[1]	Marcus R.A.. Electron transfer reactions in chemistry: theory and experiment (nobel lecture). Rev Mod Physics. 1993; 65: 599-610.

[2]	Ratner M.. A brief history of molecular electronics. Nat Nanotechnol. 2013; 8: 378-381.

[3]	Heath J.R., Ratner M.A.. Molecular electronics. Phys Today. 2003; 43-49.

[4]	Lee T., Wang W., Reed M.A.. Mechanism of electron conduction in self-assembled alkanethiol monolayer devices. Phys Rev B. 2003; 68: 21-35.

[5]	Metzger R.M., Chen B., Höpfner U., Lakshmikantham M.V., Vuillaume D., Kawai T., . Unimolecular electrical rectification in hexadecylquinolinium tricyanoquinodimethanide. J Am Chem Soc. 1997; 119: 10455-10466.

[6]	McCreery R.L.. Molecular electronic junctions. Chem Mater. 2004; 16: 4477-4496.

[7]	Yaliraki S.N., Kemp M., Ratner M.A.. Conductance of molecular wires: influence of molecule-electrode binding. J Am Chem Soc. 1999; 121: 3428-3434.

[8]	Landauer R.. Spatial variation of currents and fields due to localized scatterers in metallic conduction. IBM J Res Dev. 1957; 1: 223-231.

[9]	Maassen J., Lundstrom M.. The Landauer approach to electron and phonon transport. ECS Trans. 2015; 69: 23-36.

[10]	Kim R., Datta S., Lundstrom M.S.. Influence of dimensionality on thermoelectric device performance. J Appl Phys. 2009; 105:

[11]	Majumdar A.. Microscale heat conduction in dielectric thin films. J Heat Transfer. 1993; 115(1): 7-16.

[12]	Scheidemantel T.J., Ambrosch-Draxl C., Thonhauser T., Badding J.V., Sofo J.O.. Transport coefficients from first-principles calculations. Phys Rev B. 2003; 68: 125210.

[13]	Roger L., Datta S.. Nonequilibrium Green's-function method applied to double-barrier resonant-tunneling diodes. Phys Rev B. 1992; 45: 6670-6685.

[14]	Koswatta S.O., Hasan S., Lundstrom M.S., Anantram M.P., Nikonov D.E.. Nonequilibrium Green’s function treatment of phonon scattering in carbon-nanotube transistors. IEEE Trans Electron Devices. 2007; 54: 2339-2351.

[15]	Whitesides G.M., Boncheva M.. Beyond molecules: self-assembly of mesoscopic and macroscopic components. Proc Natl Acad Sci. 2002; 99: 4769-4774.

[16]	Vericat C., Vela M.E., Benitez G., Carro P., Salvarezza R.C.. Self-assembled monolayers of thiols and dithiols on gold: new challenges for a well-known system. Chem Soc Rev. 2010; 39: 1805.

[17]	Kushmerick J.. Molecular transistors scrutinized. Nature. 2009; 462: 994-995.

[18]	Kumar M.J.. Molecular diodes and applications. Recent Pat Nanotechnol. 2007; 1: 51-57.

[19]	Yu H., Luo Y., Beverly K., Stoddart J.F., Tseng H.R., Heath J.R.. The molecule-electrode interface in single-molecule transistors. Angew Chem. 2003; 42: 5706-5711.

[20]	Ghosh A.W., Rakshit T., Datta S.. Gating of a molecular transistor: electrostatic and conformational. Nano Lett. 2004; 4: 565-568.

[21]	Ahn C.H., Bhattacharya A., Di Ventra M., Eckstein J.N., Frisbie C.D., Gershenson M.E., . Electrostatic modification of novel materials. Rev Mod Phys. 2006; 78: 1185-1212.

[22]	Jin C., Solomon G.C.. Controlling band alignment in molecular junctions: utilizing two-dimensional transition-metal dichalcogenides as electrodes for thermoelectric devices. J Phys Chem C. 2018; 122: 14233-14239.

[23]	Flood A.H., Stoddart J.F., Steuerman D.W., Heath J.R.. Whence molecular electronics?. Science. 2004; 306: 2055-2056.

[24]	Chen Y., Jung G.Y., Ohlberg D.A.A., Li X., Stewart D.R., Jeppesen J.O., . Nanoscale molecular-switch crossbar circuits. Nanotechnology. 2003; 14: 462-468.

[25]	Long B., Nikitin K., Fitzmaurice D.. Assembly of an electronically switchable rotaxane on the surface of a titanium dioxide nanoparticle. J Am Chem Soc. 2003; 125: 15490-15498.

[26]	Zhu K., Baggi G., Loeb S.J.. Ring-through-ring molecular shuttling in a saturated [3]rotaxane. Nat Chem. 2018; 10: 625-630.

[27]	Papadopoulos T.A., Grace I.M., Lambert C.J.. Control of electron transport through Fano resonances in molecular wires. Phys Rev B. 2006; 74: 193306.

[28]	Reed M.A., Zhou C., Muller C.J., Burgin T.P., Tour J.M.. Conductance of a molecular junction. Science. 1997; 278: 252-254.

[29]	Joachim C., Gimzewski J.K., Schlittler R.R., Chavy C.. Electronic transparence of a single C60 molecule. Phys Rev Lett. 1995; 74: 2102-2105.

[30]	Eigler D.M., Schweizer E.K.. Positioning single atoms with a scanning tunneling microscope. Nature. 1990; 344: 524-525.

[31]	Sotthewes K., Geskin V., Heimbuch R., Kumar A., Zandvliet H.J.W.. Research update: molecular electronics: the single-molecule switch and transistor. APL Mater. 2014; 2: 010701.

[32]	Joachim C., Gimzewski J.K., Schlittler R.R., Chavy C.. Electronic transparence of a single C60 molecule. Phys Rev Lett. 1995; 74(11): 2102-2105.

[33]	Xu B., Gonella G., Delacy B.G., Dai H.L.. Adsorption of anionic thiols on silver nanoparticles. J Phys Chem C. 2015; 119(10): 5454-5461.

[34]	Heinze S., Tersoff J., Martel R., Derycke V., Appenzeller J., Avouris P.. Carbon nanotubes as schottky barrier transistors. Phys Rev Lett. 2002; 89(10): 106801.

[35]	Javey A., Guo J., Wang Q., Lundstrom M., Dai H.. Ballistic carbon nanotube field-effect transistors. Nature. 2003; 424(6949): 654-657.

[36]	Ebbesen T.W., Lezec H.J., Hiura H., Bennett J.W., Ghaemi H.F., Thio T.. Electrical conductivity of individual carbon nanotubes. Nature. 1996; 382(6586): 54-56.

[37]	Durrani Z.A.K.. Coulomb blockade, single-electron transistors and circuits in silicon. Physica E. 2003; 17: 572-578.

[38]	Averin D.V., Likharev K.K.. Coulomb blockade of single-electron tunneling, and coherent oscillations in small tunnel junctions. J Low Temp Phys. 1986; 62(3–4): 345-373.

[39]	Takahashi N., Ishikuro H., Hiramoto T.. Control of Coulomb blockade oscillations in silicon single electron transistors using silicon nanocrystal floating gates. Appl Phys Lett. 2000; 76(2): 209-211.

[40]	Ali D., Ahmed H.. Coulomb blockade in a silicon tunnel junction device. Appl Phys Lett. 1994; 64(16): 2119-2120.

[41]	Sols F., Guinea F., Neto A.H.C.. Coulomb blockade in graphene nanoribbons. Phys Rev Lett. 2007; 166803: 25-27.

[42]	Liang W., Shores M.P., Bockrath M., Long J.R., Park H.. Kondo resonance in a single-molecule transistor. Nature. 2002; 417(6890): 725-728.

[43]	Mitchell A.K., Pedersen K.G.L., Hedegård P., Paaske J.. Kondo blockade due to quantum interference in single-molecule junctions. Nat Commun. 2017; 8: 15210.

[44]	Park J., Pasupathy A.N., Jonas I., Goldsmith J.I., Chang C., Yaish Y., . Coulomb blockade and the Kondo effect in single-atom transistors. Nature. 2002; 417(6890): 722-725.

[45]	Kouwenhoven L., Glazman L.. Revival of the Kondo effect. Phys World. 2001; 14(1): 33-38.

[46]	Ke S.H., Yang W., Baranger H.U.. Quantum-interference-controlled molecular electronics. Nano Lett. 2008; 8(10): 3257-3261.

[47]	Stafford C.A., Cardamone D.M., Mazumdar S.. The quantum interference effect transistor. Nanotechnology. 2007; 18(42): 424014.

[48]	Guédon C.M., Valkenier H., Markussen T., Thygesen K.S., Hummelen J.C., Van Der Molen S.J.. Observation of quantum interference in molecular charge transport. Nat Nanotechnol. 2012; 7(5): 305-309.

[49]	Chen S., Zhou W., Zhang Q., Kwok Y., Chen G., Ratner M.A.. Can molecular quantum interference effect transistors survive. J Phys Chem. 2017; 8: 5166-5170.

[50]	Aviram A., Ratner M.A.. Molecular rectifiers. Chem Phys Lett. 1974; 29(2): 277-283.

[51]	Roland P., Aviram A.. The effect of electric fields on double-well-potential molecules. Ann New York Acad Sci. 2006; 339-348.

[52]	Ng M.K., Lee D.C., Yu L.. Molecular diodes based on conjugated diblock co-oligomers. J Am Chem Soc. 2002; 124(40): 11862-11863.

[53]	Liu R., Ke S.H., Yang W., Baranger H.U.. Organometallic molecular rectification. J Chem Phys. 2006; 124(2): 1-6.

[54]	Ellenbogen J.C., Love J.C.. Architectures for molecular electronic computers: logic structures and an adder designed from molecular electronic diodes. Proc IEEE. 2000; 88(3): 386-426.

[55]	Kornilovitch P.E., Bratkovsky A.M., Stanley Williams R.. Current rectification by molecules with asymmetric tunneling barriers. Phys Rev B Condens Matter Mater Phys. 2002; 66(16): 1-11.

[56]	Nijhuis C.A., Reus W.F., Whitesides G.M.. Mechanism of rectification in tunneling junctions based on molecules with asymmetric potential drops. J Am Chem Soc. 2010; 132(51): 18386-18401.

[57]	Armstrong N., Hoft R.C., McDonagh A., Cortie M.B., Ford M.J.. Exploring the performance of molecular rectifiers: limitations and factors affecting molecular rectification. Nano Lett. 2007; 7(10): 3018-3022.

[58]	Metzger R.M.. Electrical rectification by a molecule: the advent of unimolecular electronic devices. Acc Chem Res. 1999; 32(11): 950-957.

[59]	Metzger R.M.. Quo vadis, unimolecular electronics?. Nanoscale. 2018; 10(22): 10316-10332.

[60]	Martin A.S., Sambles J.R., Ashwell G.J.. Molecular rectifier. Phys Rev Lett. 1993; 70(2): 218-221.

[61]	Lenfant S., Krzeminski C., Delerue C., Allan G., Vuillaume D.. Molecular rectifying diodes from self-assembly on silicon. Nano Lett. 2003; 3(6): 741-746.

[62]	Vilan A., Shanzer A., Cahen D.. Molecular control over Au/GaAs diodes. Nature. 2000; 404(6774): 166-168.

[63]	Brown E.R., Parker C.D., Mahoney L.J., Molvar K.M.. Oscillations up to 712 GHz in InAs/AISb diodes. Society. 1991; 58: 2291-2293.

[64]	Sun J.P., Haddad G.I., Mazumder P., Schulman J.N.. Resonant tunneling diodes: models and properties. Proc IEEE. 1998; 86(4): 641-660.

[65]	Ellenbogen J.C.. A brief overview of nanoelectronic devices.

[66]	Tsu R, inventor; Tsu R, assignee. Quantum well structures useful for semiconductor devices. United States patent US5216262A. 1993 Jun 1.

[67]	Seminario J.M., Zacarias A.G., Tour J.M.. Theoretical study of a molecular resonant tunneling diode. J Am Chem Soc. 2000; 122(13): 3015-3020.

[68]	Chen J., Reed M.A., Rawlett A.M., Tour J.M.. Large on-off ratios and negative differential resistance in a molecular electronic device. Science. 1999; 286(5444): 1550-1551.

[69]	Lake R, Alam K, Burque NA, Pandey R, inventors; The Regents of the University of California, assignee. Molecular resonant tunneling diode. United States patent US20080035913A1. 2008 Feb 14.

[70]	Campbell I., Rubin S., Zawodzinski T., Kress J., Martin R., Smith D., . Controlling Schottky energy barriers in organic electronic devices using self-assembled monolayers. Phys Rev B Condens Matter. 1996; 54(20): R14321-R14324.

[71]	Dragoman D., Dragoman M.. Terahertz oscillations in semiconducting carbon nanotube resonant-tunneling diodes. Physica E. 2004; 24: 282-289.

[72]	Pandey R.R., Bruque N., Alam K., Lake R.K.. Carbon nanotube—molecular resonant tunneling diode. Phys Status Solidi. 2006; 203(2): R5-R7.

[73]	Bayram C., Vashaei Z., Razeghi M.. AlN/GaN double-barrier resonant tunneling diodes grown by metal–organic chemical vapor deposition. Appl Phys Lett. 2010; 96(4): 2-5.

[74]	Lindsey J.S., Bocian D.F.. Molecules for charge-based information storage. Acc Chem Res. 2011; 44(8): 638-650.

[75]	Kuhr W.G., Gallo A.R., Manning R.W., Rhodine C.W.. Molecular memories based on a CMOS platform. MRS Bull. 2004; 29(11): 838-842.

[76]	Liu Z., Yasseri A.A., Lindsey J.S., Bocian D.F.. Molecular memories that survive silicon device processing and real-world operation. Science. 2003; 302(5650): 1543-1545.

[77]	Roth K.M., Dontha N., Dabke R.B., Gryko D.T., Clausen C., Lindsey J.S., . Molecular approach toward information storage based on the redox properties of porphyrins in self-assembled monolayers. J Vac Sci Technol B. 2000; 18(5): 2359-2364.

[78]	Jurow M., Schuckman A.E., Batteas J.D., Drain C.M.. Porphyrins as molecular electronic components of functional devices. Coord Chem Rev. 2010; 254(19–20): 2297-2310.

[79]	Miller J.R., Simon P.. Electrochemical capacitors for energy management. Science. 2008; 321: 651-652.

[80]	Merlet C., Rotenberg B., Madden P.A., Taberna P.L., Simon P., Gogotsi Y., . On the molecular origin of supercapacitance in nanoporous carbon electrodes. Nat Mater. 2012; 11(4): 306-310.

[81]	Sharma P., Bhatti T.S.. A review on electrochemical double-layer capacitors. Energy Convers Manage. 2010; 51(12): 2901-2912.

[82]	Largeot C., Portet C., Chmiola J., Taberna P.L., Gogotsi Y., Simon P.. Relation between the ion size and pore size for an electric double-layer capacitor. J Am Chem Soc. 2008; 130(9): 2730-2731.

[83]	Chen Z., Lee B., Sarkar S., Gowda S., Misra V.. A molecular memory device formed by HfO2 encapsulation of redox-active molecules. Appl Phys Lett. 2007; 91: 1-4.

[84]	Chen G., Bandow S., Margine E.R., Nisoli C., Kolmogorov A.N., Crespi V.H., . Chemically doped double-walled carbon nanotubes: cylindrical molecular capacitors. Phys Rev Lett. 2003; 90: 257403.

[85]	Madani M.S., Monajjemi M., Aghaei H.. The double wall boron nitride nanotube: nano-cylindrical capacitor. Orient J Chem. 2017; 33(3): 1213-1222.

[86]	Jansen L.. Molecular theory of the dielectric constant. Phys Rev. 1958; 112(2): 434-444.

[87]	Fabrizio M., Tosatti E.. Nonmagnetic molecular Jahn-Teller Mott insulators. Phys Rev B Condens Matter Mater Phys. 1997; 55(20): 13465-13472.

[88]	Mayor M., Weber H.B., Reichert J., Elbing M., Von Hänisch C., Beckmann D., . Electric current through a molecular rod-relevance of the position of the anchor groups. Angew Chem Int Ed. 2003; 42(47): 5834-5838.

[89]	Garner M.H., Li H., Chen Y., Su T.A., Shangguan Z., Paley D.W., . Comprehensive suppression of single-molecule conductance using destructive σ-interference. Nature. 2018; 558(7710): 416-419.

[90]	Meunier M., Quirke N.. Molecular modeling of electron trapping in polymer insulators. J Chem Phys. 2000; 113(1): 369-376.

[91]

Wannebroucq A., Gruntz G., Suisse J.M., Nicolas Y., Meunier-Prest R., Mateos M., . New n-type molecular semiconductor-doped insulator (MSDI) heterojunctions combining a triphenodioxazine (TPDO) and the lutetium bisphthalocyanine (LuPc2) for ammonia sensing. Sens Actuators B Chem. 2018; 255: 1694-1700.

[92]	Tao N.J.. Electron transport in molecular junctions. Nat Nanotechnol. 2006; 1(3): 173-181.

[93]	Salahuddin S., Lundstrom M., Datta S.. Transport effects on signal propagation in quantum wires. IEEE Trans Electron Dev. 2005; 52(8): 1734-1742.

[94]	Tans S.J., Devoret M.H., Dai H., Thess A., Smalley R.E., Geerligs L.J., . Individual single-wall carbon nanotubes as quantum wires. Nature. 1997; 386(6624): 474-477.

[95]	Wang X., Alexander-Webber J.A., Jia W., Reid B.P.L., Stranks S.D., Holmes M.J., . Quantum dot-like excitonic behavior in individual single walled-carbon nanotubes. Sci Rep. 2016; 6(1): 6-11.

[96]	Dresselhaus M.S., Eklund P.C.. Phonons in carbon nanotubes. Adv Phys. 2000; 47(6): 705-814.

[97]	Holmes J.D., Johnston K.P., Doty R.C., Korgel B.A.. Control orientation of thickness and solution-grown nanowires silicon. Adv Sci. 2010; 287: 1471-1473.

[98]	Cahill D.G., Ford W.K., Goodson K.E., Mahan G.D., Majumdar A., Maris H.J., . Nanoscale thermal transport. J Appl Phys. 2003; 93(2): 793-818.

[99]	Zou J., Balandin A.. Phonon heat conduction in a semiconductor nanowire. J Appl Phys. 2001; 89(5): 2932-2938.

[100]

Mingo N., Stewart D.A., Broido D.A., Srivastava D.. Phonon transmission through defects in carbon nanotubes from first principles. Phys Rev B Condens Matter Mater Phys. 2008; 77(3): 3-6.

[101]

Krittayavathananon A., Ngamchuea K., Li X., Batchelor-McAuley C., Kätelhön E., Chaisiwamongkhol K., . Improving single-carbon-nanotube-electrode contacts using molecular electronics. J Phys Chem Lett. 2017; 8(16): 3908-3911.

[102]

Noori M., Sadeghi H., Lambert C.J.. High-performance thermoelectricity in edge-over-edge zinc-porphyrin molecular wires. Nanoscale. 2017; 9(16): 5299-5304.

[103]

Algethami N., Sadeghi H., Sangtarash S., Lambert C.J.. The conductance of porphyrin-based molecular nanowires increases with length. Nano Lett. 2018; 18(7): 4482-4486.

[104]

Cnossen A., Roche C., Anderson H.L.. Scavenger templates: a systems chemistry approach to the synthesis of porphyrin-based molecular wires. Chem Commun. 2017; 53(75): 10410-10413.

[105]

Ratner M.A., Davis B., Kemp M., Mujica V., Roitberg A., Yaliraki S.. Molecular wires: charge transport, mechanisms, and control. Ann New York Acad Sci. 1998; 852: 22-37.

[106]

Wagner R.W., Lindsey J.S., Seth J., Palaniappan V., Bocian D.F.. Molecular optoelectronic gates. J Am Chem Soc. 1996; 118(16): 3996-3997.

[107]

Mirkin C.A., Ratner M.A.. Molecular electronics. Annu Rev Phys Chem. 1992; 43: 719-754.

[108]

Barbara P.F., Meyer T.J., Ratner M.A.. Contemporary issues in electron transfer research. J Phys Chem. 1996; 100(31): 13148-13168.

[109]

Sedghi G., Sawada K., Esdaile L.J., Hoffmann M., Anderson H.L., Bethell D., . Single molecule conductance of porphyrin wires with ultralow attenuation. J Am Chem Soc. 2008; 130(27): 8582-8583.

[110]

Koepf M., Trabolsi A., Elhabiri M., Wytko J.A., Paul D., Albrecht-Gary A.M., . Building blocks for self-assembled porphyrinic photonic wires. Org Lett. 2005; 7(7): 1279-1282.

[111]

Iengo E., Zangrando E., Minatel R., Alessio E.. Metallacycles of porphyrins as building blocks in the construction of higher order assemblies through axial coordination of bridging ligands: solution- and solid-state characterization of molecular sandwiches and molecular wires. J Am Chem Soc. 2002; 124(6): 1003-1013.

[112]

Ambroise A., Kirmaier C., Wagner R.W., Loewe R.S., Bocian D.F., Holten D., . Weakly coupled molecular photonic wires: synthesis and excited-state energy-transfer dynamics. J Org Chem. 2002; 67(11): 3811-3826.

[113]

Robertson N., McGowan C.A.. A comparison of potential molecular wires as components for molecular electronics. Chem Soc Rev. 2003; 32(2): 96-103.

[114]

Ozawa H., Kawao M., Tanaka H., Ogawa T.. Synthesis of dendron-protected porphyrin wires and preparation of a one-dimensional assembly of gold nanoparticles chemically linked to the pi-conjugated wires. Langmuir. 2007; 23(11): 6365-6371.

[115]

Linford M.R., Chidsey C.E.D., Fenter P., Eisenberger P.M.. Alkyl monolayers on silicon prepared from 1-alkenes and hydrogen-terminated silicon. J Am Chem Soc. 1995; 117(11): 3145-3155.

[116]

Hobza P., Selzle H.L., Schlag E.W.. Structure and properties of benzene-containing molecular clusters: nonempirical ab initio calculations and experiments. Chem Rev. 1994; 94(7): 1767-1785.

[117]

Cooper D.L., Gerratt J., Raimondi M.. The electronic structure of the benzene molecule. Nature. 1986; 323(6090): 699-701.

[118]

Kaliginedi V., Moreno-García P., Valkenier H., Hong W., García-Suárez V.M., Buiter P., . Correlations between molecular structure and single-junction conductance: a case study with oligo(phenylene-ethynylene)-type wires. J Am Chem Soc. 2012; 134(11): 5262-5275.

[119]

Stapleton J.J., Harder P., Daniel T.A., Reinard M.D., Yao Y., Price D.W., . Self-assembled oligo(phenylene-ethynylene) molecular electronic switch monolayers on gold: structures and chemical stability. Langmuir. 2003; 19(20): 8245-8255.

[120]

Grozema F.C., Candeias L.P., Swart M., Van Duijnen P.T., Wildeman J., Hadziioanou G., . Theoretical and experimental studies of the opto-electronic properties of positively charged oligo(phenylene vinylene)s: effects of chain length and alkoxy substitution. J Chem Phys. 2002; 117(24): 11366-11378.

[121]

Mishra A., Ma C., Ba P., Oligothiophenes D.. Functional oligothiophenes: molecular design for multidimensional nanoarchitectures and their applications. Chem Rev. 2009; 109(3): 1141-1276.

[122]

Linton K.E., Fox M.A., Pålsson L.O., Bryce M.R.. Oligo(p-phenyleneethynylene) (OPE) molecular wires: synthesis and length dependence of photoinduced charge transfer in OPEs with triarylamine and diaryloxadiazole end groups. Chemistry. 2014; 21(10): 3997-4007.

[123]

Thiele C., Gerhard L., Eaton T.R., Torres D.M., Mayor M., Wulfhekel W., . STM study of oligo(phenylene-ethynylene)s. New J Phys. 2015; 17(5): 2-10.

[124]

Cai L., Yao Y., Yang J., Price D.W., Tour J.M.. Chemical and potential-assisted assembly of thiolacetyl-terminated oligo(phenylene ethynylene)s on gold surfaces. Chem Mater. 2002; 14(7): 2905-2909.

[125]

Nuzzo R.G., Allara D.L.. Adsorption of bifunctional organic disulfides on gold surfaces. J Am Chem Soc. 1983; 105(13): 4481-4483.

[126]

Ulman A.. Formation and structure of self-assembled monolayers. Chem Rev. 1996; 96(4): 1533-1554.

[127]

Jenny N.M., Mayor M., Eaton T.R.. Phenyl-acetylene bond assembly: a powerful tool for the construction of nanoscale architectures. Eur J Org Chem. 2011; 2011(26): 4965-4983.

[128]

Kushmerick J.J., Pollack S.K., Yang J.C., Naciri J., Holt D.B., Ratner M.A., . Understanding charge transport in molecular electronics. Ann New York Acad Sci. 2003; 1006(1): 277-290.

[129]

Kushmerick J.G., Holt D.B., Pollack S.K., Ratner M.A., Yang J.C., Schull T.L., . Effect of bond-length alternation in molecular wires. J Am Chem Soc. 2002; 124(36): 10654-10655.

[130]

Rosenthal I.. Phthalocyanines as photodynamic sensitizers. Photochem Photobiol. 1991; 53(6): 859-870.

[131]

Spikes J.D.. Phthalocyanines as photosensitizers in biological systems and for the photodynamic therapy of tumors. Photochem Photobiol. 1986; 43(6): 691-699.

[132]

Saiki T., Mori S., Ohara K., Naito T.. Capacitor-like behavior of molecular crystal β-Dicc[Ni(dmit)2]. Chem Lett. 2014; 43(7): 1119-1121.

[133]

Rodríguez-Salcedo J., Vivas-Reyes R., Zapata-Rivera J.. Characterization of charge transfer mechanisms in the molecular capacitor β-DiCC[Ni(dmit)2] using TD–DFT methods. Comput Theor Chem. 2017; 1109: 36-41.

[134]

Braun E., Eichen Y., Sivan U., Ben-Yoseph G.. DNA-templated assembly and electrode attachment of a conducting silver wire. Nature. 1998; 391(6669): 775-778.

[135]

Zhou Y.X., Johnson A.T., Hone J., Smith W.F.. Simple fabrication of molecular circuits by shadow mask evaporation. Nano Lett. 2003; 3(10): 1371-1374.

[136]

Fuchs JN, Goerbig MO. Introduction to the physical properties of grapheme [Internet]. 2008 [cited 2018 Oct 16]. Available from: https://www.equipes.lps.u-psud.fr/m2structure/m2pdfpracticals/2-Lecture%20on%20graphene.pdf.

[137]

Dedkov Y., Voloshina E.. Graphene growth and properties on metal substrates. J Phys Condens Matter. 2015; 27: 303002.

[138]

Georgantzinos S.K., Giannopoulos G.I., Anifantis N.K.. Numerical investigation of elastic mechanical properties of graphene structures. Mater Des. 2010; 31(10): 4646-4654.

[139]

Torres T.. Graphene chemistry. Chem Soc Rev. 2017; 46(15): 4385-4386.

[140]

Liu Y., Xie B., Zhang Z., Zheng Q., Xu Z.. Mechanical properties of graphene papers. J Mech Phys Solids. 2012; 60(4): 591-605.

[141]

Wang G., Kim Y., Choe M., Kim T.W., Lee T.. A new approach for molecular electronic junctions with a multilayer graphene electrode. Adv Mater. 2011; 23(6): 755-760.

[142]

Liu J., Yin Z., Cao X., Zhao F., Lin A., Xie L., . Bulk heterojunction polymer memory devices with reduced graphene oxide as electrodes. ACS Nano. 2010; 4(7): 3987-3992.

[143]

Di C.A., Wei D., Yu G., Liu Y., Guo Y., Zhu D.. Patterned graphene as source/drain electrodes for bottom-contact organic field-effect transistors. Adv Mater. 2008; 20(17): 3289-3293.

[144]

Wang X., Zhi L., Müllen K.. Transparent, conductive graphene electrodes for dye-sensitized solar cells. Nano Lett. 2008; 8(1): 323-327.

[145]

Supur M., Van Dyck C., Bergren A.J., McCreery R.L.. Bottom-up, robust graphene ribbon electronics in all-carbon molecular junctions. ACS Appl Mater Interfaces. 2018; 10(7): 6090-6095.

[146]

Jeong I., Song H.. Structural and charge transport properties of molecular tunneling junctions with single-layer graphene electrodes. J Korean Phys Soc. 2018; 72(3): 394-399.

[147]

Dou K.P., Kaun C.C., Zhang R.Q.. Selective interface transparency in graphene nanoribbon based molecular junctions. Nanoscale. 2018; 10(10): 4861-4864.

[148]

Zhong Y., Kumar B., Oh S., Trinh M.T., Wu Y., Elbert K., . Helical ribbons for molecular electronics. J Am Chem Soc. 2014; 136(22): 8122-8130.

[149]

Kimouche A., Ervasti M.M., Drost R., Halonen S., Harju A., Joensuu P.M., . Ultra-narrow metallic armchair graphene nanoribbons. Nat Commun. 2015; 6(1): 1-6.

[150]

Fang F.. Atomic and close-to-atomic scale manufacturing—a trend in manufacturing development. Front Mech Eng. 2016; 4(4): 325-327.

[151]

Sharath Kumar J., Murmu N.C., Kuila T.. Recent trends in the graphene-based sensors for the detection of hydrogen peroxide. AIMS Mater Sci. 2018; 5(3): 422-466.

[152]

Wang L., Wang L., Zhang L., Xiang D.. Advance of mechanically controllable break junction for molecular electronics. Top Curr Chem. 2017; 375(3): 1-42.

[153]

Dubois V., Raja S.N., Gehring P., Caneva S., van der Zant H.S.J., Niklaus F., . Massively parallel fabrication of crack-defined gold break junctions featuring sub-3 nm gaps for molecular devices. Nat Commun. 2018; 9(1): 3433.

[154]

Vilan A., Aswal D., Cahen D.. Large-area, ensemble molecular electronics: motivation and challenges. Chem Rev. 2017; 117(5): 4248-4286.

[155]

Mishra A., Jagtap S.. Moletronics. Int J Sci Eng Res. 2016; 7(2): 25-28.

[156]

Newton M.D., Sutin N.. Electron transfer reactions in condensed phases. Annu Rev Phys Chem. 1984; 35: 437-480.

[157]

Dutton P.L., Prince R.C., Tiede D.M.. Reaction center of photosynthetic bacteria. Photochem Photobiol. 1978; 28: 939-949.

[158]

Patil A., Saha D., Ganguly S.. A quantum biomimetic electronic nose sensor. Sci Rep. 2018; 8(1): 1-8.

[159]

Dubi Y., Di Ventra M.. Colloquium: heat flow and thermoelectricity in atomic and molecular junctions. Rev Mod Phys. 2011; 83(1): 131-155.

[160]

Cui L., Miao R., Wang K., Thompson D., Zotti L.A., Cuevas J.C., . Peltier cooling in molecular junctions. Nat Nanotechnol. 2018; 13(2): 122-127.

[161]

Wu Q., Sadeghi H., García-Suárez V.M., Ferrer J., Lambert C.J.. Thermoelectricity in vertical graphene-C60-graphene architectures. Sci Rep. 2017; 7: 1-8.

[162]

Gould P.. Moletronics closes in on silicon. Mater Today. 2005; 8(7): 56-60.