Strong academic background with a Doctor of Philosophy (PhD) in physics from Michigan State University (MSU).
Ability to work independently. Experienced educator/researcher with a track record of working in higher education.
Professional in nanostructure design, manufacturing, and characterization. Skilled in mathematical modelling and
public speaking
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Research:
My main academic field of research is Experimental Condensed Matter Physics (CMP). Within this general field,
I specialize in fabrication and characterization of nanomaterials and nanostructures. My graduate studies at
Michigan State University (MSU) focused on thin films, nanowires, and carbon nanotubes. Over the last decade,
my research in Jordan has been centered on magnetic nanoparticles. The majority of my published work on
Google Scholar is focused on magnetic nanoparticles.

Research Profiles: Google Scholar, Clarivate, Scopus Nanoparticles Lab @ HU
Publications
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Teaching:
General Physics I Syllabus (Phys 101)
General Physics II Syllabus (Phys 102)
General Medical Physics Syllabus (Phys 109)
Mathematical Physics I (Phys 281)
Mathematical Physics II (Phys 282)
Classical Electrodynamics I Syllabus (Phys 331)
Classical Electrodynamics II Syllabus (Phys 332)
Quantum Mechanics I Syllabus (Phys 362)
Quantum Mechanics II Syllabus (Phys 364)
Physics of Materials and Heat Syllabus (Phys 141)
Thermodynamics Syllabus (Phys 341)
Statistical Mechanics Syllabus (Phys 442)
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Phys 771 Graduate Condensed Matter Physics (Spring 2024/2025)
Phys 771 syllabus
Textbook: Michael P Marder, Condensed Matter Physics, 2nd edition. John Wiley & sons 2015
Lecture notes Homeworks Solutions
Chapter 1 HW # 1 Solution
Chapter 2 HW # 2 Solution
Chapter 3 HW # 3 Solution
Chapter 6 HW # 4 Solution
Chapter 7 HW # 5 Solution
Chapter 8 HW # 6 Solution
Chater 11 HW # 7 Solution
Chapter 13 HW # 8 Solution
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Mathematical Physics I (Phys 281) and II (Phys 282)
Phys 281 syllabus
Phys 282 syllabus
Homeworks solutions
Phys 281 Phys 282
HW # 1 HW # 1
HW # 2 HW # 2
HW # 3 HW # 3
HW # 4 HW # 4
HW # 5 HW # 5
HW # 6 HW # 6
HW # 7 HW # 7
HW # 8 HW # 8
HW # 9 HW # 9
HW # 10 HW # 10
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Electrodynamics I (Phys 331) and II (Phys 332)
Phys 331 syllabus
Phys 332 syllabus
Homeworks solutions
Phys 331 Phys 332
HW # 1 HW # 10
HW # 2 HW # 11
HW # 3 HW # 12
HW # 4 HW # 13
HW # 5 HW # 14
HW # 6 HW # 15
HW # 7 HW # 16
HW # 8
HW # 9
Example 5.2
Summary of boundary conditions of E and B
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Phys 741 Graduate Statistical Mechanics ( Fall 2017/18 )
Syllabus Special Integrals, Functions, and Series Sheet
Homeworks and solutions :
HW # 1 Solution
HW # 2 Solution
HW # 3 Solution
HW # 4 Solution
HW # 5 Solution
HW # 6 Solution
HW # 7 Solution
HW # 8 Solution
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Phys 761 Graduate Quantum Mechanics ( Fall 2016/17 )
Syllabus
Lecture notes ( handwritten ): 
- 3D motion in spherical coordinates
- The free particle in spherical coordinates
- The 3D spherical square well
- The 3D isotropic harmonic oscillator
- The Hydrogen atom
- Infinitesimal and finite rotation in QM
- Algebra of angular momentum
- Spin 1/2 Pauli theory
- Addition of angular momenta and Clebseh-Gordan coefficients
- Coupling of orbital and spin angular momenta
- Scattering cross section and scattering amplitude
- Potential scattering and Born approximation
- Partial waves analysis
- Stationary perturbation (time independent perturbations)
- Degenerate and non-degenerate perturbations
- The Stark effect
- The fine structure ( relativistic and spin-orbit corrections)
- Anomalous Zeeman Effect
- The variational method
- The WKB method (if time permits !!)
- Time dependent perturbation theory
( includes: transition probability, sudden perturbation, adiabatic perturbation, harmonic perturbation,
and Fermi's Golden rule)
Homeworks and Solutions
HW # 1 Solution
HW # 2 Solution
HW # 3 Solution
HW # 4 Solution
HW # 5 Solution
HW # 6 Solution
HW # 7 Solution
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