of PANI emeraldine thin film on a Si wafer. The peaks at 1590 and 1495 cm−1 corres...
Figure 2: (a) UV–vis spectrum of as-deposited PANI thin films. Three characteristic peaks at 360, 430 and 796...
Figure 3: XRD spectra of (a) annealed and (b) as-deposited PANI thin films. After annealing at 80 °C for 4 h,...
Figure 4: Surface roughness of PANI thin films annealed at 25, 40, 60 and 80 °C. The surface roughness of the...
Figure 5: Electrical conductivity of PANI thin films at different annealing temperatures. The conductivity of...
Figure 6: Time dependence of the electrical conductivity of PANI thin films annealed at different temperature...
Figure 7: Resistance of PANI thin films as a function of the relative humidity measured using a two-point pro...
Figure 8: High resolution SEM images of (a) coaxial PANI/pHEMA and (b-c) PANI single component nanotubes.
Figure 9: Resistance of single-component PANI nanotubes as a function of the relative humidity. The competing...
Figure 10: (a) Change in the resistance of coaxial PANI/pHEMA nanotubes with relative humidity. (b) Comparison...
Figure 11: Cyclic resistance measurements of (a) the single component PANI nanotubes at RH% of 35% and 52.8% a...
Figure 12: Fabrication steps of nanostructures. (a) PANI thin films are prepared by coating thin layer of PANI...
Figure 13: Experimental setup of humidity sensor measurements. (a) The sealed box containing the salt solution...