Agricultural and Food Engineering Syllabus

Course Subjects

Important Agricultural and Food Engineering subjects include:

• Engineering Mathematics
• Engineering Physics
• Engineering Chemistry
• Engineering Mechanics
• Thermodynamics
• Fluid Mechanics
• Heat Transfer
• Strength of Materials
• Soil Science
• Soil Mechanics
• Hydrology
• Irrigation Engineering
• Drainage Engineering
• Farm Machinery
• Tractor Systems
• Agricultural Structures
• Renewable Energy
• Post-Harvest Engineering
• Food Process Engineering
• Food Chemistry
• Food Microbiology
• Refrigeration
• Cold Storage
• Packaging
• Quality Control
• Process Instrumentation
• Agribusiness Management

Agricultural and Food Engineering Syllabus for UG Courses

Semester I

• Engineering Mathematics I
• Engineering Physics
• Engineering Chemistry
• Communication Skills
• Engineering Graphics
• Basic Agriculture
• Workshop Practice
• Physics and Chemistry Laboratory

Semester II

• Engineering Mathematics II
• Programming Fundamentals
• Engineering Mechanics
• Basic Electrical Engineering
• Environmental Science
• Agricultural Biology
• Electrical and Programming Laboratory

Semester III

• Thermodynamics
• Fluid Mechanics
• Strength of Materials
• Soil Science
• Surveying
• Material Science
• Fluid Mechanics Laboratory
• Surveying Practice

Semester IV

• Soil Mechanics
• Hydrology
• Irrigation Engineering
• Theory of Machines
• Agricultural Structures
• Heat Transfer
• Soil and Water Laboratory
• Structures Laboratory

Semester V

• Farm Machinery
• Tractor and Farm Power
• Post-Harvest Engineering
• Food Chemistry
• Food Microbiology
• Renewable Energy
• Farm Machinery Laboratory
• Food Analysis Laboratory

Semester VI

• Food Process Engineering
• Drying and Storage
• Refrigeration and Cold Chain
• Process Instrumentation
• Packaging Technology
• Precision Agriculture
• Food Process Laboratory
• Mini Project

Semester VII

• Food Plant Design
• Dairy and Food Engineering
• Watershed Engineering
• Quality and Food Safety
• Agricultural Waste Management
• Technical Elective
• Internship
• Major Project Phase I

Semester VIII

• Agribusiness Management
• Engineering Economics
• Technical Electives
• Major Project Phase II
• Seminar
• Project Viva
• Professional Ethics

Possible Electives

• Greenhouse Engineering
• Controlled Environment Agriculture
• Advanced Irrigation
• Food Extrusion
• Grain Milling
• Dairy Process Engineering
• Cold-Chain Design
• Biomass Energy
• GIS and Remote Sensing
• Automation in Agriculture
• Sensor-based Farming
• Food Packaging Systems

Agricultural and Food Engineering Syllabus for PG Courses

Semester I

• Advanced Engineering Mathematics
• Advanced Food Process Engineering
• Transport Phenomena
• Properties of Biological Materials
• Research Methodology
• Instrumentation
• Advanced Laboratory

Semester II

• Process Modelling
• Food Plant Design
• Advanced Drying
• Refrigeration and Cold Chain
• Quality Engineering
• Elective
• Seminar

Semester III

• Advanced Electives
• Research Seminar
• Dissertation Phase I
• Technical Review
• Industrial or Laboratory Research

Semester IV

• Dissertation Phase II
• Final Evaluation
• Research Defence
• Technical Publication or Report

PG specialisations may include:

• Agricultural Process Engineering
• Food Process Engineering
• Farm Machinery
• Soil and Water Engineering
• Renewable Energy
• Post-Harvest Technology
• Dairy Engineering
• Precision Agriculture

Connecting core engineering with applications

The syllabus becomes easier to understand when core subjects are linked to real systems. Fluid mechanics supports pipes, pumps, irrigation and food flow. Heat transfer supports drying, cooling, refrigeration and thermal processing. Strength of materials supports implements, frames, storage and equipment. Electrical and electronics subjects support motors, sensors and control. Statistics supports sampling, experiments and quality decisions. These connections show why the course includes subjects from several traditional engineering branches.

Practical evidence expected from laboratories

Students should learn to record equipment details, calibration, operating conditions, observations, calculations and uncertainty. A laboratory report should explain why a result matters. For example, a pump test can influence irrigation design, a drying curve can influence storage, and a packaging test can influence product damage. Clean data and honest discussion of limitations are more useful than a polished report with unexplained values.