18 Electrochemical Functions of Nanostructured Liquid Crystals …
373
Fig. 18.14 Absorption spectra of a as-deposited and b polymerized thin films of compound 10
dipped in alkaline solution of sodium dithionate. Reproduced from Ref. [34] by permission of The
Royal Society of Chemistry
For as-deposited and polymerized thin films of compound 10, electrical conductivity was increased to 1 × 10
−4 Scm
−1 by 5 orders of magnitude compared to those
of non-doped states by this doping process, as shown in Fig. 18.15a, b. The conductivities of as-deposited and polymerized films were on the same order. For as-deposited
and polymerized thin films of compound 10, the electrical conductivity increased to
3 × 10
−10 and 1 × 10
−9 by the factors of 40 and 5 in the doping process (Fig. 18.15c,
Fig. 18.15 Current–voltage characteristics of non-doped and doped thin films. a As-deposited and
b polymerized films of compound 10, c As-deposited and d polymerized films of compound 11.
Reproduced from Ref. [34] by permission of The Royal Society of Chemistry
373
Fig. 18.14 Absorption spectra of a as-deposited and b polymerized thin films of compound 10
dipped in alkaline solution of sodium dithionate. Reproduced from Ref. [34] by permission of The
Royal Society of Chemistry
For as-deposited and polymerized thin films of compound 10, electrical conductivity was increased to 1 × 10
−4 Scm
−1 by 5 orders of magnitude compared to those
of non-doped states by this doping process, as shown in Fig. 18.15a, b. The conductivities of as-deposited and polymerized films were on the same order. For as-deposited
and polymerized thin films of compound 10, the electrical conductivity increased to
3 × 10
−10 and 1 × 10
−9 by the factors of 40 and 5 in the doping process (Fig. 18.15c,
Fig. 18.15 Current–voltage characteristics of non-doped and doped thin films. a As-deposited and
b polymerized films of compound 10, c As-deposited and d polymerized films of compound 11.
Reproduced from Ref. [34] by permission of The Royal Society of Chemistry