| # | Category | Subject | L-T-P | Credits |
|---|---|---|---|---|
| 1 | Professional Core | Analog & Digital IC Applications | 3-0-0 | 3 |
| 2 | Professional Core | Digital Communications | 3-0-0 | 3 |
| 3 | Professional Core | Antennas and Wave Propagation | 3-0-0 | 3 |
| 4 | Professional Elective-I | Digital System Design through HDL / Optical Communications / Electronic Measurements and Instrumentation / Computer Organization and Architecture | 3-0-0 | 3 |
| 5 | Open Elective-I | (department pool) OR Entrepreneurship Development & Venture Creation | 3-0-0 | 3 |
| 6 | Professional Core | Analog & Digital IC Applications Lab | 0-0-3 | 1.5 |
| 7 | Professional Core | Analog and Digital Communications Lab | 0-0-3 | 1.5 |
| 8 | Skill Enhancement Course | Applications of LabVIEW for Instrumentation & Communications | 0-1-2 | 2 |
| 9 | Engineering Science | Design of PCB & Antennas Lab | 0-0-2 | 1 |
| 10 | — | Evaluation of Community Service Internship | – | 2 |
| Total | 15-1-10 | 23 |
The table also lists optional Minor-degree and Honors-degree course rows (a student may pick from a separate Minors/Honors subject pool such as Advanced Communications, EMI/EMC, RTOS, or Digital Electronics). These are add-on degree tracks rather than core curriculum, so they are not expanded unit-by-unit here.
Analog & Digital IC Applications
bridges op-amp based analog design with digital IC building blocks, the two toolsets used constantly in later lab and project work.
- Unit 1: Op-amp characteristics and modes — inverting, non-inverting, differential, instrumentation amplifier
- Unit 2: Active filters, waveform generators, and IC555/IC565 timer and PLL applications
- Unit 3: DAC and ADC techniques (weighted resistor, R-2R ladder, successive approximation, dual slope)
- Unit 4: Combinational logic ICs — decoders, encoders, multiplexers, and arithmetic circuits
- Unit 5: Sequential logic ICs, memories — ROM and RAM architectures
Digital Communications
moves communication theory from analog to digital, the modulation and coding schemes that underpin virtually all modern communication systems.
- Unit 1: Pulse digital modulation — PCM, DPCM, delta modulation, and multiplexing
- Unit 2: Digital modulation techniques — ASK, FSK, PSK, DPSK, QPSK
- Unit 3: Optimum receiver design and error-probability calculations for digital modulation schemes
- Unit 4: Linear block codes, Hamming codes, and binary cyclic codes
- Unit 5: Convolutional codes, Viterbi decoding, and Turbo codes
Antennas and Wave Propagation
explains how radiating structures are designed and how radio waves travel, a prerequisite for RF, satellite, and wireless subjects later on.
- Unit 1: Antenna fundamentals — radiation mechanism, radiation pattern, directivity, and gain
- Unit 2: Thin linear wire antennas, dipoles, monopoles, and loop antennas
- Unit 3: Antenna arrays — pattern multiplication, broadside/end-fire arrays, and Yagi-Uda arrays
- Unit 4: Broadband antennas — log-periodic, helical, horn, and microstrip patch antennas
- Unit 5: Antenna measurement techniques and sky-wave/space-wave propagation
Digital System Design through HDL
(Professional Elective-I) — teaches Verilog as a practical design language so digital circuits can be modeled, simulated, and synthesized rather than only hand-drawn.
- Unit 1: Verilog basics, data types, and gate-level modelling
- Unit 2: Behavioural modelling — procedural assignments, conditional statements, and loops
- Unit 3: Dataflow-level and switch-level modelling of combinational circuits
- Unit 4: Finite state machine design (Moore/Mealy) and synthesis of combinational/sequential logic
- Unit 5: Test bench design and verification techniques for digital components
Optical Communications
(Professional Elective-I) — covers how light-based transmission works, the technology behind the fiber backbone of nearly all high-capacity networks.
- Unit 1: Optical fiber waveguide theory — total internal reflection, modes, step- and graded-index fibers
- Unit 2: Fiber materials, attenuation, and dispersion mechanisms
- Unit 3: Optical connectors and splicing techniques
- Unit 4: Optical sources (LEDs, laser diodes) and detectors (PIN, APD)
- Unit 5: Optical receiver design, link power budgeting, and WDM basics
Electronic Measurements and Instrumentation
(Professional Elective-I) — the measurement theory and instrument design that underlies every lab measurement students take for the rest of their careers.
- Unit 1: Measuring instrument fundamentals, errors, and digital voltmeters
- Unit 2: Oscilloscope principles, CRT construction, and digital storage oscilloscopes
- Unit 3: DC/AC bridge circuits for resistance, inductance, and capacitance measurement
- Unit 4: Signal generator and function generator design
- Unit 5: Transducers and intelligent/smart sensors
Computer Organization and Architecture
(Professional Elective-I) — explains how a computer is actually built internally, context that matters for anyone later working with processors or embedded systems.
- Unit 1: Data representation, register transfer language, and micro-operations
- Unit 2: Basic computer organization, instruction cycles, and micro-programmed control
- Unit 3: CPU organization, addressing modes, and computer arithmetic algorithms
- Unit 4: Input-output organization — interrupts, DMA, and I/O processors
- Unit 5: Memory hierarchy — cache, virtual memory, and memory management hardware
Open Elective-I
the table allows either a subject from the university-wide open-elective pool or a fixed alternative, Entrepreneurship Development & Venture Creation; no unit-wise syllabus for the Entrepreneurship option appears anywhere in this document, so it can’t be summarized honestly here.
Open electives offered by the ECE department (Pool 1)
the ECE syllabus document also carries full syllabi for four subjects it offers as open electives to other branches (Pool 1, mapped to the university’s Open Elective-I slot):
- Electronic Devices and Circuits — the same core content as the II Year I Semester Professional Core subject above, condensed for non-ECE branches.
- Signals and Systems — the same core content as the II Year I Semester Engineering Science subject above, condensed for non-ECE branches.
-
Probability Theory and Random Variables
a standalone probability-and-random-process course offered to other branches, mirroring the ECE core Probability Theory and Stochastic Process subject but framed for general engineering use.
-
Unit 1: Random variable definitions, distribution/density functions, and standard distributions
- Unit 2: Expectation, moments, and transformations of a single random variable
- Unit 3: Multiple random variables, joint distributions, and the Central Limit Theorem
- Unit 4: Random process classification, stationarity, and correlation functions
-
Unit 5: Power spectral density and the response of linear systems to random inputs
-
Network Analysis
covers circuit-theory fundamentals (transients, AC steady state, two-port networks) that other branches need as a foundational electrical circuits course.
-
Unit 1: Network elements, Kirchhoff’s laws, mesh/nodal analysis, and phasor representation
- Unit 2: Transient analysis of RL, RC, and RLC circuits under DC/AC excitation
- Unit 3: Steady-state AC circuit analysis and coupled-circuit theory
- Unit 4: Resonance (series/parallel) and network theorems (Thevenin, Norton, superposition, maximum power transfer)
- Unit 5: Two-port network parameters (Z, Y, ABCD, h) and their interconnection
Analog & Digital IC Applications Lab
hardware/simulation practice pairing op-amp circuits with digital IC design flows.
- Op-amp based adder, filter, oscillator, and timer/PLL circuits (Part A)
- HDL-based design, simulation, and hardware verification of digital ICs (Part B)
Analog and Digital Communications Lab
practical modulation/demodulation and coding experiments matching the Digital Communications and Analog Communications theory.
- AM/FM/DSB-SC modulation and demodulation, sampling theorem verification, and PAM/PWM/PPM
- Digital modulation (FSK, PSK), source/channel coding, and convolutional coding experiments
Applications of LabVIEW for Instrumentation & Communications
a skill-enhancement course that teaches graphical/virtual instrumentation as a practical alternative to hardware-only measurement.
- Unit 1: LabVIEW environment, virtual instrument creation, and data-flow programming
- Unit 2: Data acquisition, signal generation, and filtering using NI DAQ hardware
- Unit 3: AM/FM and digital modulation simulation within LabVIEW
- Unit 4: Real-time data logging, PID control, and motor-speed control applications
- Unit 5: Image processing and IoT/wireless integration using LabVIEW
Design of PCB & Antennas Lab
a project-oriented lab connecting simulation results to physically fabricated boards and measured antenna behaviour.
- In-house PCB prototyping (CNC etching, drilling, engraving) from simulation to physical board
- Antenna simulation experiments — radiation pattern plotting for dipole, monopole, array, and reflector antennas
Evaluation of Community Service Internship
a 2-credit evaluation component tied to the community-service work; the course structure lists only its credit weight, with no separate unit-wise syllabus provided in the document.