Renewable Energy Training Courses > Design and Implementation of Agrivoltaic Systems – Optimising Land for Integrated Solar Development
Code Date Format Currency Team of 10
Per Person*
Team of 7
Per Person*
Early Bird Fee
Per Person
Normal Fee
Per Person
PWR1582 26 - 27 May 2027 Kuala Lumpur, Malaysia SGD 3,095 3,239 3,399 3,599
PWR1582 26 - 27 May 2027 Kuala Lumpur, Malaysia USD 2,493 2,609 2,699 2,899
PWR1582 26 - 27 May 2027 Jakarta, Indonesia SGD 2,751 2,879 2,999 3,199
PWR1582 26 - 27 May 2027 Jakarta, Indonesia USD 2,235 2,339 2,399 2,599
PWR1582 26 - 27 May 2027 Singapore SGD 3,267 3,419 3,599 3,799
PWR1582 26 - 27 May 2027 Singapore USD 2,579 2,699 2,799 2,999
PWR1582 26 - 27 May 2027 Bangkok, Thailand SGD 3,095 3,239 3,399 3,599
PWR1582 26 - 27 May 2027 Bangkok, Thailand USD 2,493 2,609 2,699 2,899
PWR1585 08 - 09 Dec 2027 Kuala Lumpur, Malaysia SGD 3,095 3,239 3,399 3,599
PWR1585 08 - 09 Dec 2027 Kuala Lumpur, Malaysia USD 2,493 2,609 2,699 2,899
PWR1585 08 - 09 Dec 2027 Jakarta, Indonesia SGD 2,751 2,879 2,999 3,199
PWR1585 08 - 09 Dec 2027 Jakarta, Indonesia USD 2,235 2,339 2,399 2,599
PWR1585 08 - 09 Dec 2027 Singapore SGD 3,267 3,419 3,599 3,799
PWR1585 08 - 09 Dec 2027 Singapore USD 2,579 2,699 2,799 2,999
PWR1585 08 - 09 Dec 2027 Bangkok, Thailand SGD 3,095 3,239 3,399 3,599
PWR1585 08 - 09 Dec 2027 Bangkok, Thailand USD 2,493 2,609 2,699 2,899

*Fee per person in a team of 7 or 10 participating from the same organisation, registering 6 weeks before the course date
Request for a quote if you have different team sizes, content customisation, alternative dates or course timing requirements
Request for in-person classroom training or online (VILT) training format

Learn in teams and save more! Enjoy group discounts of up to 50% off normal fees for team based learning. Contact us on [email protected] to learn more today!

Code

PWR1582

Date

26 - 27 May 2027

Format

Kuala Lumpur, Malaysia

Currency

SGD

Team of 10
Per Person*

3,095

Team of 7
Per Person*

3,239

Early Bird Fee
Per Person

3,399

Normal Fee
Per Person

3,599

Code

PWR1582

Date

26 - 27 May 2027

Format

Kuala Lumpur, Malaysia

Currency

USD

Team of 10
Per Person*

2,493

Team of 7
Per Person*

2,609

Early Bird Fee
Per Person

2,699

Normal Fee
Per Person

2,899

Code

PWR1582

Date

26 - 27 May 2027

Format

Jakarta, Indonesia

Currency

SGD

Team of 10
Per Person*

2,751

Team of 7
Per Person*

2,879

Early Bird Fee
Per Person

2,999

Normal Fee
Per Person

3,199

Code

PWR1582

Date

26 - 27 May 2027

Format

Jakarta, Indonesia

Currency

USD

Team of 10
Per Person*

2,235

Team of 7
Per Person*

2,339

Early Bird Fee
Per Person

2,399

Normal Fee
Per Person

2,599

Code

PWR1582

Date

26 - 27 May 2027

Format

Singapore

Currency

SGD

Team of 10
Per Person*

3,267

Team of 7
Per Person*

3,419

Early Bird Fee
Per Person

3,599

Normal Fee
Per Person

3,799

Code

PWR1582

Date

26 - 27 May 2027

Format

Singapore

Currency

USD

Team of 10
Per Person*

2,579

Team of 7
Per Person*

2,699

Early Bird Fee
Per Person

2,799

Normal Fee
Per Person

2,999

Code

PWR1582

Date

26 - 27 May 2027

Format

Bangkok, Thailand

Currency

SGD

Team of 10
Per Person*

3,095

Team of 7
Per Person*

3,239

Early Bird Fee
Per Person

3,399

Normal Fee
Per Person

3,599

Code

PWR1582

Date

26 - 27 May 2027

Format

Bangkok, Thailand

Currency

USD

Team of 10
Per Person*

2,493

Team of 7
Per Person*

2,609

Early Bird Fee
Per Person

2,699

Normal Fee
Per Person

2,899

Code

PWR1585

Date

08 - 09 Dec 2027

Format

Kuala Lumpur, Malaysia

Currency

SGD

Team of 10
Per Person*

3,095

Team of 7
Per Person*

3,239

Early Bird Fee
Per Person

3,399

Normal Fee
Per Person

3,599

Code

PWR1585

Date

08 - 09 Dec 2027

Format

Kuala Lumpur, Malaysia

Currency

USD

Team of 10
Per Person*

2,493

Team of 7
Per Person*

2,609

Early Bird Fee
Per Person

2,699

Normal Fee
Per Person

2,899

Code

PWR1585

Date

08 - 09 Dec 2027

Format

Jakarta, Indonesia

Currency

SGD

Team of 10
Per Person*

2,751

Team of 7
Per Person*

2,879

Early Bird Fee
Per Person

2,999

Normal Fee
Per Person

3,199

Code

PWR1585

Date

08 - 09 Dec 2027

Format

Jakarta, Indonesia

Currency

USD

Team of 10
Per Person*

2,235

Team of 7
Per Person*

2,339

Early Bird Fee
Per Person

2,399

Normal Fee
Per Person

2,599

Code

PWR1585

Date

08 - 09 Dec 2027

Format

Singapore

Currency

SGD

Team of 10
Per Person*

3,267

Team of 7
Per Person*

3,419

Early Bird Fee
Per Person

3,599

Normal Fee
Per Person

3,799

Code

PWR1585

Date

08 - 09 Dec 2027

Format

Singapore

Currency

USD

Team of 10
Per Person*

2,579

Team of 7
Per Person*

2,699

Early Bird Fee
Per Person

2,799

Normal Fee
Per Person

2,999

Code

PWR1585

Date

08 - 09 Dec 2027

Format

Bangkok, Thailand

Currency

SGD

Team of 10
Per Person*

3,095

Team of 7
Per Person*

3,239

Early Bird Fee
Per Person

3,399

Normal Fee
Per Person

3,599

Code

PWR1585

Date

08 - 09 Dec 2027

Format

Bangkok, Thailand

Currency

USD

Team of 10
Per Person*

2,493

Team of 7
Per Person*

2,609

Early Bird Fee
Per Person

2,699

Normal Fee
Per Person

2,899

*Fee per person in a team of 7 or 10 participating from the same organisation, registering 6 weeks before the course date
Request for a quote if you have different team sizes, content customisation, alternative dates or course timing requirements
Request for in-person classroom training or online (VILT) training format

About this Training Course

Agrivoltaics, also known as Agri-PV, is rapidly gaining attention as a new solution for the design of solar parks. It combines solar energy generation and agriculture on the same plot of land. This can have several advantages such as the utilisation of renewable energy in the farm management for enhancing operational efficiency, the system can lead to decreased water usage for irrigation, as the shade from solar panels helps retain the soil moisture. Furthermore, irrigation systems can be powered by the solar energy generated on-site and further reducing reliance on external energy sources.

This dual-use approach maximises land efficiency by combining food production and energy generation preventing land-use conflicts, solar panels can shield crops from extreme weather conditions by providing a protective barrier, and farmers can diversify their income streams by generating electricity alongside traditional agricultural products, which can be particularly beneficial in fluctuating markets. However, the presence of agrivoltaics construction can have an influence on crop growth or quality, if it is not designed effectively. Likewise, the design of agrivoltaics systems should be tailored to accommodate the requirements of agricultural machinery and crop demands.

This 2-day course offers a comprehensive understanding of the field of agrivoltaics and equips participants with the knowledge to assess the feasibility, design, implementation and operation of Agri-PV systems. The curriculum will cover all major aspects from constructions, legislation, impact on crops and agricultural practices to financial modelling.  The course provides theoretical grounding and practical guidelines tailored to professionals evaluating or preparing agrivoltaics projects.

Participants will gain invaluable insights and tools to determine if agrivoltaics can be a viable energy alternative for their organisations. Engaging activities and design exercises allow participants to apply the concepts to planned projects in their home countries. Participants will leave equipped to evaluate sites and methods to set up the design for a selected site, navigate permitting, and evaluate the cost-effectiveness of agrivoltaics system.

By the end of the course, participants will be able to:

  • Assess feasibility, design considerations, implementation approaches, financial feasibility for agrivoltaics systems.
  • Judge the requirements for both agrivoltaic structures and agricultural activities to ensure seamless integration.
  • Evaluate agrivoltaic site suitability, appropriate infrastructure selection, permitting pathways, and cost-effective system deployment.
  • Discuss guidelines and legislation, stakeholder engagement, safety norms, and grid integration for smooth agrivoltaic project development.

This course has been designed for professionals working with utility scale renewable energy projects  looking to further develop their career to keep up to date on the solar PV applications.

  • Utility Professionals working in the utility companies interested in integrating agrivoltaics solutions into their energy portfolios.
  • Energy Analysts studying the feasibility of agrivoltaic projects
  • Investors and Project Developers involved in financing and developing solar projects and those looking to diversify their portfolio with renewable energy projects
  • Power Sector Engineers and Managers exploring innovative energy solutions.
  • Renewable Energy Engineers and Technicians working in the field of solar energy.
  • Renewable Energy Project Managers participating in the design and implementation of solar power projects.
  • Researchers researching the energy fields, environmental science, and engineering seeking in-depth knowledge about agrivoltaics.
  • Consultants providing expertise to agrivoltaic players.
  • Environmental Scientists or Engineers assessing the environmental impact of agrivoltaics projects.
  • Decision-Makers responsible for energy policy, planning and in approving and regulating solar projects.
  • Energy Policy and Regulatory Professionals working in energy policy and regulations want to understand the implications and possibilities of agrivoltaics.
  • Farmers interested to combine their agricultural activities with renewable energy generation.
  • Farmers forecasting new ways to secure the future of their farms.

This course will provide comprehensive learning resources, including course materials for future reference. Each topic will commence with a clearly defined intended learning outcome (LO). The learning experience will be enriched through diverse activities such as quizzes, and assessments, to ensure engagement and understanding. Besides supplementing the core material, participants will have access to additional resources like articles and tools. The course structure incorporates interactive elements, such as case studies, practical exercise in designing an agrivoltaic system tailored to specific locations, followed by group presentation and Q&A sessions which will provide opportunities for clarifications and deeper understanding.

Unlock the potential of your workforce with customized in-house training programs designed specifically for the energy sector. Our tailored, in-house courses not only enhance employee skills and engagement but also offer significant cost savings by eliminating travel expenses. Invest in your team’s success and achieve specific outcomes aligned with your organization’s goals through our expert training solutions. Request for further information regarding our on-site or in-house training opportunities.

In our ongoing commitment to sustainability and environmental responsibility, we will no longer providing hard copy training materials. Instead, all training content and resources will be delivered in digital format. Inspired by the oil and energy industry’s best practices, we are leveraging on digital technologies to reduce waste, lower our carbon emissions, ensuring our training content is always up-to-date and accessible. Click here to learn more.

To further optimise your learning experience from our courses, we also offer individualised coaching support. We can help improve your competence in your chosen area of interest, based on your learning needs and available hours. This is a great opportunity to improve your capability and confidence in a particular area of expertise. It can be delivered virtually through video conference or face to face by one of our senior subject matter experts. They will work with you to create a tailor-made coaching program that will help you achieve your goals faster. Learn more about our post training coaching services here.
1. What are agrivoltaic systems, and how do they work?

Agrivoltaic systems combine solar power generation and farming on the same land. Solar panels produce electricity while farmers grow crops beneath or between them. This approach supports both food and energy production. Proper panel spacing helps crops receive enough sunlight while allowing normal farming activities.

2. What are the benefits and drawbacks of agrivoltaic systems?

Agrivoltaic systems improve land use by producing food and electricity together. Solar panels can reduce water loss, protect certain crops, and provide extra income for farmers. However, high installation costs, excessive shade, and limited machinery access can create challenges. Good system design helps reduce these risks.

3. How does agrivoltaics compare with conventional solar farms?

Conventional solar farms focus mainly on electricity generation. In contrast, agrivoltaic systems support both solar power and agricultural activities. They require careful planning of panel height, spacing, and crop needs. This approach can improve land efficiency but may increase construction costs and design complexity.

4. Which crops and locations are suitable for agrivoltaics?

Agrivoltaics works best where sunlight, soil conditions, and water availability support both farming and solar power generation. Some crops benefit from partial shade, while others need direct sunlight. Developers must consider local weather, crop types, and farming equipment. Proper site selection helps maintain crop growth and energy output.

5. What are the main challenges in designing agrivoltaic systems?

The main challenge is balancing electricity generation with healthy crop growth. Developers must plan panel placement, irrigation, maintenance access, and safety. They also need to address land-use rules, permits, and grid connections. Poor design can reduce crop yields or increase project costs.

6. What technologies and trends will shape the future of agrivoltaics?

New technologies include bifacial solar panels, solar tracking systems, and improved mounting structures. These solutions can increase energy output while supporting crop growth. Future agrivoltaic projects will also focus on soil health, biodiversity, and lower operating costs. These advances may encourage wider use of solar energy in agriculture.

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