The Bachelor in Electronics, Communication and Information Engineering at Kathmandu Engineering College is a four-year undergraduate engineering program affiliated with Tribhuvan University through the Institute of Engineering (IOE).
The formal IOE program title includes Electronics, Communication and Information Engineering, reflecting a curriculum that connects electronic devices and circuits with communication systems, telecommunications, computer networks, embedded systems, signal processing, wireless communication, RF and microwave engineering, and related computing subjects.
Students progress from mathematics, physics, programming, electrical and electronics fundamentals, and engineering drawing into advanced electronics and communication subjects. The later years include a Minor Project, Project I, Project II, electives, and an eight-week internship. Eligibility, entrance, examinations, curriculum, academic progression, and degree award follow the applicable TU/IOE rules and regulations.
| Field | Details |
|---|---|
| Official Program Title | Bachelor in Electronics, Communication and Information Engineering |
| Level | Undergraduate |
| Duration | 4 Years |
| Academic Structure | 8 Parts |
| Institution | Kathmandu Engineering College |
| Location | Kalimati, Kathmandu |
| Affiliation | Tribhuvan University |
| Academic Authority | Institute of Engineering (IOE) |
| Entrance | IOE Entrance Examination |
| Seats | 96 |
| Project Components | Minor Project, Project I, Project II |
| Internship | 8 Weeks |
| Degree Award | Tribhuvan University |
Electronics, Communication and Information Engineering brings several technical areas into one engineering degree.
The electronics side begins with electrical and electronics fundamentals, electronic devices and circuits, digital logic, advanced electronics, instrumentation, microprocessors, filter design, and embedded systems.
Communication study becomes more prominent as students move into signals, communication systems, antennas, telecommunications, wireless communication, RF and microwave engineering, and computer networks.
The information and computing side appears through subjects such as computer programming, object-oriented programming, data structures, data communication, operating systems, computer graphics, artificial intelligence, embedded computing, and ICT project management.
This combination gives the program a different academic character from a degree focused only on electronics or only on computer programming. Students work across hardware, software, communication, digital systems, and signal-related engineering.
This course may suit students interested in how electronic systems process information and how communication technologies carry signals and data between devices and networks.
The program requires mathematical study as well as laboratory, programming, electronics, and project work. Students should be prepared to move between circuit-level subjects and computing or communication-oriented subjects rather than concentrating on one type of technical work throughout the degree.
Areas appearing across the curriculum include:
The breadth of these subjects makes the program relevant to students whose interests cross the boundaries between electronics, communication, and computing.
The degree runs for four academic years under the IOE framework and is organized into eight academic parts.
The first year establishes foundations in mathematics, physics, computing, electronics, electrical engineering, drawing, chemistry, and workshop-based study.
The second year moves toward microprocessors, advanced electronics, control, instrumentation, electromagnetics, data-related subjects, and communication foundations.
During the third year, the curriculum shifts into more specialized technical areas such as filter design, embedded systems, propagation and antennas, communication systems, telecommunications and computer networks. Students also begin formal project work.
The fourth year concentrates on higher-level electronics and communication topics alongside major project work, electives, and internship.
KEC follows the curriculum prescribed through the Institute of Engineering. The subject sequence is designed so that foundational science, programming, circuits, and electronics support the more specialized communication and system subjects studied later.
| Academic Stage | Main Subjects and Areas |
|---|---|
| Year I | Engineering Mathematics, Engineering Physics, Computer Programming, Engineering Drawing, Fundamental of Electrical and Electronics Engineering, Engineering Workshop, Object Oriented Programming, Digital Logic, Electronic Device and Circuits, Engineering Chemistry, Electrical Circuits and Machines |
| Year II | Engineering Mathematics III, Communication English, Computer Graphics and Visualization, Microprocessors, Advanced Electronics, Control System, Instrumentation, Electromagnetics, probability/statistical study and signal, data or computing-related subjects within the prescribed IOE structure |
| Year III | Artificial Intelligence, Filter Design, Embedded Systems, Propagation and Antenna, Elective I, Engineering Economics, Communication Systems, Telecommunication and Computer Networks, ICT Project Management, Minor Project, Elective II |
| Year IV | RF and Microwave Engineering, Robotics, Digital Signal Processing, Wireless Communication, Elective III, Project I, Energy, Environment and Social Engineering, Internship, Elective IV, Project II |
The curriculum is not limited to lectures. Several subjects include practical components, while project and internship requirements become more important in the later stages of study.
Electronics begins early in the degree.
Fundamental of Electrical and Electronics Engineering introduces the basic area during the first academic stage. Students later study Electronic Device and Circuits, Digital Logic, Electrical Circuits and Machines, Microprocessors, and Advanced Electronics.
These courses provide the background needed for subjects that appear later, including embedded systems, filter design, communication systems, digital signal processing, RF and microwave engineering, and robotics.
Students studying this program should expect electronics to remain a continuing part of the degree rather than a single introductory component.
Communication engineering becomes a major focus in the later years.
Communication Systems provides a dedicated study of communication principles, while Telecommunication and Computer Networks connects communication with networked systems. Propagation and Antenna addresses another part of communication engineering by introducing subjects related to signal propagation and antenna systems.
The fourth year includes Wireless Communication and RF and Microwave Engineering.
These subjects place communication engineering across different technical levels—from signal and transmission concepts to antennas, wireless systems, networks, and higher-frequency engineering.
This progression is one of the defining features of the course.
Microprocessors are introduced before students reach Embedded Systems in the third year.
Embedded systems bring computing and electronic hardware together within devices designed to perform specific functions. The subject builds naturally on programming, digital logic, electronics, and microprocessor study already completed in earlier stages.
This part of the curriculum illustrates how electronics and computing overlap within the program.
Students are not studying computer software independently from hardware. Instead, programming and processor-related study support the understanding of electronic and embedded systems.
Signal-related subjects form another connected part of the curriculum.
Students encounter signal concepts before moving into Filter Design and, later, Digital Signal Processing. These subjects relate to how signals are represented, processed, filtered, and handled within electronic and communication systems.
Their placement across the degree reflects the progression from mathematical and electronic foundations toward more specialized communication and signal-processing work.
Students interested in communication, electronic processing, or related system design should expect signal analysis to require mathematical as well as technical understanding.
Propagation and Antenna appears in the third year, followed by RF and Microwave Engineering and Wireless Communication in the fourth year.
Together, these subjects address parts of engineering associated with the transmission and reception of electromagnetic signals.
The sequence also connects with earlier study in Electromagnetics and Communication Systems.
Rather than treating wireless communication as a standalone topic, the curriculum builds the required foundation through electronics, electromagnetics, signals, antennas, and communication principles before students reach advanced wireless and RF subjects.
Although this is not a Computer Engineering degree, computing has a clear place in the curriculum.
Students study Computer Programming in the first year followed by Object Oriented Programming. Computer Graphics and Visualization appears later, while other parts of the course connect with data structures, communication networks, embedded computing, and artificial intelligence.
ICT Project Management is also included during the third year.
These subjects support the information-engineering component of the program and provide computing knowledge that can be applied alongside electronics and communication study.
The computing content complements the engineering core rather than replacing it.
The teaching schedules for many technical courses contain practical hours alongside lectures and tutorials.
Practical work appears in programming, electronics, digital logic, electrical systems, microprocessors, instrumentation, embedded systems, communication subjects, RF engineering, signal processing, robotics, and related areas according to the prescribed IOE curriculum.
This means that the degree requires more than theoretical examination preparation.
Students are expected to connect mathematical and technical concepts with laboratory or project-based work where included in individual subjects. The practical component also prepares students for the more integrated project requirements that appear during the third and fourth years.
Project work is spread across several academic stages instead of being concentrated in a single final assignment.
The Minor Project appears in Year III, Part II. It gives students an earlier opportunity to work on a defined engineering problem before the final project sequence.
Project I follows in Year IV, Part I, while Project II appears in Year IV, Part II.
A project may require students to combine knowledge from electronics, programming, embedded systems, communication, signal processing, networking, robotics, or other subjects depending on the selected topic.
Project work also requires planning, technical documentation, testing, analysis, and presentation within the academic requirements of the course.
The final academic part includes an eight-week internship carrying four credits.
By this stage, students have completed most of their electronics, communication, computing, networking, signal-processing, and project-oriented subjects.
The internship forms part of the IOE curriculum rather than an optional activity outside the degree.
It provides a structured period for students to connect academic study with technical work in an organizational setting. The value of the experience depends on the work undertaken, student participation, supervision, and the relationship between the placement and the academic discipline.
Eligibility for the program at Kathmandu Engineering College follows the applicable rules and regulations of Tribhuvan University and the Institute of Engineering.
Candidates must satisfy the academic requirements prescribed for entry into the IOE Bachelor of Engineering admission process.
KEC does not operate an unrelated eligibility system for this degree. Admission eligibility forms part of the wider TU/IOE entrance framework.
Admission is linked with the IOE Entrance Examination.
Applicants first meet the applicable academic eligibility conditions and participate in the entrance process administered under the Institute of Engineering.
Entrance performance establishes the rank used during the admission process. Applicants then proceed through the applicable college admission procedure and program-priority system.
KEC has 96 seats for this program.
The admission process is tied to IOE entrance performance, merit order, program preference, and the applicable admission rules. A college application does not replace the IOE entrance requirement.
Assessment operates within the TU/IOE academic system.
Students complete theory, practical, laboratory, project, and internship requirements according to the structure of individual courses.
Kathmandu Engineering College handles teaching and the applicable college-level academic components, while the centralized examination system operates through the Institute of Engineering.
Students must satisfy the prescribed academic requirements across all parts of the program before completing the degree.
Kathmandu Engineering College delivers the program as an affiliated college under the Institute of Engineering.
The college is not an independent degree-awarding university.
Students who successfully complete the prescribed curriculum, examinations, practical work, projects, internship, and other applicable requirements receive the degree through Tribhuvan University.
The combination of theory, laboratories, programming, projects, and internship gives students opportunities to develop abilities across several technical areas.
These may include:
The level of competence achieved depends on academic performance, practical engagement, project work, internship experience, and continued study.
Graduates may explore technical work connected with electronics, telecommunications, communication systems, computer networks, embedded systems, signal processing, wireless systems, RF-related work, and other areas aligned with their academic preparation.
Further academic study may also be pursued in electronics, communication, information engineering, embedded systems, telecommunications, signal processing, networking, or related engineering fields, subject to the admission requirements of the chosen postgraduate program.
Career outcomes depend on technical ability, practical experience, project work, further qualifications, professional requirements, employer needs, and available opportunities. The degree does not by itself ensure a particular job or professional position.
The Nepal Engineering Council is the relevant statutory professional regulator for engineering in Nepal.
Academic graduation and professional registration are separate processes.
Engineering graduates seeking professional registration must follow the applicable Nepal Engineering Council rules. Program recognition and graduate registration operate under the relevant council requirements and should not be treated as automatic consequences of completing the university degree.
This program covers more than conventional electronics.
Students work with circuits and electronic devices, but they also study programming, processors, embedded systems, communication systems, antennas, networks, signal processing, RF engineering, wireless communication, robotics, projects, and internship work.
Students considering the degree should be comfortable with mathematical study and should have an interest in both hardware and information or communication systems.
The four-year structure is suited to students who want an engineering curriculum that keeps electronics at its technical foundation while extending into communication and information-related subjects.
The IOE curriculum uses the title Bachelor in Electronics, Communication and Information Engineering.
The program has a four-year duration and is organized into eight academic parts.
Kathmandu Engineering College has 96 seats for the program.
Yes. Admission follows the applicable IOE entrance and merit-based admission framework.
The curriculum covers electronics, circuits, microprocessors, embedded systems, communication systems, telecommunications, computer networks, antennas, wireless communication, RF and microwave engineering, signal processing, robotics, programming, and related subjects.
Yes. The curriculum includes a Minor Project, Project I, and Project II.
Yes. Year IV, Part II includes an eight-week internship carrying four credits.
The program operates under the academic framework of the Institute of Engineering, Tribhuvan University. Central examination functions are handled through IOE.
Tribhuvan University awards the degree after students complete the prescribed academic requirements.
