Environmental Engineering Reference
In-Depth Information
45. Mirzadzhanzade Kh, A., Maharramov, A. M., & Nagiyev, F. B., On the development of
nanotechnology in the oil industry. “Azerbaijan's Oil Industry ,” № 10, (2005), p. 51-65.
46. Mirzadzhanzade Kh, A., Bakhtizin, R. N., Nagiyev, F. B., & Mustafayev, A. A., Nano
hydrodynamic effects on the base use of micro embryonic technology. “Oil and Gas Busi-
ness” , Volume 3, (2005), p. 311-315.
47. Mirzadzhanzade Kh., A., Shahbazov, E. G., Shafiev, Sh., Sh., Nagiyev, F. B., Osmanov,
B. A., & Mammadzadeh, R. B., Nanotechnology in the oil and gas production: research,
implementation and results. Book of abstracts. Khazarneftgazyatag - (2006). International
Scientific Conference on October 25-26, 2006, p. 47.
48. Morten, Bo, Lindholm Mikkelsen, Simon Eskild Jarlgaard, Peder Skafte-Pedersen. Ex-
perimentalNanofluidics. Capillary filling of nanochannels. MIC - Department of Micro
and Nanotechnology Technical University of Denmark, June 20 th , (2005).
49. Nagiyev, F. B., Nonlinear oscillations of gas bubbles dissolved in the liquid. Izv.AN
Az.SSR, Serf.-Tech and Math. Science , № 1, (1985) p. 136-140.
50. Nagiyev, F. B., Khabeev, N. S., Dynamics of soluble gas bubbles. Proceedings of the Acad-
emy of Sciences USSA, Fluid and Gas Mechanics , № 6, (1985), p. 52-59.
51. Nagiyev, F. B., & Mustafin.Kh., R., Using of high technologges in oil production. Inten-
sification of oil production with aid of nanohydrodynamic effects usage. Collection of
thesis International workshop “Socio-economic aspects of the energy corridor linking the
Caspian Region with E. U.” Baku, Azerbaijan, April,11-12th, 2007, p. 28-37.
52. Natsuki, T., Endo, M., & Tsuda H. J. Appl. Phys . 99 034311, (2006).
53. Natsuki, T., Hayashi, T., & Endo, M., J. Appl. Phys . 97 044307, 2005.
54. Navier, C. L. M. H., Memoire sur les lois du mouvement des fluids. Mémoires Académie
des Sciences de l'Institut de France. (1823), v.1, p. 389-440.
55. Neimark, I. E., The main factors influencing the porous structure of hydroxide and oxide
adsorbents. Colloid Journal , (1982), Volume 4, № 4, p. 780-783.
56. Nigmatulin, R. I., Fundamentals of mechanics of heterogeneous media. M., “Nauka” ,
(1978), 336 p.
57. Nigmatulin, R. I., Dynamics of multiphase media. Part I, “Nauka” M., (1987), 464 p.
58. Popov, I., Yu, Chivilikhin, S. A., & Gusarov, V. V., Model of the structured liquid through
the nanotube: http://rusnanotech09.rusnanoforum.ru/Public/ La rge Docs/theses/rus/post-
er/04/Chivilikhin.pdf.
59. Ou, J., Perot, J. B., & Rothstein, J. P., Laminar drag reduction in microchannels using
ultrahydrophobic surfaces. Physics of Fluids , (2004), V. 16, p. 4635-4643.
60. Ou, J., & Perot, J. B., Drag Reduction and μ-PIV Measurements of the Flow Past Ultrahy-
drophobic Surfaces. Physics of Fluids , (2005), V. 17, p. 103606.
61. Press release on the website of the University of Wisconsin-Madison. Models present new
view of nanoscale friction, 25.02.2009.
62. Proskurovskaya, L. T., Physical and chemical properties of electroexplosive ultrafine alu-
minum powders: Dis. Ph. D., Tomsk, (1988), 155 p.
63. Ramazanova, E. E., Shabanov, A. L., & Nagiyev, F. B., Perspectives of nanotechnology
method applications for intensification oil-gas production. Collection of thesis Interna-
tional workshop “Electricity Generation and emission trading in South Eastern Europe”.
Sofia, Bulgaria, 21 September, (2007).
64. Rothstein, J. P., & McKinley, G. H., J. Non-NewtonianFluidMech, (1999), 86, 61-88.
65. Semwogerere, D., Morris,J. F., & Weeks,E. R., J. FluidMech . (2007), 581, 437-451.
66. Skoulidas, A. I., Ackerman, D. M., Johnson, J. K., & Sholl, D. S., Phys. ReV. Lett . (2002),
89, 185901.
67. Sokhan, V. P., Nicholson, D., Quirke, N. J., Chem. Phys . ( 2002), 117,8531-8539.
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