The B.E. in Electronics and Communication Engineering (ECE) program at Cambridge Institute of Technology North Campus (CIT – NC) is a four-year dynamic undergraduate program focusing on Designing, Developing and Maintaining Electronic systems and Communication networks. It provides a solid foundation in Circuit theory, Digital electronics, Signal processing, Microprocessors, Embedded systems and Communication technologies.
The curriculum also integrates modern advancements such as IoT, VLSI design, Wireless communication, Robotics and 5G Technologies. Hands-on lab sessions and projects ensure practical understanding alongside theoretical knowledge. Students are trained in industry-relevant tools like MATLAB, Verilog, Xilinx and Simulation software to enhance design and analysis skills. The program promotes interdisciplinary learning and includes exposure to AI, Machine learning and Automation. Internships, Industrial visits and Expert talks help students stay aligned with current industry trends. Graduates are well-prepared for careers in Telecommunications, Consumer electronics, Embedded systems, Aerospace and R&D. The curriculum also supports those aiming for Higher studies or Competitive exams like GATE, GRE or UPSC.
Electronics and Communications Engineering (ECE) graduates are instrumental in driving the digital revolution that defines today’s connected world. With expertise in designing and developing Electronic systems, Communication networks and Embedded technologies, ECE professionals power the backbone of modern technology - from smartphones and satellites to smart cities and autonomous vehicles.
As industries move toward 5G, IoT, AI integration and Automation, ECE graduates are at the forefront of innovation. They play a crucial role in developing high-speed communication systems, efficient hardware and intelligent control systems that enhance both industrial and consumer applications. Their interdisciplinary skills enable them to work in Core electronics, Telecommunications, Embedded systems, Robotics and even Software development.
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Their interdisciplinary skills enable them to work in Core electronics, Telecommunications, Embedded systems, Robotics and even Software development.
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Dr. Tejaswini C serves as the Professor and Head of the Department of Electronics and Communication Engineering at Cambridge Institute of Technology – North Campus, Bangalore. With an academic career spanning nearly two decades, she brings a strong blend of academic leadership, research expertise, and institutional service.
A recognized Research Supervisor under Visvesvaraya Technological University (VTU), Dr. Tejaswini is widely known for her contributions to cutting-edge research in Brain-Computer Interfaces (BCI), EEG Signal Processing, and Neural Networks. Her research reflects a deep commitment to the advancement of intelligent systems and human-machine interaction.
Dr. Tejaswini plays a pivotal role in academic administration, having served as a coordinator and committee member for prestigious bodies such as VTU, NAAC, and as the Single Point of Contact (SPOC) for the Samsung Innovation Campus at Cambridge Institute of Technology. She is an active member of professional bodies including IAEEE and IFERP.
Prior to her current role, she served with distinction as Professor and Dean of Student Affairs at M.S. Engineering College for over 18 years, where she was instrumental in shaping student-focused initiatives and academic policies.
Dr. Tejaswini C holds a Ph.D. from Visvesvaraya Technological University, a Master’s degree from SJCE, Mysore, and a Bachelor of Engineering degree from Bangalore University. Her leadership continues to inspire excellence in both academic and research domains within the ECE department.
Electronics and Communications Engineering (ECE) graduates are highly versatile professionals who find opportunities in a wide range of industries that rely on electronic systems, communication networks, and embedded technologies. With a strong foundation in circuit design, signal processing, telecommunications, and microelectronics, ECE engineers can pursue careers such as:
| Electronics Design Engineer Designing and developing electronic circuits, devices and systems |
Signal Processing Engineer Analyzing and manipulating signals in applications such as image processing, speech recognition and radar systems |
| Telecommunication Engineer Building and maintaining communication systems like mobile networks, satellite communications and internet infrastructure |
Instrumentation Engineer Designing sensors and control systems for monitoring industrial processes |
| Embedded Systems Engineer Creating integrated hardware-software systems used in devices like smart appliances, medical equipment and automobiles |
Network Engineer Managing and optimizing digital communication networks and systems |
| VLSI Design Engineer Working on chip design and development for computing, smartphones and loT devices |
IoT Solutions Architect Designing smart systems for homes, cities, health- care and industries using Internet of Things technologies |
| Control Systems Engineer Developing automation and control mechanisms in industries like manufacturing and robotics |
Consumer Electronics Engineer Innovating gadgets and electronic products used in everyday life |
Very Large Scale Integration (VLSI) focuses on designing complex microchips that power modern electronics. Research involves designing and testing integrated circuits (ICs), low-power electronics, and system-on-chip (SoC) architectures. Embedded systems, on the other hand, combine hardware and software for applications in automotive, robotics, and consumer electronics.
This area deals with the design and optimization of wireless networks, including mobile communication systems. Students explore antenna design, RF circuits, MIMO systems, and emerging technologies like 5G and 6G, which promise ultra-high speed and low latency in communication networks.
IoT connects everyday objects to the internet, enabling intelligent communication and automation. Students research sensor integration, wireless protocols, and data analytics to create smart environments—such as smart homes, healthcare monitoring systems, and industrial automation.
This field merges electronics, control systems, and artificial intelligence to build intelligent machines. Research focuses on actuator control, path planning, sensor fusion, and autonomous systems for applications in manufacturing, agriculture, and defense.
Control systems ensure that devices and systems perform desired tasks efficiently. Research includes automation techniques, feedback system design, process control, and smart sensors, which are widely used in robotics, aerospace, and energy systems.
This area focuses on transmitting information using light (fiber optics) or satellite-based systems. Students research modulation techniques, optical signal processing, and satellite link design, vital for high-speed data transmission over long distances.
The integration of machine learning with ECE has led to intelligent systems capable of predictive maintenance, adaptive signal filtering, and real-time object detection. Research explores how AI enhances communication protocols, speech processing, and smart device behavior.
This interdisciplinary area focuses on the development of medical devices and diagnostic systems. Students research ECG and EEG signal processing, wearable health monitors, and implantable devices, contributing to advancements in telemedicine and patient care.