The electronic ground state structure of the charge transfer molecular complex TTF-TCNE is investigated on the basis of its electronic and vibrational spectra. Highly oriented polycrystalline films and the spectra of the fully deuterated complex, TTF-d(4)-TCNE, allow one to obtain a full exploitation of the spectra. Using the vibrational frequencies as local probes of the electronic structure one finds a value of 0.5+/-0.1 for the degree of charge transfer of this molecular solid. This partial degree of charge transfer and the alternation of self-dimers of TTF and TCNE along the one-dimensional electronic pi-structure reveal themselves in the vibrational spectra and particularly in the charge transfer vibronic resonances present in the infr...
We present the results of spectral studies of Et$_4$N[ Au(dmit)$_2$TCNQ] salt containing alternatin...
International audienceWe performed first principles calculations using the projector augmented wave ...
$^{1}$E. E. Ferguson and I. Y. Chang, J. Chem. Phys. 34, 628 (1961) and references cited. $^{*}$TCNQ...
The vibrational spectra of the charge transfer complex of TTF with TCNE are explored. It is found th...
A fundamental aspect in the study of the charge–transfer (CT) organic crystals with ionic or partial...
Recently synthesized organic charge-transfer crystals have been shown to display an interesting stac...
The electronic and structural characterization of the title charge transfer (CI) complex is carried ...
Author Institution: Ames Laboratory-ERDA and Department of Chemistry, Iowa State UniversityRaman spe...
International audienceThe room-temperature infrared and Raman spectra of a series of four isostructu...
The powder Raman spectra and the polarized infrared absorption spectra of a polycrystalline oriented...
Near-normal specular reflection spectroscopy was used to obtain the polarized electronic spectra fro...
The electronic properties of a charge-transfer (donor-acceptor) semiconducting organic co-crystal, P...
The vibrational and vibronic data which enable one to use the strong electron acceptor TCNQF4 as a p...
Charge-transfer crystals exhibit unique electronic and magnetic properties with interesting applicat...
We report resonance Raman scattering (RRS) spectra and Raman excitation profiles (REP) of a system c...
We present the results of spectral studies of Et$_4$N[ Au(dmit)$_2$TCNQ] salt containing alternatin...
International audienceWe performed first principles calculations using the projector augmented wave ...
$^{1}$E. E. Ferguson and I. Y. Chang, J. Chem. Phys. 34, 628 (1961) and references cited. $^{*}$TCNQ...
The vibrational spectra of the charge transfer complex of TTF with TCNE are explored. It is found th...
A fundamental aspect in the study of the charge–transfer (CT) organic crystals with ionic or partial...
Recently synthesized organic charge-transfer crystals have been shown to display an interesting stac...
The electronic and structural characterization of the title charge transfer (CI) complex is carried ...
Author Institution: Ames Laboratory-ERDA and Department of Chemistry, Iowa State UniversityRaman spe...
International audienceThe room-temperature infrared and Raman spectra of a series of four isostructu...
The powder Raman spectra and the polarized infrared absorption spectra of a polycrystalline oriented...
Near-normal specular reflection spectroscopy was used to obtain the polarized electronic spectra fro...
The electronic properties of a charge-transfer (donor-acceptor) semiconducting organic co-crystal, P...
The vibrational and vibronic data which enable one to use the strong electron acceptor TCNQF4 as a p...
Charge-transfer crystals exhibit unique electronic and magnetic properties with interesting applicat...
We report resonance Raman scattering (RRS) spectra and Raman excitation profiles (REP) of a system c...
We present the results of spectral studies of Et$_4$N[ Au(dmit)$_2$TCNQ] salt containing alternatin...
International audienceWe performed first principles calculations using the projector augmented wave ...
$^{1}$E. E. Ferguson and I. Y. Chang, J. Chem. Phys. 34, 628 (1961) and references cited. $^{*}$TCNQ...