Ali Aliev

Education Background

  • M.S., Radio Engineering, 1977. Institute of Radioelectronics, Kharkov, Ukraine, USSR.
  • Ph.D., Molecular and Heat Physics, 1984. Heat Physics Department of Uzbek Academy of Science, USSR.
  • D.S., Solid State Physics, 1992. Heat Physics Dept. of Uzbek Academy of Science, USSR.

Research Interests

  • Nanoscience and nanotechnologies: Transport properties of nanostructures – photonic crystals and carbon nanotube composites.
  •  Solid state ionics: The transport dynamic in superionic conductors; Relaxation phenomena in disordered systems.
  •  Electrochromism : Inorganic electrochromic materials for RGB low-information displays.

Contact Information

Email:
Ali.Aliev@utdallas.edu

Phone: 972-883-6543

Ali Aliev

Dr. Aliev’s group uses solid state and wet synthesis, electrical and thermal transport and other techniques to prepare and study novel nanostructured materials.

Carbon nanotubes (CNTs) have remarkable mechanical, optical and transport properties, with important implications for technology. The electrical and thermal conductivity of CNT fibers, twisted yarns and sheets are studied in Aliev’s lab using “pulse transient”, “hot wire”, “laser flash” and “3-omega” techniques. Static fields, charge injection and acoustic waves are applied to study the phonon-phonon and phonon-electron interaction in these new class materials.

Photonic crystals with periodically modulated refractive index are emerging as useful material for various applications. We are developing these materials by self-assembling and templating techniques for the synthesis of infrared photonic crystals, left-handed meta-materials with negative refractive indexes, and for potential application in low-threshold laser and solar cells.

The superconducting properties of highly periodic 3D nanostructures of pure metals and transient metal oxides deposited on nanostructured surface are the subjects of research interests of group. By modifying the sample topology we pursue two objectives: to create a type II superconductors with extra large surface-to-volume ratio and tailored pinning potentials, and to study the commensurability effects of 3D array of void channels with the vortex lattice.

Selected Publications

Strong, Transparent, Multifunctional, Carbon Nanotube Sheets. Zhang, Mei; Fang, Shaoli; Zakhidov, Anvar A.; Lee, Sergey B.; Aliev, Ali E.; Williams, Christopher D.; Atkinson, Ken R.; Baughman, Ray H. NanoTech Institute, The University of Texas at Dallas, Richardson, TX, USA. Science (Washington, D.C., USA) (2005), 309(5738), 1215-1219. (abstract) (full text)

Thermal conductivity of opal filled with an LiIO 3 Ionic Conductor. A.E. Aliev, N.Kh. Akhmedjanova, V.F. Krivorotov, I.N. Kholmanov, and A.A. Fridman. Physics of Solid State, 45, 1 (2003) 61.

Nanostructured materials for electrochromic devices. , A.E. Aliev, H.W. Shin. Solid State Ionics 154-155 (2002) 425.

Image diffusion and cross-talk in passive matrix electrochromic displays. A.E. Aliev, H.W. Shin. Display, 23, 5 (2002) 239.

Development of WO 3 thin films using nanoscale silicon particles A.E. Aliev and C. Park. . Jpn. J. Appl. Phys. 39 (2000) 3572.

Study of the thermoelectric power in amorphous and single crystalline lithium tetraborate - Li 2B 4O 7 A.E. Aliev, I.N. Kholmanov, P.K. Khabibullaev.. Solid State Ionics, 118 (1999) 111.

Thermally activated two-level systems in Superionic Conductors. A.E. Aliev, V.F. Krivorotov, P.K. Khabibullaev. Solid State Ionics, 107 (1998) 59.

 

Updated: November 12, 2007

©2005 The University of Texas at Dallas