01 · Programme Overview
An industry-ready programme built on strong fundamentals
The B.Tech in Electronics & Communication Engineering (ECE) at Amal Jyothi is designed to develop industry-ready engineers with strong foundations in electronics, communication systems, VLSI design, embedded systems and emerging areas such as Artificial Intelligence, 5G and the Internet of Things. The scheme emphasises:
Innovation-driven learning
Every semester pairs theory with design-first studios — from logic circuits in S1 to full RTL-to-GDS VLSI projects in S7.
Industry-aligned skills
Tool-chains and pedagogy track what semiconductor, telecom and embedded companies actually use.
Hands-on & project-based
Dedicated Product Development Lab for custom PCB design, Software-Defined Radio lab, and 11+ other laboratories.
Interdisciplinary integration
Minors in AI & Data Science, Cyber Security, CSE and IT give graduates genuine cross-domain depth.
02 · Year-wise Curriculum Structure
From foundations to industry readiness
Year 1S1 & S2
Foundations & Engineering Basics
The first year builds a solid foundation in engineering sciences, programming and basic electronics.
Key Components
- Logic Circuit Design
- Electronic Devices
- Programming in C and Python
- Engineering Mathematics
- Basic Electrical & Electronics Engineering
- Engineering Design (Fusion 360)
- Electrical & Electronics Workshop
Outcome: Students develop analytical thinking, problem-solving ability and programming fundamentals.
Year 2S3 & S4
Core Electronics & System Understanding
Core ECE concepts and system-level understanding are introduced in the second year.
Key Components
- Electronic Circuits
- Microprocessors & Microcontrollers
- Signals and Systems
- Electromagnetics
- Embedded Systems & IoT
- AI Foundations
- Data Structures and Algorithms
Laboratory Exposure
- Logic & HDL Lab
- Microcontroller Lab
- Circuit Simulation Lab
- Product Development Lab (Custom PCB Design)
Outcome: Students gain hardware–software integration skills and practical circuit design experience.
Year 3S5 & S6
Specialisation & Industry-Oriented Skills
The third year focuses on advanced subjects and domain specialisation.
Key Components
- VLSI Circuit Design
- Digital Signal Processing (with AI integration)
- Communication Systems
- Control Systems
- Information Theory & Coding
- Edge AI & Intelligent Systems
Laboratories & Practice
- DSP Lab
- Communication Lab
- VLSI & Embedded Systems Lab (RTL-to-GDS flow)
Outcome: Students acquire industry-relevant tools, design expertise and specialisation knowledge.
Year 4S7 & S8
Industry Readiness & Professional Competence
The final year prepares students for careers, higher studies and research.
Key Components
- Modern / Wireless Communication (5G, MIMO, OFDM)
- AI/ML and Deep Learning electives
- Cyber Security and Data Science
- Advanced VLSI and Embedded courses
Experiential Learning
- Communication Lab II (with Software-Defined Radio)
- Major Project, Internship, Mini Project
- Emerging Technologies Seminar
- Open electives and MOOCs
Outcome: Students achieve career readiness, research capability and innovation skills.
03 · Artificial Intelligence Integration
AI is a spine, not an elective
Artificial Intelligence is systematically embedded across the curriculum rather than added as a token elective:
- AI Foundations introduced in the early semesters
- Digital Signal Processing integrated with AI techniques (adaptive filters, neural DSP)
- Edge AI in embedded systems — latency-critical inference for IoT and real-world deployments
- Electives in Machine Learning and Deep Learning, including transformers and modern architectures
- AI applications in VLSI design automation — ML-assisted floor-planning, routing, verification
- Project work actively involving AI/ML solutions — every student ships at least one AI-integrated project
Impact: Graduates are equipped to work in AI-driven electronics and communication systems — from neural DSP to AI accelerators.
04 · Industry Relevance
Built alongside industry demands
The curriculum is aligned with current and emerging industry needs:
5G
IoT
Edge Computing
AI
VLSI
SDR
Cyber Security
- Curriculum inputs from industry experts; electives updated to match hiring-market demand
- Hands-on training using industry-standard tools (Cadence, MATLAB, Simulink, GNU Radio, Xilinx, open-source EDA)
- Strong emphasis on internships and industry-linked electives
Industry Exposure Includes
Semiconductor & Embedded
Direct exposure to semiconductor industry workflow — from RTL to silicon.
Telecom & Wireless
Modern standards (5G, MIMO, OFDM) with practical SDR experiments on real radio hardware.
Software & AI Domains
Programming proficiency that rivals CS graduates — Python, embedded C, Java and modern frameworks.
Internship-Linked
Credit-bearing internships in Year 4 with semiconductor, telecom and embedded companies.
05 · Programming & Software Skills
Strong software competency alongside hardware
The programme ensures graduates are as comfortable writing firmware as they are laying out a PCB.
Programming Languages
- C Programming — foundation
- Python for engineering & data applications
- Embedded C / ARM Programming
- Object-Oriented Programming (Java)
Tools & Platforms
- MATLAB, Simulink, GNU Radio
- RTL design using Verilog / SystemVerilog
- Git, Linux, open-source EDA tools
Outcome: Students become proficient in both hardware design and software development — enabling career pivots between VLSI, embedded, firmware, software and AI roles with minimal retraining.
06 · Specialisation Streams
Two deep technical tracks
Students can orient their learning through two major technical streams:
Track 1
VLSI & Embedded Systems
- ASIC Design, Embedded Systems, IoT
- Low-power VLSI and hardware design
- RTL-to-GDS design flow
Track 2
Signal Processing & Communication
- DSP, Wireless Communication, 5G
- Information Theory and Coding
- Software-Defined Radio
07 · Career Opportunities
Diverse career paths ahead
Graduates can pursue diverse career paths across core engineering, software and AI domains.
Core Engineering Roles
- VLSI Design Engineer
- Embedded Systems Engineer
- Verification Engineer
- RF / Wireless Engineer
- DSP / Algorithm Engineer
Software & AI Roles
- AI / ML Engineer
- Data Scientist
- Software Developer
- Firmware Engineer
- IoT Solutions Engineer
Industry Sectors
- Semiconductor industry
- IT & software services
- Telecom & networking
- Automotive & aerospace
- Healthcare & biomedical systems
- Startups and research organisations
08 · Hands-on Learning & Facilities
Learning by making
The programme emphasises experiential learning through dedicated labs and real hardware:
- Custom PCB Design & Product Development Lab — schematic to finished board
- RTL-to-GDS VLSI Design Lab — end-to-end digital IC design flow
- Software-Defined Radio (SDR) Lab — experiments on real radio hardware
- Advanced Simulation Tools — Cadence, MATLAB, Xilinx, industry-standard EDA
- Innovation-driven project-based learning across every semester
- Industry visits and fabrication exposure — foundries, semiconductor units, telecom infrastructure
09 · Unique Strengths
What sets AJCE ECE apart
- RTL-to-GDS VLSI design exposure at the undergraduate level — rare outside IITs
- Custom PCB design and hardware prototyping as a core lab, not an optional club activity
- ARM-based embedded systems training aligned with industry certifications
- Real-world communication experiments using SDR — modulation, demodulation on actual radio signals
- Strong industry collaboration and internship ecosystem — credit-bearing, with named partner companies
10 · Beyond Classroom
Growth outside the syllabus
Minor Specialisations
AI & Data Science, Cyber Security, CSE, IT — chosen alongside the B.Tech for genuine cross-domain depth.
Open Electives & NPTEL
Open electives across departments plus credited NPTEL MOOCs from IIT faculty.
Emerging Tech Seminar
Dedicated credit for exploring the frontier — quantum, neuromorphic, photonics, next-gen wireless.
Technical Clubs & Hackathons
IEEE student branch, robotics club, makers' workshops, ARM University, IETE chapter.
Research & Innovation
Student research initiatives, departmental research groups, patent-filing support, conference travel grants.
Contests & Recognition
Cadence competitions, Xilinx design contests, Smart India Hackathon, IEEE Xtreme.
11 · Programme Structure at a Glance
At a glance
170Total Credits
74Core Courses (PCC)
12Professional Electives
11+Laboratory Courses
14Projects / Internship
5Mandatory 1-credit
12 · Conclusion
A future-ready, industry-aligned programme
The ECE curriculum is a future-ready, industry-aligned programme that integrates core engineering, advanced technologies and practical learning. It equips students with both the technical depth and the adaptive mindset required for long, meaningful careers in electronics, communication, AI and allied domains — so every graduate leaves able to learn, to build and to lead.