Level: Senior UG, PG and PhD
Nanoelectronics is an interdisciplinary area of research which has a huge potential and is currently attracting a great deal of attention. The objective of this course is to understand the basic principles that govern the operation and electrical characteristics of nanoelectronic devices and become familiar with the recent research being undertaken in nanoelectronics.
A detailed description of this course: techtree link
Level: UG
This course is designed to prepare the fundamental concepts of semiconductor physics, which are necessary to understand electronic devices. It will introduce students to the materials, transport mechanisms, and basic insight into various electronic and optoelectronic devices such as pn junction diodes, Schottky diodes, solar cells, LEDs, and the foundation of MOSFET. This course will ensure that students, even with a minimal background in semiconductors, grasp the concepts and prepare for more advanced courses in semiconductor technology.
A detailed description of this course: techtree link
Level: Senior UG, PG and PhD
This course aims to develop a broader understanding of beyond-CMOS electronic devices. It will introduce students to the rapidly growing field of quantum materials and devices, specifically the fundamental role of quantum physics in modern electronic, spintronic, and molecular devices for both logic and memory applications. It will also highlight ongoing research on possible alternatives and novel materials for these advanced devices.
A detailed description of this course: techtree link
[It's also one of the core courses for "Minor in Quantum Technologies" to BTech students at IIITD. The regulations for the same can be found here.]
Level: UG
The course introduces the topics of (a) Circuit elements - active, passive, time-variant, time - invariant, linear, non-linear, unilateral, bilateral; (b) Sources - independent and dependent; (c) Electric circuit and analysis - Ohm's law, Kirchhoff's laws, loop and node analyses, limitations of lumped circuit analysis; (d) Network theorems - Superposition, Thevenin, Norton, Maximum power transfer; (e) Natural and forced responses to DC excitation - RL, RC and RLC circuits; Sinusoidal steady state analysis; (f) Designing basic circuits using operational amplifiers; (g) Basic circuits using diodes.
A detailed description of this course: techtree link