Teaching Interests

•      Electromagnetics

•      Optical properties of materials and optoelectronics

•      Sustainability and renewable energy

•      Nanoelectronics and nanomaterials

•      Quantum phenomena in electronic and optical devices 

Training

•      EdTech Teaching Certificate Program at MIT: Learned state of the art technology options for higher education and            the optimum usage of various tools to enhance learning – Winter  2017.  

•      Kaufman Teaching Certificate Program (KTCP) at MIT: Extensive teachers' training program covering all aspects of        teaching -Summer 2016. 

Courses taught

•        Department of GCE, BUET (2017-present) -  GCE 6403, “Photonic Ceramics”.  

•        Department of EEE, East West University - EEE 308, “Electronic and Magnetic Properties of Materials”, EEE 205,              “Digital Logic Design”, EEE 165, “Basic Electrical Technology” 

•        Department of ECE, University of Virginia - ECE 6502, "Fundamentals of Nanoelectronics"      

•        Department of EEE, BUET (2007-09) -  EEE 263, “Electronic Devices and Circuits”, EEE 165, “Basic Electrical                      Technology”. 

Other responsibilities

•        BUGS - Serving as the Secretary, Board of Undergraduate Studies of the Department of GCE from January 2018. 

 GCE 6403: “Photonic Ceramics”

In this course, I teach fundamental optical processes and ceramic materials used in various photonic applications. Optical processes include processes that can be explained with the electromagnetic wave theory of light such as reflection, transmission, propagation of light an optical media, absorption, electro-optic effects etc. Ceramic materials to be covered in this course are LiNbO3, KTP, PLZT for electro-optic and Nd:YAG for laser applications. I also briefly discuss the quantum description of absorption and emission. In order to understand the optical processes, I start the course with a brief introduction to electromagnetics and then move on to describe the wave theory of light. 

Lecture slides

Lecture 1:  Electrostatics [print friendly]

Lecture 2:  Magnetostatics [slides] [print friendly] 

Lecture 3:  Electromagnetism, Maxwell’s Equations [slides] [print friendly] 

Lecture 4:  EM wave propagation, reflection and transmission [slides] [print friendly] 

Lecture 5:  Optical absorption [slides] [print friendly]

Lecture 7:  Quantum description of absorption and emission [slides] [print friendly]

Lecture 8:  Electro-optic effects [slides] [print friendly]

Lecture 9:  PLZT films for Electro-optic effects [slides] [print friendly]

Lecture 10: Laser systems and Ceramics for Laser [slides] [print friendly]