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

[ 2 ] Ratner M. A brief history of molecular electronics. Nat Nanotechnol 2013;8:378–81. 链接1

[ 3 ] Heath JR, Ratner MA. Molecular electronics. Phys Today 2003:43–9.

[ 4 ] Lee T, Wang W, Reed MA. Mechanism of electron conduction in selfassembled alkanethiol monolayer devices. Phys Rev B 2003;68:21–35. 链接1

[ 5 ] Metzger RM, Chen B, Höpfner U, Lakshmikantham MV, Vuillaume D, Kawai T, et al. Unimolecular electrical rectification in hexadecylquinolinium tricyanoquinodimethanide. J Am Chem Soc 1997;119:10455–66. 链接1

[ 6 ] McCreery RL. Molecular electronic junctions. Chem Mater 2004;16:4477–96.

[ 7 ] Yaliraki SN, Kemp M, Ratner MA. Conductance of molecular wires: influence of molecule-electrode binding. J Am Chem Soc 1999;121:3428–34. 链接1

[ 8 ] Landauer R. Spatial variation of currents and fields due to localized scatterers in metallic conduction. IBM J Res Dev 1957;1:223–31.

[ 9 ] Maassen J, Lundstrom M. The Landauer approach to electron and phonon transport. ECS Trans 2015;69:23–36. 链接1

[10] Kim R, Datta S, Lundstrom MS. Influence of dimensionality on thermoelectric device performance. J Appl Phys 2009;105. 链接1

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

[12] Scheidemantel TJ, Ambrosch-Draxl C, Thonhauser T, Badding JV, Sofo JO. Transport coefficients from first-principles calculations. Phys Rev B 2003;68:125210. 链接1

[13] Roger L, Datta S. Nonequilibrium Green’s-function method applied to doublebarrier resonant-tunneling diodes. Phys Rev B 1992;45:6670–85. 链接1

[14] Koswatta SO, Hasan S, Lundstrom MS, Anantram MP, Nikonov DE. Nonequilibrium Green’s function treatment of phonon scattering in carbonnanotube transistors. IEEE Trans Electron Devices 2007;54:2339–51. 链接1

[15] Whitesides GM, Boncheva M. Beyond molecules: self-assembly of mesoscopic and macroscopic components. Proc Natl Acad Sci 2002;99:4769–74. 链接1

[16] Vericat C, Vela ME, Benitez G, Carro P, Salvarezza RC. Self-assembled monolayers of thiols and dithiols on gold: new challenges for a well-known system. Chem Soc Rev 2010;39:1805. 链接1

[17] Kushmerick J. Molecular transistors scrutinized. Nature 2009;462:994–5. 链接1

[18] Ellenbogen JC, Love JC. Architectures for molecular electronic computers: 1. Logic structures and an adder designed from molecular electronic diodes. Proc IEEE 2000;88:386–426. 链接1

[19] Yu H, Luo Y, Beverly K, Stoddart JF, Tseng HR, Heath JR. The moleculeelectrode interface in single-molecule transistors. Angew Chem 2003;42:5706–11. 链接1

[20] Ghosh AW, Rakshit T, Datta S. Gating of a molecular transistor: electrostatic and conformational. Nano Lett 2004;4:565–8. 链接1

[21] Ahn CH, Bhattacharya A, Di Ventra M, Eckstein JN, Frisbie CD, Gershenson ME, et al. Electrostatic modification of novel materials. Rev Mod Phys 2006;78:1185–212. 链接1

[22] Jin C, Solomon GC. Controlling band alignment in molecular junctions: utilizing two-dimensional transition-metal dichalcogenides as electrodes for thermoelectric devices. J Phys Chem C 2018;122:14233–9. 链接1

[23] Flood AH, Stoddart JF, Steuerman DW, Heath JR. Whence molecular electronics? Science 2004;306:2055–6. 链接1

[24] Chen Y, Jung GY, Ohlberg DAA, Li X, Stewart DR, Jeppesen JO, et al. Nanoscale molecular-switch crossbar circuits. Nanotechnology 2003;14:462–8. 链接1

[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;125:15490–8. 链接1

[26] Zhu K, Baggi G, Loeb SJ. Ring-through-ring molecular shuttling in a saturated [3]rotaxane. Nat Chem 2018;10:625–30. 链接1

[27] Papadopoulos TA, Grace IM, Lambert CJ. Control of electron transport through Fano resonances in molecular wires. Phys Rev B 2006;74:193306. 链接1

[28] Reed MA, Zhou C, Muller CJ, Burgin TP, Tour JM. Conductance of a molecular junction. Science 1997;278:252–4. 链接1

[29] Joachim C, Gimzewski JK, Schlittler RR, Chavy C. Electronic transparence of a single C60 molecule. Phys Rev Lett 1995;74:2102–5. 链接1

[30] Eigler DM, Schweizer EK. Positioning single atoms with a scanning tunneling microscope. Nature 1990;344:524–6. 链接1

[31] Sotthewes K, Geskin V, Heimbuch R, Kumar A, Zandvliet HJW. Research update: molecular electronics: the single-molecule switch and transistor. APL Mater 2014;2:010701. 链接1

[32] Joachim C, Gimzewski JK, Schlittler RR, Chavy C. Electronic transparence of a single C60 molecule. Phys Rev Lett 1995;74(11):2102–5. 链接1

[33] Xu B, Gonella G, Delacy BG, Dai HL. Adsorption of anionic thiols on silver nanoparticles. J Phys Chem C 2015;119(10):5454–61. 链接1

[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. 链接1

[35] Javey A, Guo J, Wang Q, Lundstrom M, Dai H. Ballistic carbon nanotube fieldeffect transistors. Nature 2003;424(6949):654–7. 链接1

[36] Ebbesen TW, Lezec HJ, Hiura H, Bennett JW, Ghaemi HF, Thio T. Electrical conductivity of individual carbon nanotubes. Nature 1996;382(6586):54–6. 链接1

[37] Durrani ZAK. Coulomb blockade, single-electron transistors and circuits in silicon. Physica E 2003;17:572–8. 链接1

[38] Averin DV, Likharev KK. Coulomb blockade of single-electron tunneling, and coherent oscillations in small tunnel junctions. J Low Temp Phys 1986;62(3–4):345–73. 链接1

[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):209–11. 链接1

[40] Ali D, Ahmed H. Coulomb blockade in a silicon tunnel junction device. Appl Phys Lett 1994;64(16):2119–20. 链接1

[41] Sols F, Guinea F, Neto AHC. Coulomb blockade in graphene nanoribbons. Phys Rev Lett 2007;166803:25–7. 链接1

[42] Liang W, Shores MP, Bockrath M, Long JR, Park H. Kondo resonance in a single-molecule transistor. Nature 2002;417(6890):725–8. 链接1

[43] Mitchell AK, Pedersen KGL, Hedegård P, Paaske J. Kondo blockade due to quantum interference in single-molecule junctions. Nat Commun 2017;8:15210. 链接1

[44] Park J, Pasupathy AN, Jonas I, Goldsmith JI, Chang C, Yaish Y, et al. Coulomb blockade and the Kondo effect in single-atom transistors. Nature 2002;417 (6890):722–5. 链接1

[45] Kouwenhoven L, Glazman L. Revival of the Kondo effect. Phys World 2001;14 (1):33–8. 链接1

[46] Ke SH, Yang W, Baranger HU. Quantum-interference-controlled molecular electronics. Nano Lett 2008;8(10):3257–61. 链接1

[47] Stafford CA, Cardamone DM, Mazumdar S. The quantum interference effect transistor. Nanotechnology 2007;18(42):424014. 链接1

[48] Guédon CM, Valkenier H, Markussen T, Thygesen KS, Hummelen JC, Van Der Molen SJ. Observation of quantum interference in molecular charge transport. Nat Nanotechnol 2012;7(5):305–9. 链接1

[49] Chen S, Zhou W, Zhang Q, Kwok Y, Chen G, Ratner MA. Can molecular quantum interference effect transistors survive. J Phys Chem 2017;8:5166–70. 链接1

[50] Aviram A, Ratner MA. Molecular rectifiers. Chem Phys Lett 1974;29 (2):277–83.

[51] Roland P, Aviram A. The effect of electric fields on double-well-potential molecules. Ann New York Acad Sci 2006:339–48. 链接1

[52] Ng MK, Lee DC, Yu L. Molecular diodes based on conjugated diblock cooligomers. J Am Chem Soc 2002;124(40):11862–3. 链接1

[53] Liu R, Ke SH, Yang W, Baranger HU. Organometallic molecular rectification. J Chem Phys 2006;124(2):1–6. 链接1

[54] Kornilovitch PE, Bratkovsky AM, Stanley Williams R. Current rectification by molecules with asymmetric tunneling barriers. Phys Rev B Condens Matter Mater Phys 2002;66(16):1–11. 链接1

[55] Nijhuis CA, Reus WF, Whitesides GM. Mechanism of rectification in tunneling junctions based on molecules with asymmetric potential drops. J Am Chem Soc 2010;132(51):18386–401. 链接1

[56] Armstrong N, Hoft RC, McDonagh A, Cortie MB, Ford MJ. Exploring the performance of molecular rectifiers: limitations and factors affecting molecular rectification. Nano Lett 2007;7(10):3018–22. 链接1

[57] Metzger RM. Electrical rectification by a molecule: the advent of unimolecular electronic devices. Acc Chem Res 1999;32(11):950–7. 链接1

[58] Metzger RM. Quo vadis, unimolecular electronics? Nanoscale 2018;10 (22):10316–32. 链接1

[59] Martin AS, Sambles JR, Ashwell GJ. Molecular rectifier. Phys Rev Lett 1993;70 (2):218–21.

[60] Lenfant S, Krzeminski C, Delerue C, Allan G, Vuillaume D. Molecular rectifying diodes from self-assembly on silicon. Nano Lett 2003;3(6):741–6. 链接1

[61] Vilan A, Shanzer A, Cahen D. Molecular control over Au/GaAs diodes. Nature 2000;404(6774):166–8. 链接1

[62] Brown ER, Parker CD, Mahoney LJ, Molvar KM. Oscillations up to 712 GHz in InAs/AISb diodes. Society 1991;58:2291–3. 链接1

[63] Sun JP, Haddad GI, Mazumder P, Schulman JN. Resonant tunneling diodes: models and properties. Proc IEEE 1998;86(4):641–60. 链接1

[64] Ellenbogen JC, inventor. Monomolecular electronic device. United States patent US 6339227. 2002 Jan 15.

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

[66] Seminario JM, Zacarias AG, Tour JM. Theoretical study of a molecular resonant tunneling diode. J Am Chem Soc 2000;122(13):3015–20. 链接1

[67] Chen J, Reed MA, Rawlett AM, Tour JM. Large on-off ratios and negative differential resistance in a molecular electronic device. Science 1999;286 (5444):1550–1. 链接1

[68] 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. 链接1

[69] Campbell I, Rubin S, Zawodzinski T, Kress J, Martin R, Smith D, et al. Controlling Schottky energy barriers in organic electronic devices using selfassembled monolayers. Phys Rev B Condens Matter 1996;54(20):R14321–4. 链接1

[70] Ellenbogen JC. A brief overview of nanoelectronic devices. In: Proceedings of the 1998 Government Microelectronics Applications Conference; 1998 Mar 13–16; Arlington, TX, USA; 1998.

[71] Goldhaber-Gordon D, Montemerlo MS, Love JC, Opiteck GJ, Ellenbogen JC. Overview of nanoelectronic devices. Proc IEEE 1997;85:521–40. 链接1

[72] Dragoman D, Dragoman M. Terahertz oscillations in semiconducting carbon nanotube resonant-tunneling diodes. Physica E 2004;24:282–9. 链接1

[73] Pandey RR, Bruque N, Alam K, Lake RK. Carbon nanotube—molecular resonant tunneling diode. Phys Status Solidi 2006;203(2):R5–7. 链接1

[74] 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. 链接1

[75] Lindsey JS, Bocian DF. Molecules for charge-based information storage. Acc Chem Res 2011;44(8):638–50. 链接1

[76] Kuhr WG, Gallo AR, Manning RW, Rhodine CW. Molecular memories based on a CMOS platform. MRS Bull 2004;29(11):838–42. 链接1

[77] Liu Z, Yasseri AA, Lindsey JS, Bocian DF. Molecular memories that survive silicon device processing and real-world operation. Science 2003;302 (5650):1543–5. 链接1

[78] Roth KM, Dontha N, Dabke RB, Gryko DT, Clausen C, Lindsey JS, et al. Molecular approach toward information storage based on the redox properties of porphyrins in self-assembled monolayers. J Vac Sci Technol B 2000;18(5):2359–64. 链接1

[79] Jurow M, Schuckman AE, Batteas JD, Drain CM. Porphyrins as molecular electronic components of functional devices. Coord Chem Rev 2010;254 (19–20):2297–310. 链接1

[80] Miller JR, Simon P. Electrochemical capacitors for energy management. Science 2008;321:651–2. 链接1

[81] Merlet C, Rotenberg B, Madden PA, Taberna PL, Simon P, Gogotsi Y, et al. On the molecular origin of supercapacitance in nanoporous carbon electrodes. Nat Mater 2012;11(4):306–10. 链接1

[82] Sharma P, Bhatti TS. A review on electrochemical double-layer capacitors. Energy Convers Manage 2010;51(12):2901–12. 链接1

[83] Largeot C, Portet C, Chmiola J, Taberna PL, 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):2730–1. 链接1

[84] 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. [85] Chen G, Bandow S, Margine ER, Nisoli C, Kolmogorov AN, Crespi VH, et al. Chemically doped double-walled carbon nanotubes: cylindrical molecular capacitors. Phys Rev Lett 2003;90:257403. 链接1

[85] Chen G, Bandow S, Margine ER, Nisoli C, Kolmogorov AN, Crespi VH, et al. Chemically doped double-walled carbon nanotubes: cylindrical molecular capacitors. Phys Rev Lett 2003;90:257403 链接1

[86] Madani MS, Monajjemi M, Aghaei H. The double wall boron nitride nanotube: nano-cylindrical capacitor. Orient J Chem 2017;33(3):1213–22. 链接1

[87] Jansen L. Molecular theory of the dielectric constant. Phys Rev 1958;112 (2):434–44. 链接1

[88] Kumar MJ. Molecular diodes and applications. Recent Pat Nanotechnol 2007;1:51–7. 链接1

[89] Fabrizio M, Tosatti E. Nonmagnetic molecular Jahn-Teller Mott insulators. Phys Rev B Condens Matter Mater Phys 1997;55(20):13465–72. 链接1

[90] Mayor M, Weber HB, Reichert J, Elbing M, Von Hänisch C, Beckmann D, et al. Electric current through a molecular rod-relevance of the position of the anchor groups. Angew Chem Int Ed 2003;42(47):5834–8. 链接1

[91] Garner MH, Li H, Chen Y, Su TA, Shangguan Z, Paley DW, et al. Comprehensive suppression of single-molecule conductance using destructive rinterference. Nature 2018;558(7710):416–9. 链接1

[92] Meunier M, Quirke N. Molecular modeling of electron trapping in polymer insulators. J Chem Phys 2000;113(1):369–76. 链接1

[93] Wannebroucq A, Gruntz G, Suisse JM, Nicolas Y, Meunier-Prest R, Mateos M, et al. 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;255:1694–700. 链接1

[94] Tao NJ. Electron transport in molecular junctions. Nat Nanotechnol 2006;1 (3):173–81. 链接1

[95] Salahuddin S, Lundstrom M, Datta S. Transport effects on signal propagation in quantum wires. IEEE Trans Electron Dev 2005;52(8):1734–42. 链接1

[96] Tans SJ, Devoret MH, Dai H, Thess A, Smalley RE, Geerligs LJ, et al. Individual single-wall carbon nanotubes as quantum wires. Nature 1997;386 (6624):474–7. 链接1

[97] Wang X, Alexander-Webber JA, Jia W, Reid BPL, Stranks SD, Holmes MJ, et al. Quantum dot-like excitonic behavior in individual single walled-carbon nanotubes. Sci Rep 2016;6(1):6–11. 链接1

[98] Dresselhaus MS, Eklund PC. Phonons in carbon nanotubes. Adv Phys 2000;47 (6):705–814.

[99] Holmes JD, Johnston KP, Doty RC, Korgel BA. Control orientation of thickness and solution-grown nanowires silicon. Adv Sci 2010;287:1471–3.

[100] Cahill DG, Ford WK, Goodson KE, Mahan GD, Majumdar A, Maris HJ, et al. Nanoscale thermal transport. J Appl Phys 2003;93(2):793–818.

[101] Zou J, Balandin A. Phonon heat conduction in a semiconductor nanowire. J Appl Phys 2001;89(5):2932–8. 链接1

[102] Mingo N, Stewart DA, Broido DA, Srivastava D. Phonon transmission through defects in carbon nanotubes from first principles. Phys Rev B Condens Matter Mater Phys 2008;77(3):3–6. 链接1

[103] Krittayavathananon A, Ngamchuea K, Li X, Batchelor-McAuley C, Kätelhön E, Chaisiwamongkhol K, et al. Improving single-carbon-nanotube-electrode contacts using molecular electronics. J Phys Chem Lett 2017;8 (16):3908–11. 链接1

[104] Noori M, Sadeghi H, Lambert CJ. High-performance thermoelectricity in edgeover-edge zinc-porphyrin molecular wires. Nanoscale 2017;9(16):5299–304. 链接1

[105] Algethami N, Sadeghi H, Sangtarash S, Lambert CJ. The conductance of porphyrin-based molecular nanowires increases with length. Nano Lett 2018;18(7):4482–6. 链接1

[106] Cnossen A, Roche C, Anderson HL. Scavenger templates: a systems chemistry approach to the synthesis of porphyrin-based molecular wires. Chem Commun 2017;53(75):10410–3. 链接1

[107] Ratner MA, 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. 链接1

[108] Wagner RW, Lindsey JS, Seth J, Palaniappan V, Bocian DF. Molecular optoelectronic gates. J Am Chem Soc 1996;118(16):3996–7. 链接1

[109] Mirkin CA, Ratner MA. Molecular electronics. Annu Rev Phys Chem 1992;43:719–54.

[110] Barbara PF, Meyer TJ, Ratner MA. Contemporary issues in electron transfer research. J Phys Chem 1996;100(31):13148–68. 链接1

[111] Sedghi G, Sawada K, Esdaile LJ, Hoffmann M, Anderson HL, Bethell D, et al. Single molecule conductance of porphyrin wires with ultralow attenuation. J Am Chem Soc 2008;130(27):8582–3. 链接1

[112] Koepf M, Trabolsi A, Elhabiri M, Wytko JA, Paul D, Albrecht-Gary AM, et al. Building blocks for self-assembled porphyrinic photonic wires. Org Lett 2005;7(7):1279–82. 链接1

[113] 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):1003–13. 链接1

[114] Ambroise A, Kirmaier C, Wagner RW, Loewe RS, Bocian DF, Holten D, et al. Weakly coupled molecular photonic wires: synthesis and excited-state energy-transfer dynamics. J Org Chem 2002;67(11):3811–26. 链接1

[115] Robertson N, McGowan CA. A comparison of potential molecular wires as components for molecular electronics. Chem Soc Rev 2003;32(2):96–103. 链接1

[116] 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):6365–71. 链接1

[117] Linford MR, Chidsey CED, Fenter P, Eisenberger PM. Alkyl monolayers on silicon prepared from 1-alkenes and hydrogen-terminated silicon. J Am Chem Soc 1995;117(11):3145–55. 链接1

[118] Hobza P, Selzle HL, Schlag EW. Structure and properties of benzenecontaining molecular clusters: nonempirical ab initio calculations and experiments. Chem Rev 1994;94(7):1767–85. 链接1

[119] Cooper DL, Gerratt J, Raimondi M. The electronic structure of the benzene molecule. Nature 1986;323(6090):699–701. 链接1

[120] Kaliginedi V, Moreno-García P, Valkenier H, Hong W, García-Suárez VM, Buiter P, et al. Correlations between molecular structure and single-junction conductance: a case study with oligo(phenylene-ethynylene)-type wires. J Am Chem Soc 2012;134(11):5262–75. 链接1

[121] Stapleton JJ, Harder P, Daniel TA, Reinard MD, Yao Y, Price DW, et al. Selfassembled oligo(phenylene-ethynylene) molecular electronic switch monolayers on gold: structures and chemical stability. Langmuir 2003;19 (20):8245–55. 链接1

[122] Grozema FC, Candeias LP, Swart M, Van Duijnen PT, Wildeman J, Hadziioanou G, et al. 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):11366–78. 链接1

[123] Mishra A, Ma C, Ba P, Oligothiophenes D. Functional oligothiophenes: molecular design for multidimensional nanoarchitectures and their applications. Chem Rev 2009;109(3):1141–276. 链接1

[124] Linton KE, Fox MA, Pålsson LO, Bryce MR. 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. 链接1

[125] Thiele C, Gerhard L, Eaton TR, Torres DM, Mayor M, Wulfhekel W, et al. STM study of oligo(phenylene-ethynylene)s. New J Phys 2015;17(5):2–10. 链接1

[126] Cai L, Yao Y, Yang J, Price DW, Tour JM. Chemical and potential-assisted assembly of thiolacetyl-terminated oligo(phenylene ethynylene)s on gold surfaces. Chem Mater 2002;14(7):2905–9. 链接1

[127] Nuzzo RG, Allara DL. Adsorption of bifunctional organic disulfides on gold surfaces. J Am Chem Soc 1983;105(13):4481–3. 链接1

[128] Ulman A. Formation and structure of self-assembled monolayers. Chem Rev 1996;96(4):1533–54. 链接1

[129] Jenny NM, Mayor M, Eaton TR. Phenyl-acetylene bond assembly: a powerful tool for the construction of nanoscale architectures. Eur J Org Chem 2011;2011(26):4965–83. 链接1

[130] Kushmerick JJ, Pollack SK, Yang JC, Naciri J, Holt DB, Ratner MA, et al. Understanding charge transport in molecular electronics. Ann New York Acad Sci 2003;1006(1):277–90.

[131] Kushmerick JG, Holt DB, Pollack SK, Ratner MA, Yang JC, Schull TL, et al. Effect of bond-length alternation in molecular wires. J Am Chem Soc 2002;124 (36):10654–5. 链接1

[132] Rosenthal I. Phthalocyanines as photodynamic sensitizers. Photochem Photobiol 1991;53(6):859–70. 链接1

[133] Spikes JD. Phthalocyanines as photosensitizers in biological systems and for the photodynamic therapy of tumors. Photochem Photobiol 1986;43 (6):691–9. 链接1

[134] Saiki T, Mori S, Ohara K, Naito T. Capacitor-like behavior of molecular crystal b-Dicc[Ni(dmit)2]. Chem Lett 2014;43(7):1119–21. 链接1

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

[136] Braun E, Eichen Y, Sivan U, Ben-Yoseph G. DNA-templated assembly and electrode attachment of a conducting silver wire. Nature 1998;391 (6669):775–8. 链接1

[137] Zhou YX, Johnson AT, Hone J, Smith WF. Simple fabrication of molecular circuits by shadow mask evaporation. Nano Lett 2003;3(10):1371–4. 链接1

[138] 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.

[139] Dedkov Y, Voloshina E. Graphene growth and properties on metal substrates. J Phys Condens Matter 2015;27:303002. 链接1

[140] Georgantzinos SK, Giannopoulos GI, Anifantis NK. Numerical investigation of elastic mechanical properties of graphene structures. Mater Des 2010;31 (10):4646–54. 链接1

[141] Torres T. Graphene chemistry. Chem Soc Rev 2017;46(15):4385–6.

[142] Liu Y, Xie B, Zhang Z, Zheng Q, Xu Z. Mechanical properties of graphene papers. J Mech Phys Solids 2012;60(4):591–605. 链接1

[143] Wang G, Kim Y, Choe M, Kim TW, Lee T. A new approach for molecular electronic junctions with a multilayer graphene electrode. Adv Mater 2011;23(6):755–60. 链接1

[144] Liu J, Yin Z, Cao X, Zhao F, Lin A, Xie L, et al. Bulk heterojunction polymer memory devices with reduced graphene oxide as electrodes. ACS Nano 2010;4(7):3987–92. 链接1

[145] Di CA, 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):3289–93. 链接1

[146] Wang X, Zhi L, Müllen K. Transparent, conductive graphene electrodes for dye-sensitized solar cells. Nano Lett 2008;8(1):323–7. 链接1

[147] Supur M, Van Dyck C, Bergren AJ, McCreery RL. Bottom-up, robust graphene ribbon electronics in all-carbon molecular junctions. ACS Appl Mater Interfaces 2018;10(7):6090–5. 链接1

[148] 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):394–9. 链接1

[149] Dou KP, Kaun CC, Zhang RQ. Selective interface transparency in graphene nanoribbon based molecular junctions. Nanoscale 2018;10(10):4861–4. 链接1

[150] Zhong Y, Kumar B, Oh S, Trinh MT, Wu Y, Elbert K, et al. Helical ribbons for molecular electronics. J Am Chem Soc 2014;136(22):8122–30. 链接1

[151] Kimouche A, Ervasti MM, Drost R, Halonen S, Harju A, Joensuu PM, et al. Ultra-narrow metallic armchair graphene nanoribbons. Nat Commun 2015;6 (1):1–6. 链接1

[152] Fang F. Atomic and close-to-atomic scale manufacturing—a trend in manufacturing development. Front Mech Eng 2016;4(4):325–7. 链接1

[153] Sharath Kumar J, Murmu NC, Kuila T. Recent trends in the graphene-based sensors for the detection of hydrogen peroxide. AIMS Mater Sci 2018;5 (3):422–66. 链接1

[154] 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. 链接1

[155] Dubois V, Raja SN, Gehring P, Caneva S, van der Zant HSJ, Niklaus F, et al. Massively parallel fabrication of crack-defined gold break junctions featuring sub-3 nm gaps for molecular devices. Nat Commun 2018;9(1):3433. 链接1

[156] Vilan A, Aswal D, Cahen D. Large-area, ensemble molecular electronics: motivation and challenges. Chem Rev 2017;117(5):4248–86. 链接1

[157] Mishra A, Jagtap S. Moletronics. Int J Sci Eng Res 2016;7(2):25–8.

[158] Newton MD, Sutin N. Electron transfer reactions in condensed phases. Annu Rev Phys Chem 1984;35:437–80. 链接1

[159] Dutton PL, Prince RC, Tiede DM. Reaction center of photosynthetic bacteria. Photochem Photobiol 1978;28:939–49.

[160] Patil A, Saha D, Ganguly S. A quantum biomimetic electronic nose sensor. Sci Rep 2018;8(1):1–8. 链接1

[161] Dubi Y, Di Ventra M. Colloquium: heat flow and thermoelectricity in atomic and molecular junctions. Rev Mod Phys 2011;83(1):131–55. 链接1

[162] Cui L, Miao R, Wang K, Thompson D, Zotti LA, Cuevas JC, et al. Peltier cooling in molecular junctions. Nat Nanotechnol 2018;13(2):122–7. 链接1

[163] Wu Q, Sadeghi H, García-Suárez VM, Ferrer J, Lambert CJ. Thermoelectricity in vertical graphene-C60-graphene architectures. Sci Rep 2017;7:1–8. 链接1

[164] Gould P. Moletronics closes in on silicon. Mater Today 2005;8(7):56–60 链接1