Contents & References of Examining the relationship between the stability and sustainability of the company's owners and the company's financial performance
List:
Chapter 1- Introduction of carbon nanotubes. 1
1-1- Preface. 3
1-2- Graphene and how to make carbon nanotubes from graphene. 3
1-3- Types of carbon nanotubes. 9
1-3-1- Zigzag carbon nanotube. 13
1-3-2- Carbon nanotube furniture. 14
1-4- Physical topics. 15
1-4-1- Brillouin zone. 15
1-4-2- Blach mode. 15
1-4-3- Bloch oscillations. 16
1-5- Amplifier of wave-going tubes 17
1-6- Application of carbon nanotubes. 19
1-7- Thesis content. 19
Chapter 2- Boltzmann equation. 21
2-1- Preface. 23
2-2- Negative differential conductivity. 23
2-3- Boltzmann equation. 24
2-4- The equation of conduction flow according to applied field. 24
Chapter 3- Appropriate structure for impedance matching of carbon nanotubes. 33
3-1- Preface. 35
3-2- Orbital model of carbon nanotubes. 35
3-3- Failure to match impedance. 37
3-4- The general structure of electromagnetic waveguide and the connection method. 38
Chapter 4- Carbon nanotube simulation with DC and AC bias. 41
4-1- Preface. 43
4-2- Simulation of carbon nanotube with DC bias. 43
4-3- Simulation using Boltzmann equations and considering DC and AC bias. 49
4-3-1- Zigzag type carbon nanotube with characteristic coefficient (0,12) 49
4-3-2- Zigzag type carbon nanotube with characteristic coefficient (10,0) 54
4-3-3- Zigzag type carbon nanotube with characteristic coefficient (100,0) 56
Chapter 5- Simulating the appropriate structure for matching the Impedance of carbon nanotubes. 61
5-1- Preface. 63
5-2- Simulating the appropriate structure for matching the impedance of carbon nanotubes. 63
Chapter 6- Conclusions and suggestions 71
6-1- Conclusions 73
6-2- Suggestions 74
References. 75
Persian-English dictionary. 77
English Persian dictionary. 79
Source:
M. Dagher, N. Chamanara, D. Sounas, R. Martel, and C. Caloz, “Theoretical investigation of traveling-wave amplification in metallic carbon nanotubes biased by a dc field,” IEEE Trans. Nanotechnology. Vol. 11, pp. 463-471, 2012.
http://edu.nano.ir/index.php?actn=papers_view&id=161
B.G. Streetman and S. Banerjee, Solid state electronic devices, Prentice Hall, 2009.
C. Kittle, Introduction to solid state physics, Wiley, 1996.
E. Jodar, A.P. Garrido, and F. Rojas, “Bloch oscillations in carbon nanotubes,” J. Phys. Condens. Matter, Vol. 21, pp. 1-5, 2009.
https://www.cst.com/Applications/Article/Ku-Band+Traveling+Wave+Tube.
M. Shahinpoor and S. Hans-J?rg, Intelligent Materials, Royal Society of Chemistry, 2008.
S.S. Abukari, K.W. Adu, S.Y. Mensah, N.G. Mensah, K.A. Dompreh, A.K. Twum, and M. Rabiu, “Amplification of terahertz radiation in carbon nanotubes,” Eur. Phys. J. B., Vol. 86, pp. 1-5, 2013.
Z. Aksamija, Boltzmann transport equations for nanoscience applications, Report, Electrical and Computer Engineering Dept. University of Wisconsin-Madison, 2008.
L. Esaki and R. Tsu, “Superlattice and negative differential conductivity in semiconductors,” IBM J. Research and Development, Vol. 14, pp. 61–65, 1970.
P.J. Burke, "Luttinger liquid theory as a model of the gigahertz electrical properties of carbon nanotubes," IEEE Trans. NanoTechnol. Vol. 1, pp. 129-145, 2002.
Q. Liu, G. Luo, R. Qin, H. Li, X. Yan, C. Xu, L. Lai, J. Zhou, S. Hou, E. Wang, Z. Gao, and J. Lu, “Negative differential resistance in parallel single-walled conductivity in carbon nanotubes,” Phys. Rev. Lett. Vol. 83, pp. 155442 (1-7), 2011.
A.S. Maksimenko and G.Y. Slepyan, "Negative differential conductivity in carbon nanotubes," Phys. Rev. Vol. 84, pp. 362-365, 2000.
http://wcalc.sourceforge.net/cgi-bin/coplanar.cgi.
G.W. Hanson, "Fundamental transmittingHanson, "Fundamental transmitting properties of carbon nanotube antennas," IEEE Trans. Antennas Propag. Vol. 53, pp.