I am deeply committed to high-quality teaching and mentoring. My courses have consistently received excellent feedback in student course and instructor evaluations, ranking among the highest in the department. On multiple occasions, these evaluations have also placed me among IIT Ropar's top-rated instructors for large undergraduate courses and specialised graduate level courses.
Below is the list of courses that I have offered at IIT Ropar:
This general engineering course serves as an introduction for second-year undergraduate students across all disciplines at IIT Ropar. Its objective is to acquaint students with the principles of electronic devices and circuits. The curriculum emphasizes foundational knowledge of p-n junctions, transistors, as well as analogue and digital circuits. Theoretical concepts are reinforced through comprehensive laboratory sessions that offer practical experience.
This course equips students with foundational knowledge of digital components and their practical application in the design of digital circuits and systems. Upon successful completion, participants will be able to: comprehend fundamental elements of digital design, including binary arithmetic, Boolean algebra, and logic gates; utilize basic digital components to construct both combinational and sequential circuits; understand circuit-level design principles of integrated circuits (logic families), with emphasis on distinctions between BJT and MOS-based ICs; and apply various techniques in data conversion as well as identify key memory types within digital systems.
Engineering Electromagnetics (EE305) is a core undergraduate course that introduces the fundamental principles of electromagnetic fields and waves, forming the foundation for several advanced areas of electrical and electronics engineering. The course covers electrostatics, magnetostatics, Maxwell's equations, transmission lines, wave propagation, and electromagnetic boundary conditions, while emphasizing both mathematical rigor and physical intuition. Through analytical problem-solving and practical engineering examples, students develop the ability to apply electromagnetic concepts to modern technologies, including wireless communication, microwave engineering, antennas, high-speed interconnects, and electronic systems.
This laboratory course emphasizes the practical implementation of digital circuits utilizing fundamental gate-level components. It is designed to complement the theoretical instruction offered through lectures and tutorials. Students will collaborate in groups of three, with detailed lab handouts provided for each exercise. Furthermore, each group will undertake a term project, which will serve as a key component in assessing their hands-on learning achievements at the conclusion of the semester.
This laboratory course offers practical experience through hands-on experiments involving circuits such as BJT and MOSFET amplifiers, oscillator design, and frequency response analysis. Students will develop applied skills in circuit assembly, measurement, and analysis across a range of analog circuits, including amplifiers and regulators.
This course offers an in-depth exploration of the design principles for MOSFET-based digital integrated circuits. Upon successful completion, students will gain proficiency in understanding the operational principles of field-effect transistors and MOSFETs, designing logic circuits with NMOS, PMOS, and CMOS technologies, analyzing dynamic characteristics and power-delay considerations in MOS logic designs, comprehending MOS-based memory architectures including memory cells, read/write processes, peripheral and decoding circuit design, and acquiring foundational knowledge in high-speed interconnect design.
This graduate-level course introduces the fundamentals of modern electronic packaging, with a focus on signal integrity, power integrity, high-speed interconnects, and electrical–thermal co-design. It was among the first dedicated graduate-level courses on Electronic Packaging offered within the IIT system, reflecting the increasing importance of advanced packaging in next-generation semiconductor technologies.
The course covers key concepts including transmission lines, characteristic impedance, bandwidth, resistance, capacitance, inductance, and power delivery networks. Students learn to analyze and design electronic packages using engineering intuition, analytical models, numerical simulations, and experimental measurements. Emphasis is placed on practical design methodologies, illustrating how package and interconnect design impact signal and power integrity, while introducing industry-standard design guidelines for high-performance electronic systems.
The course was selected under the Ansys Global Funded Curriculum Program (2024). Selected lectures and laboratory modules are available through the Ansys online learning platform, providing students with hands-on exposure to industry-standard electronic design automation (EDA) tools.