Bachelor of Electronics, Communication and Information Engineering at Himalaya College of Engineering, Lalitpur is a four-year undergraduate engineering program affiliated with Tribhuvan University and academically governed through the Institute of Engineering (IoE).
The program combines electronics, communication engineering, computing, digital systems, microprocessors, telecommunications, computer networks, and project-based study. Students begin with mathematics, physics, programming, engineering drawing, and electrical and electronics fundamentals before moving into electronic devices, digital logic, advanced electronics, communication systems, networking, and related technical subjects.
HCOE has 48 seats for the program. Eligibility, IOE entrance, curriculum, examinations, academic progression, and degree award follow the applicable rules and regulations of Tribhuvan University and the Institute of Engineering.
| Field | Details |
|---|---|
| Course | Bachelor of Electronics, Communication and Information Engineering |
| Common Abbreviation | BEI |
| Level | Bachelor’s Degree |
| Duration | 4 Years |
| College | Himalaya College of Engineering |
| Location | Chyasal-9, Lalitpur, Nepal |
| Affiliation | Tribhuvan University |
| Academic Authority | Institute of Engineering |
| Seats | 48 |
| Entrance | IOE Entrance Examination |
| Degree Award | Tribhuvan University |
Electronics, Communication and Information Engineering brings several connected technical areas into one engineering degree. Students study how electronic circuits and digital systems work, how signals and information are processed, and how communication takes place between electronic and computing systems.
The course also includes programming and computer-related subjects. This means students do not study electronics in isolation. Computing, microprocessors, data communication, telecommunication networks, and project work appear alongside the electrical and electronics foundation.
At HCOE, the program is supported by laboratory work, simulations, technical exercises, and project activities. The college's electronics and computing facilities cover areas related to digital signal processing and logic design, embedded systems, RF and wireless communication, instrumentation and controls, microprocessors, and communication-oriented practical work.
The program may suit students interested in both electronics and communication technology rather than only one side of the field.
Students should be prepared for:
The degree includes theoretical, computational, and laboratory-based study. Interest in programming alone is not enough to describe the course; electronics, circuits, signals, communication, and hardware-related subjects are also central to the academic structure.
Eligibility follows the admission requirements prescribed by Tribhuvan University and the Institute of Engineering for Bachelor of Engineering programs.
Applicants must meet the applicable academic criteria and complete the IOE Entrance Examination process. Qualification, subject, grade, equivalence, and other eligibility conditions remain governed by the relevant TU/IoE regulations.
Admission eligibility and entrance qualification are separate parts of the process. Meeting the required previous academic qualification does not replace the IOE entrance requirement.
Admission is conducted within the TU Institute of Engineering framework.
Candidates seeking admission to the 48-seat program must complete the applicable IOE Entrance Examination and follow the merit, priority, program-selection, document, and enrollment procedures prescribed for affiliated engineering colleges.
HCOE handles college-level enrollment within this university framework rather than using a separate academic entrance system.
The curriculum develops from general engineering foundations toward specialized electronics and communication subjects.
| Academic Stage | Main Study Areas |
|---|---|
| Foundation | Mathematics, physics, programming, drawing, electrical and electronics engineering |
| Electronics and Digital Foundation | Electronic devices, digital logic, electrical circuits, object-oriented programming |
| Intermediate Engineering | Microprocessors, advanced electronics, graphics, communication-oriented technical study |
| Specialized Study | Communication systems, telecommunication and computer networks, project management, engineering economics, electives and project work |
The first year establishes the mathematical, scientific, programming, and electronics foundation used throughout the degree.
Year I: Part I includes Engineering Mathematics I, Engineering Physics, Computer Programming, Engineering Drawing, and Fundamental of Electrical and Electronics Engineering. These subjects establish the analytical and technical base required for later electronics and communication study.
Year I: Part II moves further into the discipline through Engineering Mathematics II, Object Oriented Programming, Electronic Device and Circuits, Digital Logic, Electrical Circuits and Machines, and Engineering Chemistry.
The transition between the two parts is significant. Students begin with broad engineering foundations and then start working directly with electronic components, circuits, logic systems, electrical machines, and programming concepts.
Electronic Device and Circuits and Digital Logic form important early technical subjects.
Electronic devices and circuits deal with the components and circuit principles used in electronic systems, while Digital Logic introduces the logical structures behind digital hardware.
These subjects prepare students for later work involving microprocessors, advanced electronics, embedded systems, signal processing, communication equipment, and other digital systems.
HCOE supports this part of the degree with practical spaces associated with logic design, electronics, embedded systems, instrumentation, controls, and microprocessor-based work.
Computing begins during the first year with Computer Programming and continues through Object Oriented Programming.
The inclusion of computing reflects the information-engineering component of the course. Modern communication and electronic systems rely on programmed control, digital processing, software-supported analysis, and interaction between hardware and computing systems.
Computer Graphics and Visualization also appears in the curriculum during the second year, giving students another computing-related subject alongside electronics and microprocessor study.
Year II: Part I includes Engineering Mathematics III, Communication English, Computer Graphics and Visualization, Microprocessors, and Advanced Electronics among its courses.
Microprocessors connect programming, digital logic, and electronic hardware. Advanced Electronics develops the electronics sequence beyond the introductory devices and circuits studied earlier.
At this stage, students are working across mathematical analysis, computing, processor-based systems, and electronics rather than treating these areas independently.
The practical component is equally relevant. Microprocessors and advanced electronics require laboratory-based study alongside the theoretical curriculum.
Communication Systems appears as a major subject in the later stage of the degree.
The course develops from earlier study in electronics, digital systems, mathematics, and processor-based systems before students move into dedicated communication engineering.
Communication Systems carries both theory and practical components in the TU/IoE curriculum. The subject sits alongside Telecommunication and Computer Networks, showing that the degree covers both electronic communication principles and communication between computer-based systems.
Telecommunication and Computer Networks is included in Year III: Part II.
This subject connects communication engineering with networked information systems. Its position later in the curriculum means students reach it after building a foundation in programming, electronics, digital logic, microprocessors, and other engineering subjects.
The program therefore covers communication at more than one level: electronic communication systems as well as network-based exchange of information.
Year III: Part II includes ICT Project Management, Engineering Economics, Communication Systems, Telecommunication and Computer Networks, and a Minor Project. TU IOE BE BArch Syllbus.docxDOCX
The Minor Project introduces a formal project component within the curriculum. By this stage, students have already worked with programming, electronics, digital systems, processors, and communication-related subjects.
Project work gives students a setting in which several of those areas can be brought together within one technical task.
ICT Project Management and Engineering Economics add organizational and economic perspectives to the technical curriculum. These subjects address aspects of engineering work that sit beyond circuit design or communication theory alone.
The HCOE academic environment includes named computing and electronics facilities relevant to this program.
Practical spaces cover digital signal processing and logic design, software and systems work, embedded systems, RF and wireless communication, instrumentation and controls, robotics-related activities, and microprocessor and embedded-system study.
These facilities support laboratory exercises and project work associated with the curriculum. Depending on the subject, students may work with electronic circuits, digital logic, processors, communication systems, instrumentation, embedded hardware, software, or related technical exercises.
The college also includes workshops, seminars, practical projects, and field-oriented academic activities within its broader teaching environment.
Embedded systems sit at the intersection of electronics, processors, and programmed control.
Microprocessors appear directly in the TU/IoE curriculum, while HCOE has laboratory facilities related to microprocessor and embedded-system work. The college's course information also identifies embedded systems among the program's academic areas.
This part of the course is especially relevant to students who want to understand how electronic hardware and software operate together within a dedicated technical system.
HCOE includes an RF and wireless communication laboratory among its electronics and computing facilities.
This facility relates directly to the communication side of the degree, complementing curriculum areas such as Communication Systems and Telecommunication and Computer Networks.
Practical exposure in communication engineering allows students to work with concepts that are difficult to understand through theory alone, particularly where signals, electronic components, transmission, and communication hardware interact.
The program follows the examination framework of Tribhuvan University and the Institute of Engineering.
HCOE conducts internal academic activities and assessments required by the curriculum, including laboratory work, practical exercises, assignments, projects, and internal examinations where applicable.
External examinations for the engineering program operate through the Institute of Engineering system. Examination procedures, schedules, forms, centers, and results therefore remain part of the applicable TU/IoE academic framework.
Himalaya College of Engineering delivers the program as a Tribhuvan University-affiliated college.
Students who complete the prescribed curriculum, internal requirements, external examinations, practical work, and project components receive their degree through Tribhuvan University.
HCOE provides the teaching, laboratory, project, and campus environment, while Tribhuvan University remains the degree-awarding authority. Himalaya_College_of_Engineering_Verified_Research_Foundation.docxDOCX
The combination of subjects and laboratory work can support development in electronic circuit analysis, digital-system understanding, programming, microprocessor work, communication-system study, networking, embedded-system concepts, laboratory practice, technical documentation, and project-based problem solving.
These abilities develop through coursework rather than through the degree title alone. Their depth depends on academic performance, laboratory participation, project work, independent technical practice, and later professional experience.
The academic content relates to areas such as telecommunications, communication systems, electronics, embedded systems, networking, processor-based systems, and technical project work.
Graduates may pursue roles connected with these fields according to their technical skills, project experience, professional requirements, and available opportunities.
The program does not guarantee a particular position or career outcome. Electronics and communication engineering covers several technical directions, and later specialization can depend on the subjects, projects, and professional work a graduate chooses to pursue.
This is an engineering degree under the TU Institute of Engineering framework.
Professional engineering practice in Nepal is subject to the applicable requirements of the Nepal Engineering Council. Completing the academic degree and obtaining professional engineering registration are separate processes.
Graduates entering regulated engineering practice must satisfy the prevailing recognition and registration requirements applicable through the concerned professional authority. Himalaya_College_of_Engineering_Verified_Research_Foundation.docxDOCX
The program has a duration of four years.
HCOE has 48 seats for the program.
The program is affiliated with Tribhuvan University and academically governed through the Institute of Engineering.
Yes. Admission follows the applicable TU Institute of Engineering entrance process.
Yes. Computer Programming and Object Oriented Programming are included in the curriculum.
Yes. Communication Systems and Telecommunication and Computer Networks are included in the curriculum.
Yes. Microprocessors is included in the second-year curriculum.
Yes. The curriculum includes a Minor Project, and HCOE also supports technical project activities within its engineering teaching environment.
Relevant facilities include digital logic, signal-processing, embedded-system, RF and wireless communication, instrumentation and controls, and microprocessor-related laboratory spaces.
Tribhuvan University awards the degree after completion of the applicable academic requirements.
No. Academic degree completion and professional registration are separate. Engineering practice remains subject to the applicable Nepal Engineering Council requirements.
