Department of ECE w/s in Advanced Communication Technology

Overview
B.Tech ECE with Specialization in Advanced Communication Technology.
B.Tech – ECE Specialization in Advanced Communication Technology, under the faculty of Electronics and Communication Engineering, has been framed based on NEP guidelines, with a focus upon Multidisciplinary education. The objective of the program is to develop Advance Communication Technology based industry competent professionals of global standard capable of accepting challenges and able to solve the societal problems at a larger level. The world getting digitized and the speed of communication becoming an important factor, the evolution of 5G / 6G communication systems is imminent. Thus, the B.Tech program in ECE Specialization in Advanced Communication Technology focuses on the modern communication system such as, Wireless & Optical Communication, RF & Microwave Communication, Laser & Light Wave Communication, the Next Generation (5G / 6G) and Advanced Communication Technologies, such as Massive Multiple-Input Multiple-Output (MIMO), Beam Forming through Advanced Digital Signal Processing, Device to Device (D2D) communication, Millimeter Wave (mm-Wave) technologies, Communication Networks, Embedded Systems, IoT, Cyber & Network Security, Information Theory & Coding, etc., will be the focus of this engineering program. Satellite Communication, Navigation systems, Quantum, and Molecular Communication. A strong emphasis is placed throughout the course on developing the practical skills and on the in-depth knowledge that are required by today’s industries. At the outset, through this course, students will have professional prospects in a range of industries, including network providers such as BSNL, AIRTEL, Manufacturing, Health care, Education, and IT sector, Civil Aviation, Defense Postal and Railway Departments, All India Radio & TV stations, Indian Telecom Sector, National Physics Lab, Bharat Electronics Ltd, ONGC, SAIL, and PSUs, Cisco, Havells, 3M India, Reliance, Bajaj, Bosch, Philips and many more.
Programme
Duration:
4 years (Regular) / 3 years (Lateral Entry)
No. of Semesters:
8 (Regular) / 6 (Lateral Entry)
Intake / No. of Seats:
Total - 30 (Government - 15, Management - 15)
Eligibility:
10+2 system of Education. Must have secured a pass in Physics, Chemistry and Mathematics in the qualifying examination.
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Vision
To be a centre of excellence for transforming students into proficient Communication Engineers through sustainable practices.
Mission
M1. Impart core fundamental knowledge and necessary skills in communication systems through innovative teaching and learning methodology.
M2. Inculcate critical thinking, ethics, lifelong learning and creativity needed for industry and society.
M3. Cultivate the students with all-round competencies, for career, higher education and self-employability.
PEOs / PSOs / PO
Programme Educational Objectives (PEOs)
PEO1. | Graduates will be prepared for analysing, designing, developing and testing the software solutions and products with creativity and sustainability |
PEO2. | Graduates will be skilled in the use of modern tools for critical problem solving and analyzing industrial and societal requirements |
PEO3. | Graduates will be prepared with managerial and leadership skills for career and starting up own firms |
Program Specific Outcomes (PSOs)
Engineering Graduates will be able to
PSO1. | Develop creative solutions by adapting emerging technologies / tools for real time applications of Industry |
PSO1. | Apply the acquired knowledge to develop software solutions and innovative mobile apps for various automation applications |
Programme Outcomes (PO)
PO1. | Engineering Knowledge: Apply the knowledge of mathematics, science, engineering fundamentals, and an engineering specialization to the solution of complex engineering problems. |
PO2. | Problem Analysis:Identify, formulate, review research literature, and analyze complex engineering problems reaching substantiated conclusions using first principles of mathematics, natural sciences, and engineering sciences. |
PO3. | Design/Development Of Solutions: Design solutions for complex engineering problems and design system components or processes that meet the specified needs with appropriate consideration for the public health and safety, and the cultural, societal, and environmental considerations. |
PO4. | Conduct Investigations of Complex Problems:Use research-based knowledge and research methods including design of experiments, analysis and interpretation of data, and synthesis of the information to provide valid conclusions. |
PO5. | Modern Tool Usage:Create, select, and apply appropriate techniques, resources, and modern engineering and IT tools including prediction and modeling to complex engineering activities with an understanding of the limitations. |
PO6. | The Engineer and Society: Apply reasoning informed by the contextual knowledge to assess societal, health, safety, legal and cultural issues and the consequent responsibilities relevant to the professional engineering practice. |
PO7. | Environment and Sustain ability: Understand the impact of the professional engineering solutions in societal and environmental contexts, and demonstrate the knowledge of, and need for sustainable development. |
PO8. | Ethics: Apply ethical principles and commit to professional ethics and responsibilities and norms of the engineering practice. |
PO9. | Individual and Team Work: Function effectively as an individual, and as a member or leader in diverse teams, and in multi disciplinary settings. |
PO10. | Communication: Communicate effectively on complex engineering activities with the engineering community and with society at large, such as, being able to comprehend and write effective reports and design documentation, make effective presentations, and give and receive clear instructions. |
PO11. | Project Management and Finance: Demonstrate knowledge and understanding of the engineering and management principles and apply these to one's own work, as a member and leader in a team, to manage projects and in multi disciplinary environments. |
PO12. | Life-long Learning: Recognize the need for, and have the preparation and ability to engage in independent and life-long learning in the broadest context of technological change. |
Job Profiles
Job Profiles and Job Descriptions of Electronics and Communication Engineers
S.No. | Job Profiles | Job Description |
1 | Design Engineer | To work on the research and design of the new products for a particular company- draft and test prototypes, and ensure that the manufacturing process happens smoothly. |
2 | ASIC Engineer | To find and understand system complexities and devise solutions for the same thereby enhancing the system performance. |
3 | Embedded Engineer | To design and implement the software that is used by embedded devices and systems. To actively participate in every step of the software development life cycle and ensure that it happens smoothly and gets completed successfully. |
4 | Network Support Engineer | To ensure daily that the communication systems that organizations and individuals work on run smoothly and without any bugs, on both external and internal level. |
5 | Software Engineer | To identify the need for new software programs that may ease the work of a particular sector (business, gaming, etc.) and then design and develop them, while also working to improve the existing ones in terms of various factors like UI, speed and enabling of new features. Regularly check if the hardware and software of the system work properly. |
6 | Quality Analyst | To actively participate in and ensure that the development and planning of various test and process plans as well as test scripts for a project are happening smoothly. |
7 | Technician | To take part in the first few phases of the software development life cycle including prototyping, identifying potential threats and eliminating them. |
8 | Chief Technical Officer | To overlook the technical sector of an organization on a managerial level and work towards lining them to the overall growth targets of the company. |
9 | ECE Engineering Consultant | To act as a bridge between the client and the working team to make sure that not only are the client’s needs being met but the technical solutions provided are by the industry regulations. |
10 | Data Analyst | To analyze raw data from different sectors of the company and derive meaningful results (as graphs, charts, etc.) from it to help in the decision-making for the company or client and ensure maximum profitable solutions. |
Job Profiles and Average Annual Salary of Electronics and Communication Engineers in India
S.No. | Job Profiles | Average annual Salary (in Rs.) |
1 | Design Engineer | 4 - 5 lakh |
2 | ASIC Engineer | 20 lakh |
3 | Embedded Engineer | 16 lakh |
4 | Network Support Engineer | 3-4 lakh |
5 | Software Engineer | 4-12 lakh |
6 | Quality Analyst | 4.5 lakh |
7 | Technician | 2-2.5 lakh |
8 | Chief Technical Officer | 18 lakh |
9 | ECE Engineering Consultant | 20 lakh |
10 | Data Analyst | 5-8 lakh |
The forecast for employment opportunities in Advanced Communication Technology in India (2025–2030). The field is experiencing rapid growth, driven by innovations in 5G/6G, IoT, satellite communications, and wireless technologies.
Advanced Communication Technology Employment Forecast in India by 2025 – 2030 (The field is experiencing rapid growth, driven by innovations in 5G/6G, IoT, satellite communications, and wireless technologies.)
Key Industry Drivers
- 5G and 6G Deployment
- India's 5G rollout (and preparations for 6G) will lead to significant hiring in network planning, radio frequency (RF) design, and protocol development.
- Growth in telecom infrastructure, network security, wireless communication, and millimeter-wave (mm wave) technology.
- Satellite Communication & Remote Sensing
- India’s expanding Space Industry, including ISRO, private satellite companies (e.g., OneWeb, Bharti Airtel's satellite ventures), and global satellite internet networks (e.g., Starlink), will generate demand for satellite communication engineers.
- Key roles in satellite system design, communications payloads, and ground station operations.
- Internet of Things (IoT)
- The explosion of connected devices (smart cities, smart homes, industrial IoT) will require highly skilled professionals in low-power communication protocols (LPWAN), sensor networks, and embedded systems.
- Focus on IoT communication protocols (LoRa, Zigbee, NB-IoT), 5G IoT applications, and edge computing.
- Wireless Communication & Broadband
- As demand for high-speed internet increases, there will be job openings in wireless broadband, Wi-Fi 6/6E, and optical fiber \ communication.
- Development of mmWave-based systems, software-defined radio (SDR), and advanced modulation techniques will create numerous roles.
- Telecommunications Research & Development
- Increased investment in R&D for next-generation communication technologies (e.g., 6G, optical wireless communications, quantum communication) will create positions for research engineers and technology specialists.
Sector-Wise Job Growth Projections (2025–2030):
Sector | Growth Rate (2025–2030) | Key Hiring Areas |
Telecom (5G/6G) | 10–12% per year | RF engineering, Network design, 5G protocol testing |
Satellite Communications | 12–15% per year | Satellite payload design, ground station operations |
IoT & Embedded Systems | 15–18% per year | IoT communication protocols, sensor networks, edge computing |
Broadband & Wireless | 8–10% per year | mmWave systems, optical fiber, Wi-Fi 6/6E technologies |
R&D & Next-Gen Comms | 10–14% per year | Quantum communication, optical wireless, 6G technologies |
Employment Opportunities by Role
Role | Job Growth (2025–2030) | Skills Required |
Telecom Engineer (5G/6G) | High | RF design, Antenna design, mmWave, LTE, 5G NR, network optimization |
Satellite Communication Engineer | High | Satellite design, payload integration, frequency planning, communication systems |
IoT Network Engineer | Very High | Low-power protocols (LoRa, NB-IoT), sensor networks, embedded systems |
Wireless Communication Specialist | Moderate to High | Wi-Fi 6, mmWave communication, optical fiber, SDR, broadband deployment |
Research Engineer (6G/Quantum Comms) | High | Quantum computing, 6G technologies, advanced wireless systems |
RF System Engineer | High | Signal processing, RF components, microwave engineering |
Network Security Engineer | Very High | Network protocols, cybersecurity, 5G security, encryption |
Key Government Initiatives & Policy Impacts
- National Digital Communications Policy (NDCP 2018): Aimed at positioning India as a global leader in communication technologies and attracting investment in 5G and beyond.
- Space Policy: Promoting private-sector participation in satellite communications.
- Smart Cities Mission: Generating demand for IoT, broadband, and wireless communication infrastructure.
- PLI Scheme (Production Linked Incentive): For boosting manufacturing of telecom equipment and network components in India, leading to job creation in this sector.
Skills and Certifications Demand in Industry.
- 5G & 6G Expertise: Certifications from 3GPP, IEEE, and Cisco.
- IoT & Embedded Systems: Courses on Arduino, Raspberry Pi, STM32, and LoRaWAN.
- Satellite Communications: Hands-on experience with Satcom equipment and ground stations.
- Wireless Protocols: Knowledge of Wi-Fi 6, Bluetooth 5.0/5.1, LoRa, and NB-IoT.
- Software-Defined Networking (SDN): Familiarity with SDN and Network Function Virtualization (NFV).
Faculty
Name | Qualification | Designation | Area of Specialization |
Dr. NAGASUBRAMANIAN R |
M.E.,Ph.D., | Head - PG | Computer Science Engineering |
Dr. SUBRAMANIAN P |
M.E.,Ph.D., | Head - UG | Wireless Sensor Networking and Image Processing |
Dr. PREMALATHA G |
M.E.,Ph.D., | Associate Professor | Image Processing and Machine Learning |
Mrs. SARANYA V |
M.Tech.,(Ph.D) | Assistant Professor | IOT and Cloud Computing |
Mrs. SASIKALA L |
M.E | Assistant Professor | Computer Science and Engineering |
Mrs. KIRUTHIKA S |
M.E | Assistant Professor | Computer Science and Engineering |
Mrs. ASRIN MAHMOOTHA A |
M.E | Assistant Professor | Computer Science Engineering |
Mr. PRAVEENKUMAR P |
M.E | Assistant Professor | Computer Science Engineering |
Mr. RAJAKUMAR B |
M.Tech.,(Ph.D) | Assistant Professor | IOT, AI, NLP and Image Processing |
Mr. RAJASEKAR R |
M.E.,(Ph.D) | Assistant Professor | IOT, Network Security |
Sl.No | Name of the Lab | Facility Available | Courses Offered | Virtual Link / ICT Tools | Soft copy of Lab Record |
---|---|---|---|---|---|
1 | C Programming Lab | View Details | CS8261 - C Programming | View | Download |
2 | Internet Programming Lab | View Details | CS8661 - Internet Programming | View | Download |
3 | Operating Systems Lab | View Details | CS8461 - Operating Systems | View | Download |
4 | Object Oriented Analysis and Design Lab | View Details | CS8461 - Object Oriented Analysis and Design | View | Download |
5 | Web Technology Lab | View Details | IT8511 - Web Technology | View | Download |
6 | Networks Lab | View Details | CS8581 Networks Lab | View | Download |
Academics
Anna university Regulation, Syllabus
BE - 2013 Syllabus | ![]() |
BE - 2017 Syllabus | ![]() |
ME - 2013 Syllabus | ![]() |
ME - 2017 Syllabus | ![]() |
BE - 2017 Regulation | ![]() |
Course Materials
SlNo. | Subject Code | Subject Name | Lesson Plan | Question Bank | Lecture Notes | ICT Tools |
---|---|---|---|---|---|---|
1 | GE8151 | Problem Solving and Python Programming | View | View | View | View |
2 | CS8251 | Programming in C | View | View | View | View |
3 | MA8351 | Discrete Mathematics | View | View | View | View |
4 | CS8351 | Digital Principles and System Design | View | View | View | View |
5 | CS8391 | Data Structures | View | View | View | View |
6 | CS8392 | Object Oriented Programming | View | View | View | View |
7 | EC8395 | Communication Engineering | View | View | View | View |
8 | MA8402 | Probability and Queueing Theory | View | View | View | View |
9 | CS8491 | Computer Architecture | View | View | View | View |
10 | CS8492 | Database Management Systems | View | View | View | View |
11 | CS8451 | Design and Analysis of Algorithms |
View | View | View | View |
12 | CS8493 | Operating Systems | View | View | View | View |
13 | CS8494 | Software Engineering | View | View | View | View |
14 | MA8551 | Algebra and Number Theory | View | View | View | View |
15 | CS8591 | Computer Networks | View | View | View | View |
16 | EC8691 | Microprocessors and Microcontrollers | View | View | View | View |
17 | CS8501 | Theory of Computation | View | View | View | View |
18 | CS8592 | Object Oriented Analysis and Design | View | View | View | View |
19 | Open Elective I | View | View | View | View | |
20 | CS8651 | Internet Programming | View | View | View | View |
21 | CS8691 | Artificial Intelligence | View | View | View | View |
22 | CS8601 | Mobile Computing | View | View | View | View |
23 | CS8602 | Compiler Design | View | View | View | View |
24 | CS8603 | Distributed Systems | View | View | View | View |
25 | Professional Elective I | View | View | View | View | |
26 | MG8591 | Principles of Management | View | View | View | View |
27 | CS8792 | Cryptography and Network Security | View | View | View | View |
28 | CS8791 | Cloud Computing | View | View | View | View |
29 | Open Elective II | View | View | View | View | |
30 | Professional Elective II | View | View | View | View | |
31 | Professional Elective III | View | View | View | View | |
32 | Professional Elective IV | View | View | View | View | |
33 | Professional Elective V | View | View | View | View |