[1] Aviram A., and Ratner M.A., Molecular rectifiers, Chemical Physics Letters, 29, 277-283, November 1974.
[2] Ellenbogen J.C., and Love J.C., Architectures for molecular electronic computers. I. Logic structures and an adder designed from molecular electronic diodes, Proceedings of the IEEE, 88, 386-426, March 2000.
[3] Balzani V., Credi A., and Venturi M., Molecular devices and machines: concepts and perspectives for the nanoworld, John Wiley & Sons, 2008.
[4] Ding S., Peng H., Ren H., Xie T., Yao X., and Song K., Investigation on preparation and properties of novel polyphenylene oxide-based composites by injection molding, Ceramics International, 46, 29067-29072, December 2020.
[5] Nie Y., Zhang H., Miao J., Wang Y., Li Y., Tu D., Yan H., Sun G., and Jiang X., Highly efficient aggregation-induced emission and stimuli-responsive fluorochromism triggered by carborane-induced charge transfer state, Inorganic Chemistry Communications, 106, 1-5, August 2019.
[6] Yaliraki S.N., Kemp M., and Ratner M.A., Conductance of Molecular Wires: Influence of Molecule− Electrode Binding, Journal of the American Chemical Society, 121, 3428-3434, April 1999.
[7] Xue Y., and Ratner M.A., Microscopic study of electrical transport through individual molecules with metallic contacts. I. Band lineup, voltage drop, and high-field transport, Physical Review B, 68, 115406, September 2003.
[8] Long M.Q., Wang L., Chen K.Q., Li X.F., Zou B.S., and Shuai Z., Coupling effect on the electronic transport through dimolecular junctions, Physics Letters A, 365, 489-494, June 2007.
[9] Hong W., Manrique D.Z., Moreno-Garcia P., Gulcur M., Mishchenko A., Lambert C.J., Bryce M.R., and Wandlowski T., Single molecular conductance of tolanes: experimental and theoretical study on the junction evolution dependent on the anchoring group, Journal of the American Chemical Society, 134, 2292-2304, February 2012.
[10] KamiĆski W., Topolnicki R., Hapala P., Jelínek P., and Kucharczyk R., Tuning the conductance of benzene-based single-molecule junctions, Organic Electronics, 34, 254-261, July 2016.
[11] Akbarabadi S.R., and Madadi Asl M., Anchoring groups determine conductance, thermopower and thermoelectric figure of merit of an organic molecular junction, Front. Phys., 9, August 2021.
[12] Tharammal R.K., Kumar A., Rajak A.R., and Gaidhane V.H., Theoretical investigation of design methodology, optimized molecular geometries, and electronic properties of benzene-based single molecular switch with metal nanoelectrodes, Journal of Nanomaterials, September 2020.
[13] He Y., Cheng N., and Zhao J., First- principle study on the conductance of benzene-based molecules with various bonding characteristics, Computational and Theoretical Chemistry, 1154, 1-10, April 2019.
[14] Tseng G.Y., and Ellenbogen J.C., Architectures for molecular electronic computers: 3. Design for a memory cell built from molecular electronic devices, MITRE CORP MCLEAN VA, October 1991.
[15] Li M.J., Xu H., Chen K.Q., and Long M.Q., Electronic transport properties in benzene-based heterostructure: Effects of anchoring groups, Physics Letters A, 376, 1692-1697, April 2012.
[15] Min Y., Zhong C.G., Yang P.P., and Yao K.L., Low bias negative differential resistance in tour wires predicted by first-principles study, Journal of Physics and Chemistry of Solids, 119, 238-241, August 2018.
[16] Nazari H., Ilkhani M., and Mirzaee R.F., Ab initio study of spin polarization and acetylene transition distance effects on structural and transconductance properties of molecular Tour wires, 2nd International Conference on Applied Research in Mathematical Sciences and Physics (MATHCO'19), February 2019 (in Persian).