Dr. Dalaver H. Anjum
Dr. dalaver anjum Assistant Professor Physics

Contact Information
dalaver.anjum@ku.ac.ae 023104207


Dalaver H. Anjum received his Ph.D. Degree in Physics in the year 2002 from the University at Albany-Sate University of New York, Albany, New York, USA. His main research interests include characterizing the structure and properties of materials at nanoscales by using Electron Microscopy. Specifically, he explores the properties of metal alloys, nanocatalysts, and 2-dimensional materials.  He has authored/co-authored 270+ publications spanning various fields of Science & Engineering including Materials Science, Electronics & Photonics, Catalysis, Bioscience, Energy-Storage, Solar cells, Polymer Science, and Water Desalination.

  • PhD Physics 2002, University at Albany-SUNY, NY, USA
  • MS Physics 1998, University at Albany-SUNY, NY, USA

  • Introduction to Nanophysics (PHYS350)
  • Nanoscale Integrated Circuit Devices and Technology (PHYS705)
  • Optics (PHYS231)
  • Quantum Physics I (PHYS331)
  • Quantum Physics II (PHYS432)
  • Solid State Physics (PHYS431)
  • Electron Microscopy
  • Electron Matter Interactions

Affiliated Research Institutes/Centers
  • Advanced Materials Chemistry Center
  • Center for Catalysis and Separation

Research Interests
  • Electron Microscopy
  • Experimental Condensed Matter Physics

Research Projects

Advanced materials characterization and computational physics methods are essential for the development of new materials. This project brings together experimental and computational physics to address the chemistry of low-dimensional materials. The specific examples of such low-dimensional materials will include hybrid materials synthesized by combining 0-dimensional nanomaterials with 2-dimensional layer materials (e.g. 2-dimensional MoS2 coated onto 0-dimensional Ferrite). This project explores ways to tailor the electronic and gas-sensing properties of hybrid materials. The relationships between the properties and synthesis parameters of these materials are established by performing their atom scale structural and elemental characterization with advanced techniques of transmission electron microscopy (STEM). The acquired results are supported by using computational physics techniques such as density functional theory (DFT) methods. 

Young’s moduli (Ym) of metals and metal alloys is a fundamental property for determining their strength and hardness. It is already known that in metal alloys, the values of Ym vary significantly in the vicinity of structural defects and precipitates as compared to metal matrix. The size of structural defects and precipitates is usually in the nanoscale lengths which means that Ym should also be mapped in the same range of length scales. The goal of this is to apply Scanning transmission electron microscopy (STEM) for the imaging of these structural defects and precipitates. Moreover, utilize STEM to generate Ym maps for metal alloys in the same length scales by carrying out the imaging of alloys in combination with the electron energy loss spectroscopy (EELS) technique. In this way, a nanoscale structure-property correlation (i.e. the effect of defects and precipitates on Ym) will be established for metals by using STEM-EELS techniques. 

Single-atom catalysts have unquestionably become the most vigorous frontier in contemporary catalysis. Assisted by recent advances in practical synthetic methodologies, characterization techniques, and computational physics, there are a large number of single-atom catalysts (SACs) that exhibit distinctive performances for a wide variety of chemical reactions. In this project, our focus will be to address the fundamental physical limitation on the catalysis ability of single atoms of different metals. This is executed with the development of mixed metal single atoms on various surfaces of interest. Comprehensive characterization of the mixed metal single atoms on the support surface will be carried out to understand their surface interactions. Also, detailed theoretical studies will be carried out to understand their intriguing properties. Finally, a range of applications such as clean energy harvesting will be carried out.   

Research Staff and Graduate Students:

Zeyad Muhammad Abdulfattah Doctor of Philosophy Research/Teaching
Mohamed Elfatih Daoud Doctor of Philosophy Research/Teaching
Moshood Olawale Bolarinwa Doctor of Philosophy Research/Teaching
Additional Info

H Zafar, M Khushaim, F Ravaux, and DH Anjum, Scale-Dependent Structure–Property Correlations of Precipitation-Hardened Aluminum Alloys: A Review, OM The Journal of The Minerals, Metals & Materials Society (TMS) (2022)

AGS Hussien, CM Damaskinos, AA Dabbawala, DH Anjum, MA Vasiliades, MTA Khaleel, NWehbe, AM Efstathiou, and K Polychronopoulou, Elucidating the role of La3+/Sm3+ in the carbon paths of dry reforming of methane over Ni/Ce-La (Sm)-Cu-O using transient kinetics and isotopic techniques, Applied Catalysis B: Environmental 304, 121015, (2022)

NS Rajput, K Sloyan, DH Anjum, M Chiesa, and A Al Ghaferi, A User-Friendly FIB lift-out Technique to Prepare plan-view TEM Sample of Thin Layered Materials, Ultramicroscopy, 113496, (2022)

M Khushiam, and DH Anjum, Application of aberration-corrected scanning transmission electron microscopy in conjunction with valence electron energy loss spectroscopy for the nanoscale mapping of the elastic properties of Al–Li–Cu alloys, Microscopy Research and Technique 84 (5), 869-880, (2021)

H Zafar, MF Pereira, KL Kennedy, DH Anjum, Fabrication-tolerant and CMOS-compatible polarization splitter and rotator based on a compact bent-tapered directional coupler, AIP Advances 10 (12), 125214, (2020)


Looking for PhD physics students who are interested in doing research on materials using electron microscopes