Solar Energy Design Course
The demand for renewable energy solutions is increasing as businesses, homeowners, and organisations look for cleaner and more sustainable ways …
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1 Year
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Intermediate
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5 hours, 31 minutes
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Solar Energy Design Course
Join thousands of learners building a successful career
The demand for renewable energy solutions is increasing as businesses, homeowners, and organisations look for cleaner and more sustainable ways to generate electricity. Solar Energy Design plays an important role in this transition by helping professionals understand how photovoltaic (PV) systems are designed, positioned, connected, and optimised for effective energy generation. The Solar Energy Design Course is designed to provide learners with practical knowledge of solar panels, PV system fundamentals, panel orientation, tilt angles, electrical connections, solar cables, and performance considerations.
Whether you are beginning a career in renewable energy, working in electrical or engineering-related fields, or simply interested in understanding how solar PV systems work, this course provides a structured learning experience. It introduces important principles behind solar panel installation and system design while developing the technical knowledge needed to understand real-world solar energy applications.
Course Overview
The Solar Energy Design Course offers a clear and practical understanding of the key principles involved in designing photovoltaic (PV) solar energy systems. It helps learners understand how solar panels produce electricity and how factors such as system layout, panel selection, positioning, and environmental conditions can influence overall performance. Throughout the course, you will explore PV system components, solar cells, busbars, panel specifications, and different ways of connecting solar panels, while also learning how shading, half-cut cells, panel orientation, and mounting methods can affect energy generation. You will also examine the importance of selecting the correct panel tilt and orientation, including tilt-angle calculations, seasonal adjustments, azimuth angles, sun charts, and suitable spacing between rows of PV panels to maximise exposure to sunlight. In addition, the course introduces essential technical areas such as PV panel parameters, junction boxes, solar cables and wires, maximum PV string voltage, and data available from the Global Solar Atlas. Learners will gain an overview of PV simulation and hybrid photovoltaic-thermal panel technology, building a practical understanding of how these tools and technologies can support effective solar system design.
By bringing together essential theory and practical design considerations, the course provides a solid foundation for anyone looking to develop their knowledge of solar energy, photovoltaic systems, and renewable energy technology.
Course Preview
Learning Outcomes
By completing this Solar Energy Design Course, you will be able to:
- Understand the fundamental principles of photovoltaic solar energy systems
- Identify different types of solar cells, busbars, and PV panel technologies
- Explain V-I characteristics and key performance parameters of PV panels
- Understand different methods of connecting solar panels and PV strings
- Assess the impact of shading and half-cut cells on solar panel performance
- Understand how mounting, tilt angle, orientation, and azimuth affect PV generation
- Apply basic principles for calculating panel tilt angles and PV row spacing
- Identify important solar cables, junction boxes, panel parameters, and electrical considerations
- Use Global Solar Atlas information to support solar energy assessment and PV simulation
- Develop foundational knowledge of Solar Energy Design and photovoltaic system planning
Why Enrol in This Course?
The renewable energy sector continues to expand as the transition towards cleaner energy becomes increasingly important. Developing knowledge of Solar Energy Design can help learners understand one of the most widely adopted renewable energy technologies and prepare for opportunities across the growing solar industry.
Key benefits include the following:
- Gain a strong foundation in solar PV system design
- Understand how solar panels work and how their performance is measured
- Learn about panel tilt, orientation, azimuth, and shading considerations
- Develop knowledge of solar cables, junction boxes, and PV string voltage
- Understand how solar resources can be assessed using the Global Solar Atlas
- Explore practical concepts used when planning photovoltaic systems
- Learn about hybrid photovoltaic thermal panel technology
- Flexible online learning accessible from anywhere
- Suitable for beginners interested in renewable energy
- Build knowledge that can support further study and professional development
This course is ideal for learners who want to develop practical knowledge of solar photovoltaic technology and understand the fundamentals of designing efficient solar energy systems.
Who is this course for?
The Solar Energy Design Course is suitable for a wide range of learners, including:
- Individuals starting a career in renewable energy
- Aspiring solar PV technicians and installers
- Electrical and engineering students
- Professionals working in energy or construction
- Property and facilities professionals interested in solar technology
- Entrepreneurs exploring renewable energy opportunities
- Homeowners and individuals interested in understanding solar PV systems
- Anyone interested in sustainable and renewable energy technologies
Whether you are new to solar technology or looking to strengthen your existing knowledge, this course provides a useful introduction to the principles behind photovoltaic system design.
Prerequisites
There are no formal entry requirements for this course. It is designed to be accessible to learners from different educational and professional backgrounds.
However, the following may be helpful:
- Basic understanding of science or mathematics
- General interest in renewable energy and solar technology
- Basic familiarity with electrical concepts
- Motivation to develop technical knowledge and practical skills
Previous experience with solar PV systems is not essential, making the course suitable for beginners.
Certification
After successfully completing this course, you will receive an Accredited Certificate of Achievement endorsed by CPD, UKRLP, AoHT, and Incensu. Certificates and transcripts are available in:
- PDF format for £11.99
- Hard copy for £14.99
Career Path
Completing this course can support progression towards a variety of roles within the renewable energy, solar, electrical, and construction sectors. While additional qualifications or practical experience may be required for certain regulated or specialist positions, knowledge of Solar Energy Design can provide a useful foundation for career development.
Potential career roles include:
- Solar PV Designer – £25,000 to £45,000 annually
Support the design and planning of photovoltaic systems for residential, commercial, and industrial applications.
- Solar PV Technician – £24,000 to £40,000 annually
Assist with the installation, maintenance, testing, and troubleshooting of solar PV systems.
- Renewable Energy Technician – £25,000 to £45,000 annually
Work with renewable energy technologies and support the operation and maintenance of sustainable energy systems.
- Solar Energy Consultant – £30,000 to £55,000 annually
Guide solar energy solutions, system requirements, energy potential, and project planning.
- Renewable Energy Project Coordinator – £28,000 to £50,000 annually
Support the planning, coordination, and delivery of renewable energy projects.
Course Curriculum
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Introduction to PV System 00:25:00 -
Types of Busbars and Solar Cells 00:15:00
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V-I Characteristics of a PV Panel 00:27:00
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Different Connections of Solar Panels 00:17:00
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Shading and Half Cut Cells 00:20:00
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Mounting and Tilt Angle of a PV Panel 00:27:00
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Calculation of the Tilt Angle in a Location 00:08:00
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Practical Tilt Angle during Different Seasons 00:12:00
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Orientation and Azimuth Angle of Solar Panels 00:09:00
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Sun Chart and Distance between PV Rows 00:19:00
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Important Note Regarding the Sun Chart 00:09:00
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Panel Parameters and Measurements 00:29:00
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Junction Box in PV Panels 00:18:00
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Solar Wires and Cables Installation Process 00:28:00
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PV String Maximum Voltage 00:18:00
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Important Definitions in the Global Solar Atlas 00:22:00
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Global Solar Atlas PV Simulation 00:18:00
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Hybrid Photovoltaic Thermal Panel (PVT) 00:10:00
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Order Your Certificates and Transcripts
Frequently Asked Questions
Solar energy system design involves selecting and sizing solar panels, electrical components, and supporting equipment to generate electricity efficiently. It considers sunlight, panel orientation, tilt angle, energy requirements, system configuration, and site conditions.
Solar panel tilt angle is calculated according to the installation location, latitude, seasonal sunlight, and energy requirements. Correct positioning improves solar exposure and helps maximise electricity generation throughout different seasons of the year.
Solar panel performance can be affected by shading, orientation, tilt angle, temperature, cell type, wiring, and installation conditions. Proper system design and accurate measurements help optimise energy production and maintain reliable photovoltaic performance.
Solar panels use different cell technologies and configurations, including various busbar designs, half-cut cells, and photovoltaic technologies. Understanding their characteristics helps designers select suitable panels based on performance, installation requirements, space, and project objectives.
Designing a photovoltaic system involves assessing energy demand, solar resources, panel characteristics, system voltage, connections, cables, and installation conditions. Designers also consider tilt, orientation, shading, protection, and simulation results to develop an efficient PV system.
