The Bachelor of Mechanical Engineering at Thapathali Campus is a four-year undergraduate engineering program conducted through the Department of Automobile and Mechanical Engineering under the Institute of Engineering (IOE), Tribhuvan University. The IOE curriculum identifies the program as Bachelor in Mechanical Engineering. It is divided into eight semesters, consists of 49 courses, carries 143 credit hours, and has a total assessment structure of 5,675 marks. Thapathali Campus has an intake of 48 students for the program.
Mechanical Engineering at Thapathali Campus combines mathematics and basic sciences with engineering mechanics, thermodynamics, materials, manufacturing, workshop technology, machine drawing, metrology, strength of materials, instrumentation, computer-aided design, fluid mechanics, machine design, machine dynamics, heat and mass transfer, computational fluid dynamics, energy technology, engineering economics, project work, and industrial attachment.
The program was introduced at Thapathali Campus in 2068 BS as part of the campus's transition toward bachelor's-level engineering education.
Admission, entrance requirements, curriculum, examinations, results, and degree award follow the applicable rules and regulations of the Institute of Engineering and Tribhuvan University.
| Particular | Details |
|---|---|
| Course | Bachelor in Mechanical Engineering |
| Common Name | Bachelor of Mechanical Engineering / BE Mechanical |
| Level | Bachelor's Degree |
| Institution | Thapathali Campus |
| Department | Department of Automobile and Mechanical Engineering |
| Institute | Institute of Engineering (IOE) |
| University | Tribhuvan University |
| Duration | 4 Years |
| Academic Structure | 8 Semesters |
| Courses | 49 |
| Credit Hours | 143 |
| Total Marks | 5,675 |
| Intake | 48 Seats |
| Degree Award | Tribhuvan University |
| Location | Thapathali, Kathmandu, Nepal |
Mechanical Engineering at Thapathali Campus is structured around the study of machines, materials, energy systems, manufacturing processes, mechanical design, engineering analysis, and related practical work.
The curriculum begins with mathematics, chemistry, programming, electrical and electronics fundamentals, engineering drawing, and mechanics. Thermodynamics, machine drawing, workshop technology, materials, manufacturing, metrology, strength of materials, fluid mechanics, instrumentation, and computer-aided design then form the technical base for advanced subjects.
Later stages include Heat and Mass Transfer, Machine Design, Machine Dynamics, Industrial Engineering and Management, Professional Engineering Economics, Finite Element Method, Applied Computational Fluid Dynamics, Energy Resources and Technology, electives, project work, professional practice, and industrial attachment.
The result is a curriculum that does not treat mechanical engineering as machine design alone. Thermal systems, manufacturing, materials, mechanics, fluids, production, computation, engineering management, and workplace exposure all appear within the four-year program.
The program may suit students interested in how machines, components, materials, manufacturing processes, thermal systems, and mechanical systems are studied and designed.
Students need to be comfortable with mathematics and physics-based reasoning. Engineering Mathematics is studied across the early semesters, while mechanics, thermodynamics, strength of materials, fluid mechanics, heat transfer, and machine design require sustained numerical and analytical work.
The program also contains practical components. Engineering Drawing, Machine Drawing, Workshop Technology, Manufacturing and Production Processes, Metrology, Instrumentation and Sensors, Computer Aided Design, laboratory work, projects, and industrial attachment add workshop, design, measurement, and applied elements to the degree.
A student considering Mechanical Engineering should therefore expect both analytical study and practical technical work rather than a classroom-only program.
Eligibility follows the undergraduate admission rules prescribed by the Institute of Engineering and Tribhuvan University.
The undergraduate admission framework covers academic backgrounds such as +2 Science, A-Level, or an equivalent three-year Engineering Diploma with the required Physics, Chemistry, and Mathematics background. Candidates must also satisfy the applicable academic requirements under the IOE entrance system.
The exact academic thresholds used for admission are governed through the applicable IOE regulations rather than functioning as a separate standard created by Thapathali Campus.
Admission to Bachelor of Mechanical Engineering at Thapathali Campus is linked to the centralized IOE entrance system.
Candidates seeking undergraduate engineering admission must take and pass the entrance examination conducted by the Institute of Engineering. Qualified candidates proceed through the applicable merit and program-selection process for IOE constituent campuses.
Thapathali Campus has 48 seats in Bachelor in Mechanical Engineering.
The campus does not operate a separate academic entrance framework for the program. Eligibility, entrance, merit, admission, examinations, and degree completion remain within the Tribhuvan University and Institute of Engineering system.
Bachelor in Mechanical Engineering takes four academic years and is divided into eight semesters.
The curriculum contains 49 courses and 143 credit hours, with a total assessment structure of 5,675 marks.
Study is distributed across lectures, tutorials, practical work, drawing, workshop activity, laboratory work, project components, electives, and industrial attachment depending on the course and semester.
The curriculum becomes progressively more specialized. Early semesters establish science and engineering foundations, middle semesters concentrate on mechanical engineering analysis and applications, and the final stages bring in advanced design, computation, energy, project work, management, and workplace exposure.
| Academic Stage | Main Areas |
|---|---|
| First Year | Mathematics, chemistry, physics, programming, electrical and electronics fundamentals, drawing, mechanics, thermodynamics, machine drawing, workshop technology |
| Second Year | Mathematics, material science, manufacturing and production, thermodynamics, metrology, strength of materials, probability and statistics, electrical machines, mechanics of solids, instrumentation, CAD, fluid mechanics |
| Third Year | Advanced mechanical engineering study, professional engineering economics, industrial engineering and management, heat and mass transfer, machine design, machine dynamics, minor project, elective |
| Fourth Year | Entrepreneurship, finite element analysis, computational fluid dynamics, energy resources and technology, advanced machine design, electives, Project I and II, professional practice, industrial attachment |
Year I, Part I carries 17 credits and contains six courses:
Engineering Mathematics I
Engineering Chemistry
Computer Programming
Fundamental of Electrical and Electronics Engineering
Engineering Drawing
Engineering Mechanics I
This semester gives students the numerical, scientific, computational, drawing, and mechanics foundation used throughout later mechanical engineering study.
Computer Programming adds an early computational element. Engineering Drawing introduces technical representation, while Engineering Mechanics I begins the mechanics sequence.
Year I, Part II carries 18 credits and includes:
Engineering Mathematics II
Engineering Physics
Engineering Thermodynamics I
Machine Drawing
Engineering Mechanics II
Workshop Technology
Thermodynamics and Machine Drawing introduce two major areas of mechanical engineering early in the course. Workshop Technology adds hands-on study connected with manufacturing and workshop practice.
By the end of the first year, students have already encountered mathematics, science, computing, mechanics, drawing, thermodynamics, and workshop-based engineering.
Year II, Part I carries 18 credits. The subjects include:
Engineering Mathematics III
Material Science
Manufacturing and Production Processes
Engineering Thermodynamics II
Metrology
Strength of Materials
This semester moves from general engineering foundations into core mechanical subjects.
Material Science deals with the engineering study of materials, while Manufacturing and Production Processes connects material behavior with production methods. Metrology introduces measurement and dimensional control. Strength of Materials develops the study of how engineering materials and components respond to loads.
Thermodynamics II continues the thermal sequence from the first year.
Year II, Part II carries 19 credits and includes:
Probability and Statistics
Electrical Machines
Mechanics of Solids
Instrumentation and Sensors
Computer Aided Design
Fluid Mechanics with Engineering Applications
Computer Aided Design introduces digital design tools into the curriculum. Instrumentation and Sensors adds measurement and sensing systems, while Fluid Mechanics with Engineering Applications develops the study of fluid behavior within an engineering setting.
The inclusion of Electrical Machines also gives mechanical engineering students exposure to electrical machinery connected with wider engineering systems.
Mechanical design develops through several stages rather than appearing as one isolated subject.
Engineering Drawing begins in the first semester, followed by Machine Drawing in Year I, Part II. Computer Aided Design appears in the second year, providing a digital design component.
Later, Machine Design I appears in Year III, Part II. Machine Design II follows in Year IV, Part I.
This sequence moves from engineering representation toward detailed machine and component design.
The campus also has a Machine Design Workstation and Computer and Simulation Workstation among its mechanical engineering facilities.
Workshop and manufacturing subjects form another continuous strand of the degree.
Workshop Technology is included in the first year. Manufacturing and Production Processes follows in the second year. These subjects connect engineering concepts with the methods and equipment used to produce components and mechanical systems.
Relevant campus facilities include:
Advanced Mechanical Workshop
Advanced Automobile Workshop
Computer Numeric Control (CNC) Machine
3D Printing Machine
Material Testing Laboratory
Metrology and Instrumentation Laboratory
These facilities support areas that also appear in the curriculum, including manufacturing, measurement, material study, machine design, and workshop-based learning.
Thermal engineering begins with Engineering Thermodynamics I in the first year and continues through Engineering Thermodynamics II in the second year.
Heat and Mass Transfer appears in Year III, Part II.
Energy Resources and Technology is included in Year IV, Part I.
This progression links basic thermodynamic principles with heat-transfer study and later energy-related engineering topics.
The mechanical facilities at Thapathali Campus also include an Advanced Fluid and Thermal Laboratory.
Fluid Mechanics with Engineering Applications is included in Year II, Part II.
By Year IV, Part I, the curriculum advances to Applied Computational Fluid Dynamics, a three-credit course.
This progression moves from fundamental fluid behavior toward computational analysis of fluid-flow problems.
The curriculum therefore combines conventional analytical study with computer-based engineering methods in later semesters.
The mechanics sequence begins with Engineering Mechanics I and II during the first year.
Strength of Materials follows in Year II, Part I, while Mechanics of Solids appears in Year II, Part II.
Machine Dynamics appears later in Year III, Part II.
The fourth year includes Finite Element Method, adding a computational method used for mechanical engineering analysis.
Together, these subjects develop the analytical side of the curriculum from basic mechanical principles toward component behavior, machine motion, and computational analysis.
Measurement appears as a defined part of the mechanical engineering curriculum.
Metrology is taught in Year II, Part I. Instrumentation and Sensors follows in Year II, Part II.
These subjects connect mechanical engineering with dimensional measurement, instruments, and sensing systems.
Thapathali Campus also has a Metrology and Instrumentation Laboratory and hydraulic and pneumatic system simulation facilities.
By the third year, students move deeper into mechanical system analysis, design, thermal study, management, and project work.
Year III, Part II carries 19 credits and includes:
Professional Engineering Economics
Industrial Engineering and Management
Heat and Mass Transfer
Machine Design I
Machine Dynamics
Minor Project
Elective I
This semester brings technical and management subjects together.
Machine Design I and Machine Dynamics focus on mechanical systems and components. Heat and Mass Transfer continues the thermal sequence. Industrial Engineering and Management and Professional Engineering Economics introduce organizational and economic considerations relevant to engineering work.
The Minor Project gives students a formal project component before the larger final-year project sequence.
Mechanical Engineering includes subjects that extend beyond purely technical analysis.
Professional Engineering Economics and Industrial Engineering and Management appear in Year III, Part II.
The final year includes Entrepreneurship Development and later Project Management and Professional Practice.
These subjects introduce economic, organizational, entrepreneurial, project, and professional dimensions alongside design and analysis.
Year IV, Part I carries 19 credits and includes seven courses:
Entrepreneurship Development
Finite Element Method
Applied Computational Fluid Dynamics
Energy Resources and Technology
Machine Design II
Elective II
Project I
The technical subjects in this semester draw on earlier mechanics, fluids, thermodynamics, mathematics, and design study.
Finite Element Method and Applied Computational Fluid Dynamics add computational approaches to mechanical analysis. Machine Design II continues the design sequence, while Energy Resources and Technology extends energy-related study.
Project I begins the final project sequence.
Project-based learning appears in stages.
The curriculum includes a Minor Project in Year III, Part II. Project I then appears in Year IV, Part I, followed by Project II in the final semester.
Project I carries two credits, while Project II carries four credits.
This arrangement gives students project experience before the final semester and provides a structured transition from taught courses into larger applied engineering work.
Year IV, Part II includes Industrial Attachment carrying four credits. The curriculum specifies an eight-week industrial attachment.
The final semester also contains Project Management and Professional Practice, Elective III, and Project II.
Industrial attachment is therefore built into the degree as a formal academic component rather than being separate from the curriculum.
Its final-semester position places workplace exposure after students have completed most of the mechanical engineering core, including manufacturing, mechanics, fluid study, thermodynamics, machine design, heat transfer, computation, and project work.
Year IV, Part II contains four courses and carries 14 credits:
Project Management and Professional Practice – 3 credits
Elective III – 3 credits
Project II – 4 credits
Industrial Attachment – 4 credits
The semester combines professional and project management study with elective specialization, final project work, and industrial experience.
Mechanical engineering students study within the wider technical facilities of Thapathali Campus.
Relevant mechanical and manufacturing facilities include:
Machine Design Workstation
Computer and Simulation Workstation
Advanced Mechanical Workshop
Advanced Automobile Workshop
Metrology and Instrumentation Laboratory
CNC Machine
3D Printing Machine
Material Testing Laboratory
Hydraulic and Pneumatic System Simulator
Advanced Fluid and Thermal Laboratory
The wider campus also has basic machine, fabrication, automobile, electrical, computer, mechanics, physics, and chemistry laboratories.
These facilities correspond with several areas appearing in the curriculum, including workshop technology, manufacturing, metrology, materials, design, fluids, thermal engineering, and computation.
The program does not separate theory and practical study into unrelated tracks.
Several courses include scheduled practical hours alongside lectures and tutorials. Engineering Chemistry, Computer Programming, Fundamental of Electrical and Electronics Engineering, Engineering Drawing, Engineering Thermodynamics, Workshop Technology, Material Science, Manufacturing and Production Processes, Strength of Materials, Instrumentation and Sensors, Computer Aided Design, and Fluid Mechanics include practical or drawing components within their teaching structures.
Later semesters continue this pattern through design, computational analysis, project work, electives, and industrial attachment.
Assessment follows the academic and examination system of the Institute of Engineering and Tribhuvan University.
The curriculum tables distinguish internal assessment from final examination marks for applicable theory courses. Practical, project, and industrial components follow the assessment arrangements prescribed for their course type.
The campus Exam and Academic Administration section manages campus-level academic processes such as examination forms, admit cards, internal assessment records, practical examination records, result-related work, mark sheets, and TU registration.
Final academic requirements and the degree award remain under the IOE and Tribhuvan University system.
The curriculum supports the development of skills connected with:
Mechanical and engineering drawing
Workshop practice
Manufacturing processes
Material study
Engineering measurement and metrology
Thermodynamic analysis
Fluid mechanics
Strength and mechanics of materials
Mechanical component design
Computer-aided design
Instrumentation and sensors
Heat and mass transfer
Machine dynamics
Finite element analysis
Computational fluid analysis
Engineering project work
Professional and project management
These competencies arise from the subjects and practical components included across the program. Their depth depends on academic performance, laboratory participation, project work, industrial experience, and continued technical development.
Mechanical Engineering provides an academic route into postgraduate study in aligned engineering disciplines where the relevant admission criteria accept a mechanical engineering bachelor's degree.
Thapathali Campus conducts the M.Sc Mechanical Engineering in Design and Manufacturing. A four-year bachelor's degree in Mechanical Engineering is one of the specified academic backgrounds for admission to that program.
The postgraduate program extends study into mechanical design, solid mechanics, manufacturing processes and technology, and the design of mechanical systems and components.
Bachelor in Mechanical Engineering at Thapathali Campus operates within the professional engineering framework applicable to engineering degrees in Nepal.
The academic degree is awarded through Tribhuvan University after completion of the prescribed IOE academic requirements. Professional engineering registration is a separate regulatory process under the applicable Nepal Engineering Council framework.
Academic graduation and professional registration should therefore be understood as separate stages.
Thapathali Campus has 48 seats in Bachelor in Mechanical Engineering.
The course operates within the broader IOE admission system used for constituent campuses. Admission depends on meeting the required eligibility and entrance conditions and completing the applicable merit-based admission process.
Students considering Mechanical Engineering should examine the subject mix closely.
The first year contains mathematics, chemistry, physics, programming, electrical and electronics fundamentals, mechanics, drawing, thermodynamics, and workshop technology.
The second year introduces material science, manufacturing, metrology, strength of materials, electrical machines, instrumentation, CAD, and fluid mechanics.
Later study adds machine design, machine dynamics, heat and mass transfer, industrial engineering, engineering economics, finite element analysis, computational fluid dynamics, energy resources, project work, professional practice, and industrial attachment.
The program therefore requires students to work across mechanical analysis, thermal systems, design, manufacturing, materials, measurement, computation, and practical engineering work rather than concentrating on only one mechanical specialization.
It is a four-year undergraduate engineering program conducted through the Department of Automobile and Mechanical Engineering under the Institute of Engineering, Tribhuvan University. The curriculum covers mechanics, thermodynamics, manufacturing, materials, machine design, fluid mechanics, computation, projects, and industrial attachment.
The program takes four academic years and is divided into eight semesters.
The Bachelor in Mechanical Engineering curriculum contains 49 courses carrying 143 credit hours.
Thapathali Campus has 48 seats for Bachelor in Mechanical Engineering.
The program is conducted through the Department of Automobile and Mechanical Engineering at Thapathali Campus.
Tribhuvan University is the degree-awarding university. The program operates academically through the Institute of Engineering.
Yes. Undergraduate engineering admission at Thapathali Campus requires candidates to qualify through the IOE entrance system and complete the applicable merit-based admission process.
The first year includes Engineering Mathematics, Engineering Chemistry, Engineering Physics, Computer Programming, Fundamental of Electrical and Electronics Engineering, Engineering Drawing, Engineering Mechanics, Engineering Thermodynamics, Machine Drawing, and Workshop Technology.
Yes. Computer Programming is included in Year I, Part I as a three-credit course.
Yes. Workshop Technology is included in Year I, Part II. Manufacturing and Production Processes follows in the second year.
Yes. Computer Aided Design is included in Year II, Part II.
Yes. Machine Design I appears in Year III, Part II, while Machine Design II is included in Year IV, Part I.
Yes. Finite Element Method is included in Year IV, Part I.
Yes. Applied Computational Fluid Dynamics is taught in Year IV, Part I after earlier study in Fluid Mechanics with Engineering Applications.
Yes. The curriculum includes a Minor Project, Project I, and Project II in the later stages of the program.
Yes. The final semester includes an eight-week Industrial Attachment carrying four credits.
Facilities relevant to mechanical study include a Machine Design Workstation, Computer and Simulation Workstation, Advanced Mechanical Workshop, Metrology and Instrumentation Laboratory, CNC machine, 3D printing machine, Material Testing Laboratory, hydraulic and pneumatic system simulator, and Advanced Fluid and Thermal Laboratory.
Yes. A four-year bachelor's degree in Mechanical Engineering is one of the specified academic backgrounds for the M.Sc Mechanical Engineering in Design and Manufacturing program at Thapathali Campus.
Yes. Tribhuvan University awards the academic degree after completion of the prescribed academic requirements, while professional engineering registration is handled separately under the applicable engineering regulatory system.
