with Specialisation in IoT (Internet of Things)

 

About the Programme

Electronics and Communication Engineering (ECE) is a branch of engineering that integrates principles from electrical engineering and computer science to design, develop, test, and maintain electronic systems and communication devices. This field encompasses a broad range of technologies, including analog and digital electronics, signal processing, communication systems, and the application of these technologies to various industries. Here are key aspects of Electronics and Communication Engineering:

  1. Core Areas of Study:

    • Electronics: Involves the study of electronic devices, circuits, and systems. This includes the design and analysis of analog and digital circuits, as well as the study of semiconductor devices like transistors and integrated circuits.
    • Communication Systems: Focuses on the principles and techniques of transmitting and receiving information. This includes the study of modulation, demodulation, transmission lines, antennas, and wireless communication systems.
    • Signal Processing: Encompasses the processing and analysis of signals, both analog and digital. Digital Signal Processing (DSP) techniques are widely used for manipulating signals in applications such as audio processing, image processing, and communication systems.
    • Control Systems: Involves the analysis and design of systems that control the behavior of other systems or devices. This is crucial for automation and the control of various processes.

  2. Wireless and Optical Communication:

    • Wireless Communication: Involves the study of wireless technologies, including mobile communication, satellite communication, and wireless networking.
    • Optical Communication: Focuses on the principles of communication using optical fibers. This technology is widely used for high-speed data transmission over long distances.

  3. Networking:

    • Computer Networks: Covers the design and implementation of computer networks, including local area networks (LANs) and wide area networks (WANs).
    • Wireless Networks: Examines the principles and protocols involved in the design and operation of wireless communication networks.

  4. VLSI and Embedded Systems:

    • VLSI (Very Large Scale Integration): Involves the design and fabrication of integrated circuits (ICs) with millions or billions of transistors. This is essential for the development of advanced electronic devices.
    • Embedded Systems: Focuses on the design of systems with embedded processors to control and monitor specific applications. This includes applications in consumer electronics, automotive systems, and industrial automation.

  5. Biomedical Electronics:

    • Biomedical Instrumentation: Applies electronics to healthcare, involving the design and development of instruments used for medical diagnosis and monitoring.

  6. Power Electronics:

    • Power Electronics: Deals with the study of electronic devices and systems used to convert and control electrical power. This is crucial for efficient energy management.

  7. Internet of Things (IoT) and Artificial Intelligence (AI):

    • IoT: Involves the integration of devices and systems through the internet, enabling data exchange and communication between objects.
    • AI and Machine Learning: Involves the application of AI and machine learning techniques to enhance the capabilities of electronic systems

ECE programmes include a combination of theoretical coursework, laboratory experiments, and project work to provide students with a comprehensive understanding of electronic systems and communication technologies. Graduates of ECE programmes are well-equipped to contribute to technological advancements and innovations in various fields

SBITians working in Leading Global Companies

Anurag Panchal

Apple, USA

Harleen Kaur

Axtria Inc, USA

Shivam Kapoor

EXL

Ramanpriya

Schneider Electric

Akshay Dhingra

Genpact

Programme Educational Objectives (PEO):

Programme Educational Objectives (PEOs) for an Electronics and Communication Engineering (ECE) Programme outline the expected accomplishments and achievements of graduates after completing their academic Programme. PEOs are designed to guide the curriculum development and assess the effectiveness of the Programme. Here are Programme Educational Objectives for an ECE Programme:

  1. Professional Competence:

    • PEO: Graduates will demonstrate professional competence in the field of Electronics and Communication Engineering by applying fundamental knowledge, principles, and skills to analyze, design, and implement electronic systems and communication technologies.

  2. Problem-Solving and Critical Thinking:

    • PEO: Graduates will excel in problem-solving and critical thinking, employing analytical and creative approaches to address complex issues in electronics and communication engineering.

  3. Continuous Learning and Adaptability:

    • PEO: Graduates will engage in continuous learning, staying updated with emerging technologies and adapting to the evolving landscape of electronics and communication engineering throughout their careers.

  4. Effective Communication:

    • PEO: Graduates will possess effective communication skills, enabling them to articulate technical concepts clearly in both written and oral forms, and collaborate with peers and stakeholders.

  5. Teamwork and Collaboration:

    • PEO: Graduates will excel in collaborative work environments, contributing effectively to multidisciplinary teams and demonstrating leadership qualities when necessary.

  6. Ethical and Social Responsibility:

    • PEO: Graduates will adhere to ethical standards and exhibit social responsibility in their roles as Electronics and Communication Engineering professionals, considering the impact of their work on society and the environment.

  7. Innovation and Entrepreneurship:

    • PEO: Graduates will demonstrate innovation and entrepreneurship, contributing to the development of new technologies, products, or solutions in the field of electronics and communication engineering.

  8. Leadership and Management Skills:

    • PEO: Graduates will demonstrate leadership and management skills, capable of overseeing projects, teams, and organizational initiatives in the electronics and communication domain.

  9. Global Perspective:

    • PEO: Graduates will have a global perspective, understanding the international dimensions of electronics and communication engineering and contributing to the global engineering community.

  10. Life-Long Learning:

    • PEO: Graduates will pursue life-long learning opportunities, including professional development, certifications, and advanced degrees, to enhance their expertise and contribute to the advancement of the field.

  11. Success in Diverse Career Paths:

    • PEO: Graduates will achieve success in diverse career paths within the electronics and communication engineering field, including roles in research, development, design, testing, and management.

These PEOs provide a framework for the educational outcomes and experiences of students in an Electronics and Communication Engineering Programme. They ensure that graduates are well-prepared to meet the challenges of the professional landscape and make meaningful contributions to their chosen careers in electronics and communication engineering

Programme Specific Outcomes (PSO):

Programme Specific Outcomes (PSOs) for an Electronics and Communication Engineering (ECE) Programme specify the detailed knowledge, skills, and attributes that students are expected to acquire by the time they complete their academic programme. PSOs provide a more granular understanding of the educational outcomes and guide the design and assessment of the curriculum. Here are Programme Specific Outcomes for an ECE Programme:

  1. PSO 1: Proficiency in Electronic Circuits and Systems

    • Outcome: Graduates should demonstrate proficiency in the analysis, design, and implementation of electronic circuits and systems, including analog and digital circuits.

  2. PSO 2: Competence in Communication Systems

    • Outcome: Graduates should be competent in designing and analyzing communication systems, including modulation, demodulation, and transmission techniques.

  3. PSO 3: Proficiency in Signal Processing

    • Outcome: Graduates should possess proficiency in signal processing techniques, including the ability to analyze and process both analog and digital signals.

  4. PSO 4: Expertise in Control Systems

    • Outcome: Graduates should have expertise in the analysis and design of control systems, enabling them to control and automate various processes.

  5. PSO 5: Capability in VLSI and Embedded Systems

    • Outcome: Graduates should have the capability to design and implement Very Large Scale Integration (VLSI) circuits and embedded systems for specific applications.

  6. PSO 6: Proficiency in Wireless and Optical Communication

    • Outcome: Graduates should demonstrate proficiency in wireless communication technologies and optical communication principles.

  7. PSO 7: Competence in Networking Technologies

    • Outcome: Graduates should be competent in designing and managing computer networks, including both wired and wireless networks.

  8. PSO 8: Skills in Digital Signal Processing (DSP) and Image Processing

    • Outcome: Graduates should possess skills in digital signal processing and image processing techniques, applying them to various applications.

  9. PSO 9: Capability in Biomedical Instrumentation

    • Outcome: Graduates should have the capability to apply electronics principles to the design and development of instruments used in biomedical applications.

  10. PSO 10: Proficiency in Power Electronics

    • Outcome: Graduates should demonstrate proficiency in power electronics, including the design and implementation of electronic circuits for power management.

  11. PSO 11: Skills in Robotics and Automation

    • Outcome: Graduates should possess skills in the design and development of robotic systems and automation solutions.

  12. PSO 12: Application of Internet of Things (IoT) and Artificial Intelligence (AI)

    • Outcome: Graduates should be capable of applying IoT and AI technologies to solve real-world problems in electronic systems and communication.

  13. PSO 13: Effective Project Management and Execution

    • Outcome: Graduates should be capable of managing and executing engineering projects effectively, including planning, coordination, and resource management.

  14. PSO 14: Professional Communication Skills

    • Outcome: Graduates should possess effective communication skills, enabling them to communicate technical concepts clearly and collaborate with diverse stakeholders.

These Programme Specific Outcomes are designed to ensure that graduates of an Electronics and Communication Engineering Programme have a comprehensive set of skills and knowledge to succeed in their chosen career paths within the field. They serve as a basis for curriculum development, assessment, and continuous improvement of the Programme

Programme Outcomes (PO):

Engineering Knowledge (PO01):

  • Apply the knowledge of mathematics, science, engineering fundamentals, and an engineering specialization to the solution of complex engineering problems.

Problem Analysis (PO02):

  • Identify, formulate, review research literature, and analyse complex engineering problems reaching substantiated conclusions using first principles of mathematics, natural sciences and engineering sciences.

Design/Development of Solutions (PO03):

  • 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.

Conduct Investigations of Complex Problems (PO04):

  • 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 for complex problems:
    • that cannot be solved by straightforward application of knowledge, theories and techniques applicable to the engineering discipline as against problems given at the end of chapters in a typical text book that can be solved using simple engineering theories and techniques;
    • that may not have a unique solution. For example, a design problem can be solved in many ways and lead to multiple possible solutions;
    • that require consideration of appropriate constraints / requirements not explicitly given in the problem statement such as cost, power requirement, durability, product life, etc.;
    • which need to be defined (modelled) within appropriate mathematical framework; and
    • that often require use of modern computational concepts and tools, for example, in the design of an antenna or a DSP filter.

Modern Tool Usage (PO05):

  • Create, select, and apply appropriate techniques, resources, and modern engineering and IT tools including prediction and modelling to complex engineering activities with an understanding of the limitations.

The Engineer and Society (PO06):

  • 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.

Environment and Sustainability (PO07):

  • Understand the impact of the professional engineering solutions in societal and environmental contexts, and demonstrate the knowledge of, and need for sustainable development.

Ethics (PO08):

  • Apply ethical principles and commit to professional ethics and responsibilities and norms of the engineering practice.

Individual and Team Work (PO09):

  • Function effectively as an individual, and as a member or leader in diverse teams, and in multidisciplinary settings.

Communication (PO10):

  • 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.

Project Management and Finance (PO11):

  • 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 multidisciplinary environments.

Life-long Learning (PO12):

  • Recognize the need for, and have the preparation and ability to engage in independent and lifelong learning in the broadest context of technological change.

Major Subjects

  • Power Systems
  • Communications
  • Electronic Materials
  • Digital Systems
  • Engineering research methods
  • Biomedical Devices
  • Data Science
  • Smart grid and renewable energy
  •  X-ray lithography
  • Pattern recognition
  • Digital signal processing
  • Integrated circuits
  • Optoelectronic materials
  • Energy storage
  • Microelectronics
  • VLSI/CAD Communication systems
  • Nanotechnology
  • Power Electronics
  • Machine Learning
  • Artificial Intelligence

Career Opportunities

Electronics and Communication Engineers have a broad range of career opportunities due to their expertise in designing, developing, and maintaining electronic systems and communication technologies. Here are some common career paths and opportunities for individuals with a background in Electronics and Communication Engineering:

  1. Telecommunications Engineer:
    • Responsibilities: Designing, implementing, and maintaining telecommunications systems, including mobile networks, satellite communication, and broadband services.
  2. Network Engineer:
    • Responsibilities: Designing and managing computer networks, ensuring efficient data communication and connectivity.
  3. Electronics Design Engineer:
    • Responsibilities: Designing and developing electronic circuits and systems, including both analog and digital components.
  4. Signal Processing Engineer:
    • Responsibilities: Applying signal processing techniques to analyze and manipulate signals, with applications in audio processing, image processing, and communication systems.
  5. Embedded Systems Engineer:
    • Responsibilities: Designing and developing embedded systems for specific applications, such as consumer electronics, automotive systems, and industrial automation.
  6. VLSI Design Engineer:
    • Responsibilities: Designing Very Large Scale Integration (VLSI) circuits and systems, including integrated circuits with millions or billions of transistors.
  7. Communication System Engineer:
    • Responsibilities: Designing and optimizing communication systems, including wireless communication, optical communication, and satellite communication.
  8. Power Electronics Engineer:
    • Responsibilities: Designing and implementing electronic circuits for power management and control, with applications in power systems and renewable energy.
  9. Robotics Engineer:
    • Responsibilities: Designing and developing robotic systems for various applications, including manufacturing, healthcare, and exploration.
  10. Biomedical Engineer:
    • Responsibilities: Applying electronics principles to design and develop medical devices and instruments used in healthcare.
  11. IoT (Internet of Things) Engineer:
    • Responsibilities: Designing and implementing systems that integrate physical devices with the internet for data exchange and communication.
  12. AI (Artificial Intelligence) Engineer:
    • Responsibilities: Applying AI and machine learning techniques to enhance the capabilities of electronic systems and communication technologies.
  13. Project Manager:
    • Responsibilities: Overseeing and managing engineering projects, including planning, budgeting, and coordinating resources.
  14. Technical Sales Engineer:
    • Responsibilities: Providing technical expertise to support sales efforts, understanding customer requirements, and proposing suitable solutions.
  15. Research and Development Engineer:
    • Responsibilities: Conducting research and development activities to innovate and advance technologies in the field of electronics and communication.
  16. Consultant:
    • Responsibilities: Providing expert advice and consulting services to organizations on electronic systems, communication technologies, and related areas.
  17. Academic and Research Positions:
    • Opportunities: Teaching and conducting research at academic institutions and research organizations.
  18. Telecom Regulatory Specialist:
    • Responsibilities: Ensuring compliance with regulations in the telecommunications industry, addressing legal and regulatory aspects.

These career opportunities span various industries, including telecommunications, electronics manufacturing, information technology, healthcare, automotive, aerospace, and more. Electronics and Communication Engineers can also pursue advanced degrees, certifications, and continuous learning to stay updated with emerging technologies and enhance their career prospects.