The Bachelor of Electronics, Communication and Information Engineering at National College of Engineering is a four-year undergraduate engineering program affiliated with Tribhuvan University through the Institute of Engineering (IOE). National College of Engineering (NCE), Talchhikhel, Lalitpur, offers 48 seats in the program.
The course brings together electronics, communication engineering, computing, information systems, signal processing, and networking. Students begin with mathematics, physics, programming, engineering drawing, electrical and electronics fundamentals, and digital logic before moving into microprocessors, communication systems, telecommunication networks, digital signal processing, microwave engineering, embedded systems, and project work.
Admission, academic eligibility, curriculum, examinations, and degree award follow the applicable rules and regulations of Tribhuvan University and IOE.
| Field | Details |
|---|---|
| Course | Bachelor of Electronics, Communication and Information Engineering |
| Institution | National College of Engineering |
| Affiliation | Tribhuvan University, Institute of Engineering |
| Level | Undergraduate |
| Duration | 4 years / 8 semesters |
| Intake | 48 seats |
| Entrance | IOE Entrance Examination |
| Curriculum | TU/IOE |
| Examination | As per TU/IOE rules and regulations |
| Degree Award | Tribhuvan University |
The program is administered through the Department of Electronics and Computer Engineering at National College of Engineering.
Its subject range crosses several connected engineering areas. Electronics deals with circuits, devices, digital systems, and electronic hardware. Communication engineering examines how signals and information are transmitted. Computing and networking subjects deal with programmable systems, data communication, and interconnected devices.
This combination means students are not confined to one side of technology. Programming and information-related subjects appear alongside electronic circuits, microprocessors, communication systems, signals, networks, and hardware-oriented practical work.
NCE conducts teaching, laboratory activities, internal academic work, and project supervision. The wider academic framework, including curriculum and university examinations, operates under Tribhuvan University and the Institute of Engineering.
The course may suit students interested in how electronic devices, communication systems, computing hardware, networks, and signals work together.
A student should expect more than programming. The curriculum includes mathematics, physics, electrical circuits, electronics, digital logic, communication theory, microprocessors, signal processing, and networking. Practical work requires students to connect mathematical and theoretical concepts with circuits, measurements, programming, and system behaviour.
The program may align with interests in areas such as:
Students who prefer a combination of hardware, communication, and computing may find the academic mix more suitable than a program focused mainly on software development or electrical power systems.
Eligibility for admission follows the academic requirements prescribed by Tribhuvan University and the Institute of Engineering.
Applicants must have the academic background accepted by IOE for undergraduate engineering admission and must satisfy the applicable IOE entrance requirements.
Academic eligibility and entrance qualification are both part of the admission process. Meeting the required educational qualification does not by itself complete admission to the program.
NCE follows the TU/IOE engineering admission framework rather than maintaining a separate university-level eligibility standard for this degree.
Admission to the program is linked to the IOE Entrance Examination and the corresponding merit framework.
The general process includes:
The program has an intake of 48 students.
The college-level application takes place within the IOE admission system. Applicants therefore need to complete the university entrance requirement before proceeding through the applicable NCE admission process.
The degree runs for four years across eight semesters.
The curriculum develops in stages. Early semesters establish engineering mathematics, science, programming, drawing, circuits, and electronics. Middle semesters move into microprocessors, advanced electronics, communication systems, networking, and related engineering subjects. Later study introduces more specialized areas such as radio-frequency and microwave engineering, digital signal processing, robotics, electives, and project work.
Laboratory and practical components accompany many of the technical subjects.
| Study Stage | Main Academic Areas | Practical Emphasis |
|---|---|---|
| Foundation | Mathematics, physics, programming, drawing, electrical and electronics fundamentals | Programming, drawing and laboratory work |
| Core Engineering | Electronic devices, digital logic, circuits, microprocessors, advanced electronics | Circuit, electronics and processor-based practical work |
| Communication & Information | Communication systems, telecommunication, computer networks, signals | Communication and networking laboratories |
| Advanced Study | RF and microwave engineering, DSP, robotics, electives, projects | Design, analysis and project work |
The first year gives students the scientific and engineering base needed for later electronics and communication subjects.
The opening semester includes Engineering Mathematics I, Engineering Physics, Computer Programming, Engineering Drawing, and Fundamental of Electrical and Electronics Engineering, alongside practical engineering work.
The next stage introduces subjects including Engineering Mathematics II, Object Oriented Programming, Electronic Device and Circuits, Digital Logic, Electrical Circuits and Machines, and Engineering Chemistry.
This mixture shows the character of the program from an early stage. Students work with programming and computing concepts while also studying electronic devices, circuits, digital logic, electrical systems, mathematics, and science.
Digital Logic is particularly important for later study because it introduces the principles behind digital electronic systems. Electronic Device and Circuits provides the circuit-level background needed for more advanced electronics.
The curriculum becomes more specialized during the second year.
Subjects include Engineering Mathematics III, Communication English, Computer Graphics and Visualization, Microprocessors, and Advanced Electronics.
Microprocessor study connects programming with electronic hardware. Students examine programmable processing systems rather than working only with general-purpose software.
Advanced Electronics develops the circuit and device foundation established earlier in the degree. Practical work supports the transition from basic electronic concepts toward more complex systems.
These subjects also prepare students for later work involving communication equipment, embedded systems, signal processing, and other electronics-based applications.
Communication engineering is one of the defining areas of the program.
The curriculum includes Communication Systems and related study in analog and digital communication. Students examine how information can be represented, processed, transmitted, and received through communication systems.
The academic scope also extends to areas such as:
These subjects connect the electronics side of the degree with information transmission.
Rather than treating a communication link as a single device, students study the different stages involved in moving information through an engineering system, including signals, electronic circuits, transmission methods, networking, and processing.
The TU/IOE curriculum includes Telecommunication and Computer Networks.
This area deals with communication between systems and devices rather than only the internal operation of individual electronic circuits.
Students encounter networking concepts alongside communication engineering. NCE's program coverage also includes switching and basic network-planning concepts.
The combination is significant because communication systems increasingly involve both electronic transmission and networked information systems. Students therefore study the connection between communication hardware and the systems used to move information between endpoints.
Digital Signal Processing forms part of advanced study in the program.
Signal processing deals with the analysis and manipulation of signals carrying information. It builds on earlier mathematics, electronics, and communication subjects.
The curriculum includes Digital Signal Processing in the later stage of the degree. Students also encounter signal-related concepts earlier through communication and systems study.
The subject provides a mathematical and computational perspective on information represented as signals, complementing the hardware-oriented side of electronics and communication engineering.
Later study includes RF and Microwave Engineering and Robotics.
RF and Microwave Engineering extends communication study into higher-frequency electronic and transmission systems. It sits naturally alongside communication, antenna, and signal-related subjects in the curriculum.
Robotics introduces another applied engineering area where electronics, sensing, control, programming, and hardware can meet within a single system.
These later courses come after students have already studied electronics, digital logic, microprocessors, circuits, programming, and communication, allowing them to work with more integrated engineering concepts.
NCE maintains electronics, communication, and computing laboratory facilities relevant to the program.
Practical study includes areas associated with:
Laboratory work gives students direct contact with circuits and systems discussed in theory classes. Programming exercises, circuit work, measurements, technical testing, and project assignments form part of the applied side of the course.
The college also has computing resources, a central library, research-related spaces, and an R&D function that support academic and project activities.
Project work becomes more prominent as students move into the later semesters.
The curriculum includes a Minor Project as well as final-year project components. Project I also appears in the advanced stage of the TU/IOE syllabus.
Depending on the academic topic, project work can bring together several parts of the course, such as:
Project work requires students to move beyond studying individual subjects and apply knowledge from several areas to a defined engineering task.
The curriculum provides opportunities for students to develop technical abilities across electronics, communication, computing, and networking.
These may include:
The depth of these abilities depends on academic performance, practical participation, project work, and continued technical practice.
Academic assessment follows TU/IOE rules and regulations.
Students complete college-level academic requirements alongside the university semester examination system. Individual courses may include theory examinations, laboratory assessments, programming or practical exercises, assignments, internal evaluations, project assessment, and other components specified by the curriculum.
NCE maintains an internal Examination Division for college-level assessment administration. The university semester examination structure remains under IOE/TU.
Students must complete the prescribed academic and examination requirements of the degree.
The degree is awarded by Tribhuvan University after students complete the required curriculum and examination requirements.
NCE conducts the program as a TU/IOE-affiliated engineering college. Teaching, laboratory activities, projects, internal assessments, and student support take place at the college, while the principal academic framework and degree award remain under the university system.
The academic scope of the program connects with several areas of electronics, communication, networking, and information technology.
Graduates may explore opportunities related to:
Career outcomes depend on technical skills, project experience, professional requirements, further training, recruitment conditions, and available opportunities.
The degree can also provide an academic base for further study in electronics, communication engineering, signal processing, networks, embedded systems, and related fields.
National College of Engineering is represented within the registered-college framework of the Nepal Engineering Council for its engineering programs.
Completion of the degree and professional registration are separate processes. Graduates seeking engineering registration must satisfy the requirements and procedures prescribed by the Nepal Engineering Council.
The degree should therefore not be treated as automatic professional registration.
The program combines three closely connected areas: electronic hardware, communication systems, and information technology.
Students begin with mathematics, science, programming, circuits, and digital electronics before progressing into microprocessors, communication systems, telecommunication networks, signal processing, microwave engineering, robotics, and projects.
For a student choosing between engineering programs, this course is most closely aligned with an interest in both hardware and information transmission. It requires sustained work in mathematics, electronics, programming, laboratory exercises, communication theory, and project development throughout the eight-semester degree.
