ICTQual Level 6 Diploma

Agriculture Engineering 360 Credits – Three Years

Awarding Body

ICTQual AB

Credits

360 Credits

Course

Agriculture Engineering

study mode

Online Learning

Course overview

The ICTQual Level 6 Diploma in Agriculture Engineering (360 Credits – Three Years) is an advanced, professional qualification designed for learners aiming to achieve mastery in agricultural and farm engineering. This three-year programme builds on prior technical knowledge and experience, focusing on cutting-edge agricultural machinery, complex mechanical and electrical systems, precision and smart farming technologies, automation, and integrated equipment management. Learners gain a comprehensive understanding of how engineering innovations enhance sustainability, productivity, and operational efficiency in modern agricultural environments, preparing them for senior technical, managerial, and strategic roles.

The course combines rigorous theoretical study with extensive practical training, industry projects, and research-based assignments to develop professional competence. Core modules cover advanced machinery diagnostics, hydraulic and electrical systems, precision farming and automation strategies, equipment design and installation, preventive maintenance, and health, safety, and environmental leadership. Through workshops, fieldwork, technical projects, and real-world case studies, learners enhance problem-solving skills, technical accuracy, and adherence to regulatory standards essential for modern agricultural engineering operations.

This qualification is ideal for learners with Level 5 diplomas or substantial industry experience seeking career progression into leadership and specialist roles. Graduates can pursue positions such as Senior Agricultural Machinery Engineer, Farm Systems Manager, Equipment Design Consultant, or Maintenance and Operations Director. The Level 6 Diploma also offers pathways to professional certifications, postgraduate study, and executive leadership opportunities in agri-technology and agricultural engineering industries.

ICTQual AB

Approved Training centre of ICTQual AB

Centre # : ATC24001

Entry Requirments

Entry Requirements for the ICTQual Level 6 Diploma in Agriculture Engineering 360 Credits – Three Years:

  • Educational Qualifications:Applicants should hold a Level 5 Diploma in Agriculture Engineering or an equivalent advanced technical qualification in agricultural or mechanical engineering.
  • Professional Experience:Significant hands-on experience in agricultural machinery, farm systems, or equipment management is recommended to support advanced learning and leadership development.
  • English Language Proficiency:Since the program is delivered in English, learners must show competence in reading, writing, and communication.

Course structure

ICTQual Level 6 Diploma in Agriculture Engineering 360 Credits – Three Years in Personal Protective Equipment qualification consists of 36 mandatory units.

Year 1: Foundational Knowledge

  1. Introduction to Agricultural Engineering
  2. Basics of Soil Science
  3. Plant Science and Crop Physiology
  4. Introduction to Farm Machinery
  5. Principles of Irrigation and Drainage
  6. Environmental Science in Agriculture
  7. Mathematics for Engineers
  8. Fundamentals of Agricultural Economics
  9. Introduction to Renewable Energy in Agriculture
  10. Agricultural Chemistry
  11. Engineering Drawing and CAD
  12. Workshop Practices in Agricultural Engineering

Year 2: Intermediate Concepts and Applications

  1. Advanced Soil and Water Management
  2. Farm Power and Mechanization
  3. Agricultural Structures and Materials
  4. Irrigation Systems Design
  5. Introduction to Precision Agriculture
  6. Agricultural Waste Management
  7. Crop Protection Technologies
  8. Advanced Farm Machinery Operations
  9. Principles of Agro-Processing
  10. Renewable Energy Technologies in Agriculture
  11. Land Surveying and Mapping
  12. Practical Training in Agricultural Engineering

Year 3: Advanced Studies and Specialization

  1. Sustainable Agriculture Practices
  2. Advanced Irrigation and Drainage Engineering
  3. Farm Business Management
  4. Design of Agricultural Machinery
  5. Precision Farming Systems
  6. Advanced Soil Mechanics
  7. Climate-Smart Agriculture
  8. Renewable Energy Systems for Farms
  9. Post-Harvest Technology
  10. Automation in Agriculture
  11. Research Methods in Agriculture Engineering
  12. Final Project in Agricultural Engineering

What You Will Gain

Year 1: Foundational Knowledge

1. Introduction to Agricultural Engineering

  • Understand the scope, significance, and career paths in agricultural engineering.
  • Identify key challenges and technological solutions in modern agriculture.

2. Basics of Soil Science

  • Describe soil properties, classification, and fertility.
  • Analyze the role of soil in plant growth and ecosystem balance.

3. Plant Science and Crop Physiology

  • Explain the physiological processes of plant growth and development.
  • Apply knowledge of crop cycles and plant nutrition to optimize yields.

4. Introduction to Farm Machinery

  • Identify basic farm machinery and their functions.
  • Demonstrate safe operating procedures and maintenance practices.

5. Principles of Irrigation and Drainage

  • Understand the principles of water movement and soil-water relationships.
  • Design simple irrigation and drainage systems for efficient water use.

6. Environmental Science in Agriculture

  • Assess the environmental impact of various agricultural practices.
  • Apply sustainable methods to reduce environmental degradation.

7. Mathematics for Engineers

  • Apply mathematical concepts to solve engineering problems.
  • Use calculations for designing agricultural structures and systems.

8. Fundamentals of Agricultural Economics

  • Explain economic principles and their applications in agriculture.
  • Analyze farm management practices to improve profitability.

9. Introduction to Renewable Energy in Agriculture

  • Understand the basic principles of renewable energy sources.
  • Identify potential applications of solar, wind, and bioenergy in agriculture.

10. Agricultural Chemistry

  • Demonstrate knowledge of chemical processes in soil and plant health.
  • Apply chemical principles to improve crop productivity and quality.

11. Engineering Drawing and CAD

  • Create technical drawings and blueprints using manual and CAD techniques.
  • Interpret engineering designs related to agricultural systems.

12. Workshop Practices in Agricultural Engineering

  • Use workshop tools and equipment safely and effectively.
  • Apply practical skills in assembling and repairing basic agricultural machinery.

Year 2: Intermediate Concepts and Applications

1. Advanced Soil and Water Management

  • Design strategies for soil conservation and water resource optimization.
  • Evaluate soil-water interactions in various agricultural systems.

2. Farm Power and Mechanization

  • Analyze different sources of farm power and their applications.
  • Operate and maintain advanced farm machinery efficiently.

3. Agricultural Structures and Materials

  • Design and evaluate structures like barns, silos, and greenhouses.
  • Select appropriate materials based on structural and environmental needs.

4. Irrigation Systems Design

  • Design and implement advanced irrigation systems.
  • Optimize water distribution to improve agricultural productivity.

5. Introduction to Precision Agriculture

  • Apply precision technologies to monitor and manage field variability.
  • Use GPS, GIS, and sensors to enhance farming efficiency.

6. Agricultural Waste Management

  • Develop strategies for effective agricultural waste recycling and disposal.
  • Analyze the environmental impact of waste management practices.

7. Crop Protection Technologies

  • Identify pest and disease control methods.
  • Implement integrated pest management (IPM) systems.

8. Advanced Farm Machinery Operations

  • Operate complex machinery with precision.
  • Troubleshoot and maintain advanced agricultural equipment.

9. Principles of Agro-Processing

  • Understand methods for processing agricultural produce.
  • Apply techniques to preserve and add value to farm products.

10. Renewable Energy Technologies in Agriculture

  • Evaluate renewable energy systems for agricultural use.
  • Design basic solar, wind, or biomass solutions for farms.

11. Land Surveying and Mapping

  • Conduct land surveys using modern tools.
  • Create accurate maps for agricultural planning and development.

12. Practical Training in Agricultural Engineering

  • Apply classroom knowledge in real-world agricultural projects.
  • Demonstrate competency in using engineering tools and equipment.

Year 3: Advanced Studies and Specialization

1. Sustainable Agriculture Practices

  • Implement techniques that promote long-term agricultural sustainability.
  • Assess the socio-economic impacts of sustainable farming.

2. Advanced Irrigation and Drainage Engineering

  • Design complex irrigation systems for large-scale agriculture.
  • Solve advanced drainage challenges for different soil types.

3. Farm Business Management

  • Apply business principles to agricultural operations.
  • Develop strategic plans for farm profitability and growth.

4. Design of Agricultural Machinery

  • Design and prototype custom agricultural machinery.
  • Evaluate machinery performance and efficiency.

5. Precision Farming Systems

  • Develop and implement advanced precision farming techniques.
  • Use data analytics for decision-making in crop and livestock management.

6. Advanced Soil Mechanics

  • Analyze soil behavior under various conditions and loads.
  • Apply principles of soil mechanics to agricultural engineering projects.

7. Climate-Smart Agriculture

  • Develop strategies to adapt agricultural practices to climate change.
  • Assess the resilience of different farming systems to climatic variability.

8. Renewable Energy Systems for Farms

  • Design comprehensive renewable energy systems tailored for farms.
  • Evaluate the economic and environmental impact of these systems.

9. Post-Harvest Technology

  • Apply techniques to minimize post-harvest losses.
  • Design storage solutions to maintain product quality.

10. Automation in Agriculture

  • Implement automation solutions to enhance productivity.
  • Integrate robotics and IoT in agricultural operations.

11. Research Methods in Agricultural Engineering

  • Conduct independent research and analyze data.
  • Present findings that contribute to advancements in agricultural engineering.

12. Final Project in Agricultural Engineering

  • Design and execute a comprehensive project addressing a real-world challenge.
  • Demonstrate integration of theoretical knowledge and practical skills.

Want to know more?

This diploma is a three-year course comprising 360 credits, combining advanced theoretical study, hands-on practical training, research projects, and industry-focused case studies.

Learners acquire mastery in machinery diagnostics, hydraulic and electrical systems, automation and precision farming technologies, equipment design, preventive maintenance, and health, safety, and environmental leadership.

Graduates can pursue senior roles such as Senior Agricultural Machinery Engineer, Farm Systems Manager, Equipment Design Consultant, or Maintenance and Operations Director in farms, agri-businesses, and agri-technology industries.

Yes, learners can advance to professional certifications, postgraduate diplomas, or executive-level programmes, supporting career growth in agricultural engineering and agri-technology sectors.

This programme is ideal for learners with Level 5 qualifications or extensive industry experience who want to progress into senior technical, strategic, or leadership positions in agricultural engineering.

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