The Bachelor in Agriculture Engineering at Purwanchal Campus is a four-year undergraduate engineering program under the Institute of Engineering (IOE), Tribhuvan University.
The course brings engineering study into agricultural production, farm machinery, irrigation and drainage, soil and water management, renewable energy, postharvest systems, farm structures, food-related engineering, and rural infrastructure. Its curriculum combines mathematics and basic engineering with agriculture-specific technical subjects, field activities, projects, electives, and a 12-week internship.
Purwanchal Campus introduced bachelor-level Agriculture Engineering in 2057 B.S. (2000 A.D.). The program is conducted through the Department of Agricultural Engineering at the campus in Dharan-8, Sunsari.
| Field | Details |
|---|---|
| Course: | Bachelor in Agriculture Engineering |
| Level: | Bachelor |
| Duration: | 4 academic years |
| Institution: | Purwanchal Campus, Dharan |
| Department: | Department of Agricultural Engineering |
| Institute: | Institute of Engineering (IOE) |
| University: | Tribhuvan University |
| Seats: | 48 |
| Admission: | IOE entrance and applicable campus admission process |
| Curriculum: | Institute of Engineering |
| Examinations: | IOE Examination Control Division |
| Degree Award: | Tribhuvan University |
| Professional Regulator: | Nepal Engineering Council |
Agriculture Engineering applies engineering principles to agricultural production, machinery, water management, soil conservation, agricultural processing, energy use, farm structures, and related rural systems.
The IOE curriculum reflects this combination clearly. Students begin with mathematics, chemistry, programming, engineering drawing, mechanics, workshop practice, physics, thermodynamics, fluid mechanics, electrical and electronics engineering, engineering materials, and soil science.
As the course progresses, agricultural subjects become more prominent. These include crop production technology, farm power and engine systems, tractor systems, irrigation and drainage, farm machinery, postharvest engineering, soil and water conservation, groundwater development, dairy and food engineering, farm structures, precision agriculture, rural infrastructure, and agricultural extension.
The degree is therefore neither a conventional agriculture program nor a general mechanical or civil engineering course. Its academic structure connects engineering methods directly with agricultural and rural production systems.
The program may suit students interested in both engineering and agricultural systems.
The curriculum requires mathematical and technical study, but it also moves into soil, crops, irrigation, machinery, agricultural processing, energy, farm structures, and rural infrastructure. Students should expect classroom study to be combined with laboratory, workshop, survey, field, project, and internship components.
Areas that appear repeatedly across the course include:
The program is particularly relevant for students who want their engineering education to remain connected with agriculture, mechanization, water resources, processing, and rural technical systems.
Bachelor in Agriculture Engineering runs for four academic years.
Each year is divided into Part I and Part II, creating eight academic parts. The curriculum begins with foundational engineering subjects, moves into agricultural engineering core areas, and finishes with advanced applications, electives, project work, and internship.
| Academic Part | Selected Subjects | Credits |
|---|---|---|
| Year I: Part I | Engineering Mathematics I, Engineering Chemistry, Computer Programming, Engineering Workshop, Engineering Drawing, Engineering Mechanics, Agricultural Engineering for Sustainable Development | 18 |
| Year I: Part II | Engineering Mathematics II, Engineering Physics, Basic Electrical and Electronics Engineering, Engineering Thermodynamics I, Fluid Mechanics, Engineering Materials, Soil Science | 22 |
| Year II: Part I | Engineering Mathematics III, Hydraulics, Engineering Survey, Heating Ventilation and Cold Storage, Crop Production Technology, Farm Power and Engine System, Engineering Properties of Biomaterials | 20 |
| Year II: Part II | Communication English, Numerical Methods, Probability and Statistics, structural study, Soil Mechanics and Foundation Engineering, Survey Camp, Renewable Energy and Conversion Devices, Tractor Systems and Control | 23 |
| Year III: Part I | Theory and Design of Machine Elements, Hydrology and Agricultural Meteorology, Farm Machinery and Equipment, Agri-Economics and Entrepreneurship, Irrigation and Drainage Engineering, Postharvest Engineering, Field Operation and Maintenance of Farm Machines | 18 |
| Year III: Part II | Design of Structures, Soil and Water Conservation Engineering, Groundwater Development and Tube Well Technology, Dairy and Food Engineering, Farm Structures and Building Technology, Precision Agriculture, Elective I | 20 |
| Year IV: Part I | Project Engineering and Professional Practice, Rural Infrastructure Engineering, Estimating and Costing, Agricultural Extension and Rural Development, Elective II, Elective III, Project I | 19 |
| Year IV: Part II | Project II, Internship | 10 |
The first year establishes the engineering base needed for later agricultural applications.
Engineering Mathematics I and II provide the analytical foundation. Engineering Chemistry, Engineering Physics, Computer Programming, Engineering Drawing, and Engineering Mechanics add science, computation, drawing, and mechanics.
Engineering Workshop introduces practical engineering work early in the degree.
Agricultural Engineering for Sustainable Development places agriculture within the first academic part rather than leaving all agricultural content until later years. The second part adds Soil Science, which becomes important when students move into irrigation, drainage, groundwater, conservation, and other land-and-water subjects.
Engineering Thermodynamics I and Fluid Mechanics also prepare students for later study involving engines, energy, water flow, cooling, machinery, and processing systems.
Basic Electrical and Electronics Engineering adds another supporting technical area to the first-year curriculum.
The second year brings the engineering and agricultural sides of the program closer together.
Hydraulics and Engineering Survey develop water-flow and measurement skills. Heating Ventilation and Cold Storage connects engineering with temperature-controlled environments and agricultural storage.
Crop Production Technology introduces students to the production side of agriculture, while Farm Power and Engine System moves into the machinery and power requirements associated with agricultural work.
Engineering Properties of Biomaterials adds the study of physical and engineering characteristics of biological materials.
Year II: Part II includes analytical subjects such as Numerical Methods and Probability and Statistics alongside Soil Mechanics and Foundation Engineering.
Renewable Energy and Conversion Devices introduces energy systems relevant to agricultural and rural applications, while Tractor Systems and Control focuses directly on a central area of farm mechanization.
A 10-day survey camp is also included in this academic stage. It adds a dedicated field component to the surveying sequence.
The third year contains some of the most discipline-specific subjects in the course.
Theory and Design of Machine Elements provides mechanical design knowledge used alongside agricultural machinery study.
Farm Machinery and Equipment focuses directly on machinery used within agricultural operations. Field Operation and Maintenance of Farm Machines adds an applied element concerned with machine operation and maintenance.
Hydrology and Agricultural Meteorology connects water and weather-related study with agricultural conditions. Irrigation and Drainage Engineering develops the engineering side of supplying and managing water in agricultural land.
Postharvest Engineering moves the curriculum beyond production into systems used after harvesting.
Agri-Economics and Entrepreneurship adds an economic and enterprise-related subject to the technical curriculum.
Year III: Part II then widens the program into conservation, groundwater, structures, food systems, and newer agricultural technologies.
Soil and Water Conservation Engineering addresses land and water-resource protection. Groundwater Development and Tube Well Technology adds groundwater extraction and associated engineering systems.
Dairy and Food Engineering connects engineering with processing, while Farm Structures and Building Technology deals with structures required in agricultural settings.
Precision Agriculture is also included before students move into the final year.
The fourth year gives greater weight to projects, professional practice, rural infrastructure, costing, and applied study.
Project Engineering and Professional Practice connects engineering work with project organization and professional responsibilities. Rural Infrastructure Engineering expands the course beyond individual farms toward infrastructure relevant to rural settings.
Estimating and Costing introduces quantity and cost-related engineering work.
Agricultural Extension and Rural Development adds the relationship between technical agricultural knowledge, communities, and rural development.
Students also complete Elective II and Elective III during Year IV: Part I, together with Project I.
Year IV: Part II is reserved for Project II and internship. The internship carries six credits and runs for 12 weeks.
This final stage places students in longer-form project and workplace-related academic activity after they have completed the main technical areas of the curriculum.
Agriculture Engineering includes practical work throughout the course rather than concentrating it in the final year.
Engineering Workshop begins this approach in Year I. Several science and engineering subjects also include practical periods as part of their teaching schedules.
Later practical work is connected more directly with agricultural engineering through:
Project I and Project II then allow students to work on extended academic assignments, while the 12-week internship adds a workplace-oriented component in the final part.
Eligibility: Eligibility for admission follows the rules and regulations prescribed by Tribhuvan University and the Institute of Engineering for bachelor-level engineering study.
Applicants must meet the applicable academic requirements and qualify through the IOE entrance process before proceeding through the campus admission system.
The admission framework is common to the wider TU/IOE engineering system, while enrollment at Purwanchal Campus takes place through the campus admission procedure for the selected program.
Admission to Bachelor in Agriculture Engineering follows the IOE engineering admission framework.
The general sequence is:
Purwanchal Campus has a stated allocation of 48 seats for the program.
Admission, entrance, academic eligibility, examinations, and degree completion remain governed by the applicable rules of Tribhuvan University and IOE.
Teaching takes place through Purwanchal Campus and its Department of Agricultural Engineering, while engineering examination administration operates through the IOE Examination Control Division.
Students complete the theory, practical, field, project, elective, internship, and examination requirements prescribed within the curriculum.
Tribhuvan University awards the academic degree after successful completion of the program requirements.
This creates a clear academic structure: Purwanchal Campus delivers the course, IOE provides the engineering curriculum and examination framework, and Tribhuvan University awards the degree.
The course can support the development of technical abilities connected with:
These abilities come from a combination of theory, practical work, field activity, projects, and internship rather than from a single group of subjects.
The academic scope of the degree connects with areas such as agricultural mechanization, irrigation, land and water systems, farm machinery, agricultural processing, farm structures, renewable energy, rural infrastructure, and related engineering activities.
Career outcomes depend on technical ability, practical experience, professional requirements, further study, and the type of engineering work available.
Graduates may also continue into postgraduate study where the admission requirements match their undergraduate background. At Purwanchal Campus, the MSc in Land and Water Engineering accepts applicants with a four-year bachelor's degree in Agricultural Engineering or Civil Engineering under its prescribed admission conditions.
Academic graduation and professional engineering registration are separate processes.
The Nepal Engineering Council handles professional engineering registration in Nepal. Completing an engineering degree does not itself complete the professional registration process.
Graduates seeking professional registration must follow the requirements applicable to their engineering discipline under the Council's regulatory framework.
The program runs for four academic years and is divided into eight academic parts from Year I: Part I to Year IV: Part II.
The stated seat allocation at Purwanchal Campus is 48.
Yes. Admission operates through the applicable Institute of Engineering entrance and admission framework, followed by the Purwanchal Campus admission process.
The curriculum covers farm power, tractors, farm machinery, irrigation and drainage, soil and water conservation, groundwater development, crop production, postharvest engineering, dairy and food engineering, farm structures, precision agriculture, renewable energy, and rural infrastructure alongside core engineering subjects.
Yes. The curriculum includes engineering survey, a 10-day survey camp, practical components, machine-operation work, projects, and internship.
Yes. Year IV: Part II includes a 12-week internship worth six credits.
Yes. Project I is included in Year IV: Part I, followed by Project II in Year IV: Part II.
Engineering examination administration is handled through the IOE Examination Control Division.
Tribhuvan University awards the academic degree after successful completion of the prescribed program requirements.
A four-year bachelor's degree in Agricultural Engineering is among the academic backgrounds accepted for MSc in Land and Water Engineering, subject to its prescribed entrance and admission requirements.
