TAKE ALL
COURSES FOR £49
1 Year Access 
10 Students 
1 day, 2 hours 
Complete Solar Energy Design Course From Zero To Hero Overview
The Complete Solar Energy Design Course From Zero To Hero immerses you in the world of solar energy systems. You’ll start by learning the fundamentals of solar panels and progress to designing and simulating advanced solar energy systems. Gain hands-on experience with various photovoltaic (PV) systems, including off-grid, hybrid, and on-grid setups. Engage in practical lessons and simulations using industry-standard tools like PVSyst, Excel, AutoCAD, and MATLAB. By the end of this course, you’ll confidently design, implement, and optimise solar energy solutions, ready to tackle real-world projects with expertise.
Bonus Features Included:
- Free CPD Accredited PDF Certificate
- Free Course: Professional Diploma in Renewable Energy
- Free Course: Electrician Online Course Outcomes
- Understand the fundamental components and types of solar energy panels and PV systems.
- Identify and describe the functions of batteries, charge controllers, and inverters in a PV system.
- Design and implement an off-grid solar energy system with a focus on system protection.
- Perform off-grid system design using PVSyst and conduct 3D shading analysis.
- Develop and design hybrid PV systems integrating multiple energy sources.
- Create efficient designs for on-grid solar energy systems.
- Utilise the PVsyst program for designing and simulating PV systems.
- Design solar water pumping systems for various applications.
- Use Excel to design and calculate PV system parameters.
- Apply AutoCAD for creating single line diagrams and simulate solar energy systems using Simulink in MATLAB.
Eligibility Requirements
To enrol in this course, participants should have a basic understanding of electrical engineering concepts and a keen interest in renewable energy technologies. No prior experience in solar energy is required, but familiarity with general engineering principles and an eagerness to learn will be beneficial.
Entry Requirements
- Age Requirement: Applicants must be aged 16 or above, allowing both young learners and adults to engage in this educational pursuit.
- Academic Background: There are no specific educational prerequisites, opening the door to individuals from diverse academic histories.
- Language Proficiency: A good command of the English language is essential for comprehension and engagement with the course materials.
- Numeracy Skills: Basic numeracy skills are required to effectively understand and work with course-related information.
Why Choose Us
- Affordable, engaging & high-quality e-learning study materials;
- Tutorial videos/materials from the industry-leading experts;
- Study in a user-friendly, advanced online learning platform;
- Efficient exam systems for the assessment and instant result;
- The UK & internationally recognised accredited
- Access to course content on mobile, tablet or desktop from anywhere, anytime;
- The benefit of career advancement opportunities;
- 24/7 student support via email.
Career Path
Completing this course unlocks numerous career opportunities in the expanding field of solar energy. You can take on roles like solar energy designer, PV system installer, energy consultant, or project manager. With your newfound expertise, you will be well-positioned to work with renewable energy companies, environmental organisations, and government agencies dedicated to sustainable energy solutions.
Frequently Asked Questions
A PV solar system converts sunlight into electricity using solar panels, inverters, and other components. It can be designed for off-grid, on-grid, or hybrid applications to supply energy efficiently for homes, businesses, or industries.
Off-grid design involves calculating energy needs, selecting PV panels, batteries, charge controllers, and inverters. Factors include solar irradiance, tilt angle, battery capacity, and protection systems to ensure reliable, standalone power supply.
Solar systems commonly use lead-acid, lithium-ion, nickel, and flow batteries. Battery selection depends on capacity, cycle life, depth of discharge, and system voltage to store energy efficiently and ensure long-term performance.
Charge controllers regulate battery charging to prevent overcharging, while inverters convert DC from panels or batteries into usable AC power. Both components are essential for system efficiency, safety, and reliable electricity supply.
Efficiency depends on tilt angle, orientation, shading, panel type, and environmental factors. Proper mounting, sun charts, azimuth angles, and seasonal adjustments maximize energy generation for optimal solar system performance.
