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2 article(s) from Maximean, Doina Manaila

Dielectric properties of a bisimidazolium salt with dodecyl sulfate anion doped with carbon nanotubes

Doina Manaila Maximean,
Viorel Cîrcu and
Constantin Paul Ganea

Beilstein J. Nanotechnol. 2018, 9, 164–174, doi:10.3762/bjnano.9.19

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Figure 1: Schematic representation of the bilayer interdigitated SmA phase of the ILC based on bisimidazolium...

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Scheme 1: Synthesis of bisimidazolium salt with dodecyl sulfate anion: (i) Br(CH₂)₁₀Br, NaH; (ii) C₈H₁₇Br, ac...

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Figure 2: POM pictures of [bisC₈ImC₁₀][C₁₂H₂₅OSO₃]₂ on cooling from the isotropic state: at 318 K (a) and at ...

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Figure 3: DSC traces for [bisC₈ImC₁₀][C₁₂H₂₅OSO₃]₂: (a) first and (b) second heating–cooling cycle recorded i...

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Figure 4: Powder XRD pattern of [bisC₈ImC₁₀][C₁₂H₂₅OSO₃]₂ recorded at 298 K, after cooling from the isotropic...

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Figure 5: Permittivity as a function of the temperature (logarithmic scale) for pure ILC (green solid squares...

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Figure 6: Dielectric loss as a function of the temperature (logarithmic scale) for pure ILC (green solid squa...

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Figure 7: Relaxation time as function of the inverse temperature (logarithm scale) for pure ILC (green solid ...

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Figure 8: Permittivity and dielectric loss as functions of the frequency (logarithmic scale) for the pure ILC...

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Figure 9: Permittivity and dielectric loss as functions of the frequency (logarithmic scale) at different con...

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Figure 10: Real part of the conductivity versus temperature for pure ILC and ILC doped with CNTs, at 10 kHz.

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Figure 11: Real part of the conductivity as a function of the frequency (logarithmic scale) for the pure ILC, ...

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Figure 12: Conductivity as a function of the CNT concentration at three constant temperatures.

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Full Research Paper

Published 16 Jan 2018

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Electrical properties of a liquid crystal dispersed in an electrospun cellulose acetate network

Doina Manaila Maximean,
Octavian Danila,
Pedro L. Almeida and
Constantin Paul Ganea

Beilstein J. Nanotechnol. 2018, 9, 155–163, doi:10.3762/bjnano.9.18

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Figure 1: Schematic representation of morphology and working principle of the electrospun cellulose network w...

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Figure 2: SEM image of deposited electrospun CA fibers.

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Figure 3: Polarizing optical microscopy images of the electrospun CA a) without LC and (b) filled with E7.

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Figure 4: Dielectric constant and dielectric loss (logarithmic scale) as functions of the temperature for (a)...

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Figure 5: Dielectric constant and dielectric loss (logarithmic scale) as functions of the frequency for (a) t...

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Figure 6: Relaxation time as a function of the inverse of temperature for the CA/E7 sample.

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Figure 7: Active and reactive part of the impedance as functions of the frequency, for (a) the CA cell and fo...

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Figure 8: Normalized reactive part of the impedance as a function of the frequency for (a) the CA cell and fo...

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Figure 9: Cole–Cole diagrams for (a) the CA cell at 303 K (black solid squares), 313 K (red solid circles), a...

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Figure 10: Equivalent three-element model circuit, formed by a serial resistance, R_s, a parallel resistance, R_p...

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Figure 11: Optical transmission of the sample CA/E7 as a function of the applied ac electric field.

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Figure 12: Schematic representation of electrospinning cellulose fibers from solution.

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Figure 13: Experimental set-up for the optical transmission measurement.

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Full Research Paper

Published 15 Jan 2018

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