Solar Energy Design Course
Solar energy is rapidly transforming the global energy sector, offering a sustainable and cost-effective alternative to traditional power generation. As …
1600 Students
Get access to 3000+ courses including this for a year only at £49. GET NOW
Save 93.15 % - Offer ENDS SOON
Access All Courses for Only £49
14-Day Money-Back Guarantee
-
1 Year
Access -
Intermediate
Skill Level -
1 day, 2 hours
Duration
Solar Energy Design Course
Join thousands of learners building a successful career
Solar energy is rapidly transforming the global energy sector, offering a sustainable and cost-effective alternative to traditional power generation. As governments, businesses, and homeowners increasingly invest in renewable energy systems, the demand for skilled professionals in solar energy design and photovoltaic (PV) system engineering continues to grow. Across the UK and worldwide, solar power plays a key role in reducing carbon emissions and supporting the transition towards clean energy solutions.
This Solar Energy Design Course is designed to provide complete training in solar photovoltaic (PV) system design, solar panel installation principles, battery storage systems, and renewable energy engineering. Whether you are an aspiring solar engineer, electrician, technician, or renewable energy enthusiast, this CPD-accredited course will equip you with the essential knowledge and practical understanding needed to work confidently in the fast-growing solar industry.
Course Overview
The Solar Energy Design Course provides the design, analysis, and operation of solar photovoltaic systems. Covering both theoretical concepts and practical applications, this course explores the complete process of solar energy system design, including solar panels, batteries, inverters, charge controllers, system protection, and energy simulations.
You will gain a solid understanding of how solar power systems operate in residential, commercial, and industrial environments. The course also introduces modern design software and engineering tools used in the renewable energy industry, helping learners understand how to plan efficient and reliable solar energy solutions.
Throughout the course, you will explore different types of PV systems, including off-grid, on-grid, and hybrid solar systems. You will also learn about battery technologies, solar water pumping systems, shading analysis, system optimisation, and electrical protection methods. In addition, the course covers practical engineering concepts using AutoCAD, MATLAB Simulink, and PVsyst software for professional solar energy system design and simulation.
Course Preview
Learning Outcomes
By completing the Solar Energy Design Course, you will be able to:
- Learn the fundamental principles of solar energy and photovoltaic (PV) systems
- Identify different types of solar panels, PV cells, and solar energy technologies
- Analyse the performance and efficiency of solar panels using V-I characteristics and system measurements
- Understand the design and operation of off-grid, on-grid, and hybrid solar power systems
- Gain knowledge of solar batteries, battery storage systems, and charging methods
- Understand the functions of charge controllers, inverters, fuses, and protection devices in PV systems
- Learn how to calculate tilt angles, orientation, shading effects, and energy output for solar panels
- Develop practical skills in solar energy system simulation using PVsyst and MATLAB Simulink
- Understand electrical drawing preparation and single-line diagram creation using AutoCAD
- Explore career opportunities and technical applications within the renewable energy and solar power industry
Why Enrol in This Course?
The renewable energy sector is one of the fastest-growing industries globally, creating significant demand for professionals with expertise in solar power system design and sustainable energy technologies. This course offers practical and career-focused training for learners interested in entering the solar industry or enhancing their existing engineering knowledge.
When you enrol in this course, you will benefit from:
- A CPD-accredited certificate to strengthen your professional profile
- Flexible online learning with lifetime access to study materials
- Comprehensive training in solar PV system design and renewable energy engineering
- Exposure to industry-relevant software such as PVsyst, AutoCAD, and MATLAB Simulink
- Beginner-friendly learning suitable for both technical and non-technical learners
- Career-oriented knowledge aligned with modern solar energy industry practices
This course is ideal for individuals looking to develop practical skills in solar energy system design, photovoltaic engineering, and sustainable power generation.
Who is this course for?
The Solar Energy Design Course is suitable for:
- Individuals interested in renewable energy and sustainable technologies
- Students pursuing careers in electrical engineering or solar energy engineering
- Electricians and technicians looking to expand into solar PV system installation and design
- Engineers seeking practical knowledge of photovoltaic system design and simulation
- Renewable energy professionals wanting to strengthen their understanding of solar technologies
- Anyone looking to develop career-ready skills in the growing solar energy industry
Whether you are a beginner or already have technical experience, this course provides valuable insight into the design and operation of modern solar power systems.
Prerequisites
There are no formal prerequisites for this course. It is designed to be accessible to beginners while also providing valuable technical knowledge for engineers, technicians, and professionals already working within the energy sector.
A basic understanding of mathematics or electrical concepts may be helpful but is not required.
Assessment Method
Assessment for the Solar Energy Design Course is conducted through an automated multiple-choice examination. Learners must achieve a minimum score of 60% to successfully pass the course and demonstrate their understanding of solar energy system design principles.
Reflective assignments and practical learning activities are also included to reinforce key concepts and improve technical understanding. These exercises help learners apply theoretical knowledge to real-world renewable energy scenarios.
Certification
Upon successful completion of the course and passing the final assessment, learners will receive a CPD QS-accredited certificate. This certification demonstrates your skills and knowledge in solar energy system design and renewable energy engineering.
You will have the option to obtain:
- A digital certificate for professional and career use
- A printed hard copy certificate delivered to your address
This certification can help improve your employability and support career progression within the renewable energy and electrical engineering sectors.
Career Path
Completing the Solar Energy Design Course can help you pursue a wide range of opportunities within the renewable energy and engineering industries.
Potential career paths include:
- Solar PV Designer – £28,000 to £50,000 annually
Design and optimise residential and commercial solar power systems
- Renewable Energy Technician – £25,000 to £40,000 annually
Install, maintain, and troubleshoot renewable energy systems
- Solar Installation Engineer – £30,000 to £45,000 annually
Support the installation and commissioning of solar PV systems
- Electrical Design Engineer – £32,000 to £55,000 annually
Develop electrical layouts and protection systems for energy projects
- Energy Consultant – £30,000 to £60,000 annually
Advise organisations on sustainable energy solutions and efficiency improvements
Solar Energy Design Course
The course content was detailed without being overwhelming. I appreciated the step-by-step approach and the focus on current solar industry standards.
Course Curriculum
-
Introduction to PV System 00:25:00 -
Types of Busbars and Solar Cells 00:15:00
-
V-I Characteristics of a PV Panel 00:27:00
-
Different Connections of Solar Panels 00:17:00
-
Shading and Half Cut Cells 00:20:00
-
Mounting and Tilt Angle of a PV Panel 00:27:00
-
Calculation of the Tilt Angle in a Location 00:08:00
-
Practical Tilt Angle during Different Seasons 00:12:00
-
Orientation and Azimuth Angle of Solar Panels 00:09:00
-
Sun Chart and Distance between PV Rows 00:19:00
-
Important Note Regarding the Sun Chart 00:09:00
-
Panel Parameters and Measurements 00:29:00
-
Junction Box in PV Panels 00:18:00
-
Solar Wires and Cables Installation Process 00:28:00
-
PV String Maximum Voltage 00:18:00
-
Important Definitions in the Global Solar Atlas 00:22:00
-
Global Solar Atlas PV Simulation 00:18:00
-
Hybrid Photovoltaic Thermal Panel (PVT) 00:10:00
-
Off-Grid, On-Grid, and Hybrid PV Systems 00:24:00
-
Introduction to Batteries 00:08:00
-
Practical Recommendation of Battery System Voltage 00:12:00
-
Components of 24V and 48V PV Systems 00:15:00
-
Battery Capacity and C-Rate 00:14:00
-
C10, C20, and C100 Batteries 00:11:00
-
Battery Connections 00:13:00
-
Cycle of a Battery and DoD 00:14:00
-
Deep Cycle Batteries and Car Batteries 00:11:00
-
Specific Energy and Specific Density of a Battery 00:05:00
-
Self Discharge of a Battery 00:06:00
-
Shelf Life, Cycle Life, and Calendar Life of a Battery 00:14:00
-
Lead Acid Batteries 00:23:00
-
Maintenance of Flooded Lead Acid Batteries 00:15:00
-
Lithium Batteries 00:17:00
-
Nickel Batteries 00:07:00
-
Flow Batteries 00:03:00
-
Cost of Batteries 00:06:00
-
Battery Balancer 00:08:00
-
Lead Acid Battery and Lithium-Ion Charging Cycle 00:09:00
-
Datasheet of a Solar Battery 00:28:00
-
Small Correction in Datasheet 00:05:00
-
Introduction to Charge Controllers 00:03:00
-
PWM Charge Controllers 00:22:00
-
MPPT Charge Controllers 00:21:00
-
Function, Types, and Datasheet of Inverter 00:55:00
-
Example 1 on Design of an Off-Grid PV System 00:58:00
-
Helpful Notes Regarding Example 1 00:07:00
-
Example 2 Design of an Off Grid System 00:34:00
-
Helpful Notes Regarding Example 2 00:06:00
-
Overcurrent Protection Guide 00:21:00
-
Example on String and Array Protection 00:26:00
-
PV Combiner Box 00:09:00
-
Selection of Fuses and Cables for Example 1 – Off Grid 00:38:00
-
Selection of Fuses and Cables for Example 2 – Off Grid 00:30:00
-
Design an Off-Grid System Using PVSyst 00:54:00
-
Notes about the Off-Grid Example 00:06:00
-
3D Shading Analysis in PVSyst for Off-Grid System 00:45:00
-
Example on Design of a Hybrid PV System 00:29:00
-
Helpful Notes Regarding Hybrid Design 00:03:00
-
PV Energy According to Area in Solar Energy System 00:02:00
-
Design of an On Grid Solar Energy System Using PVSyst Program 00:12:00
-
Design Mega PV System Using PVsyst Program 00:29:00
-
Introduction to Water Pumping System and Steps of Design 00:24:00
-
Solved Example on Solar Pumping System Design 00:23:00
-
Design of Off-Grid PV System Using Excel Sheet 00:26:00
-
Starting Autocad and Changing Background 00:11:00
-
Mouse Commands and Selection Methods 00:09:00
-
Drawing a Line 00:09:00
-
Drawing a Rectangle 00:06:00
-
Drawing a Circle 00:10:00
-
Drawing a Polygon 00:07:00
-
Drawing a Polyline 00:06:00
-
Drawing an Arc and an Elipse 00:08:00
-
Drawing a Point and Construction Lines 00:08:00
-
Hatch and Rotate 00:08:00
-
Trim and Extend Commands 00:06:00
-
Adding Text to Autocad 00:04:00
-
Copy and Erase Commands 00:03:00
-
Block and Explode Commands 00:10:00
-
Block and Explode Commands 00:10:00
-
Move and Align Commands 00:08:00
-
Join, Offset, and Break Commands 00:07:00
-
Divide, Fillet, and Chamfer Commands 00:16:00
-
Drawing Properties and Match Command 00:07:00
-
Distance, Area, and List Commands 00:05:00
-
Adding Dimensions and Styles 00:22:00
-
Layers in Autocad 00:22:00
-
Multi-Spiral Lines and Leaders Commands 00:14:00
-
Purge Command in Autocad 00:04:00
-
Changing Drawing Axes 00:07:00
-
Drawing Fluorescent Symbol and Replace Block Command 00:07:00
-
Printing Options of an Electrical Drawing 00:14:00
-
Autocad Menu Bar and Autosave Feature 00:14:00
-
Organizing and Preparing Architectural Drawing for Electrical Design 00:24:00
-
Single Line Diagram of PV System and Selection of Fuses and Breakers 00:45:00
-
Simulation of PV Cell in MATLAB and Obtaining V-I Characteristics 00:28:00
-
How to Solve the Single Output Problem in the To WorkSpace Function 00:04:00
-
Get a Complete Grid Connected PV Solar Energy System in MATLAB Simulink 00:25:00
-
Fantom – Phantom Electric Loads in the Solar Energy System 00:06:00
-
Power Tolerance in PV Panels 00:09:00
-
Order Your Certificates and Transcripts
-
Share your Feedback
Frequently Asked Questions
Solar energy system design involves planning photovoltaic systems and selecting panels, batteries, inverters, and protection devices, while calculating tilt angles, energy output, and system performance to create efficient, reliable, and cost-effective solar power solutions for residential and commercial applications.
Off-grid solar systems generate electricity using solar panels, store energy in batteries, and supply power through inverters without relying on the utility grid, making them ideal for remote locations and independent energy solutions with reliable backup storage.
PVsyst helps engineers and designers simulate solar energy systems, analyse shading, estimate energy production, optimise panel placement, and improve overall system efficiency, ensuring accurate planning and better performance for on-grid and off-grid photovoltaic installations.
MPPT and PWM charge controllers regulate battery charging in solar systems. MPPT controllers maximise energy conversion efficiency, while PWM controllers provide simpler battery regulation, helping protect batteries, improve charging performance, and maintain stable solar energy system operations.
Solar panels improve energy efficiency by converting sunlight into clean electricity, reducing dependence on traditional power sources, lowering electricity costs, minimising environmental impact, and providing sustainable energy solutions for homes, businesses, and industrial applications through advanced photovoltaic technologies.
