A grid-tied solar system is not just panels on a roof — it is an electrical engineering system that has to convert power correctly, integrate safely with the utility grid, meet code, and keep performing for two decades with minimal intervention. Getting any one of those pieces wrong turns a promising installation into a liability.

This course from the Arab British Fellowship Training Academy walks participants through that engineering process end to end: sizing a system to real load data, selecting and specifying components, installing and commissioning safely, and using monitoring and economic analysis to keep the system delivering value long after it goes live. It is built for people who will actually specify, install, or evaluate these systems, not just discuss them in the abstract.

Who Should Attend?

• Engineering students working toward degrees in electrical, mechanical, or renewable energy engineering.
• Practicing engineers, project managers, and technicians already in the renewable energy sector.
• Government officials and energy regulators who need a working understanding of solar technology to shape policy.
• Entrepreneurs and business leaders investing in or launching solar energy ventures.
• Individuals and organizations committed to advancing renewable energy and sustainability.

Knowledge and Benefits:

After completing the program, participants will be able to master the following:

• Understand the engineering principles behind grid-tied solar systems and how they function.
• Design, install, and maintain a system, including key components such as inverters, batteries, and monitoring equipment.
• Integrate solar systems with the electrical grid effectively, including net metering and energy management.
• Apply critical thinking and structured problem-solving to real engineering challenges in solar deployment.
• Explain the environmental and economic case for grid-tied solar as part of the shift to sustainable energy.

Module 1: Solar Energy and Grid-Tied Systems — The Big Picture

• Types of solar technologies (photovoltaic vs. solar thermal) and the environmental, economic, and energy-security case for solar
• Solar energy potential: global trends and local resources
• Definition and benefits of grid-tied configurations, key components (panels, inverters, meters, balance of system), and comparison with off-grid and hybrid systems

Module 2: How Grid-Tied Systems Convert and Manage Power

• Basic photovoltaic principles: converting sunlight into electricity
• Energy flow dynamics from generation to consumption, and the inverter’s role in managing output and grid integration
• Relevant codes and standards (e.g. NEC, IEEE), the importance of compliance, and local net metering policy

Module 3: Sizing the System to the Load

• Assessing energy needs for residential versus commercial applications
• Tools for load estimation, and seasonal and daily variation in consumption
• Calculating optimal array size and evaluating roof space, shading, orientation, and tilt

Module 4: Choosing Components and Designing with Software

• Choosing solar panels, inverters (string vs. microinverters), and battery storage options
• Introduction to PV design software and simulation tools for performance prediction
• Using real-world data to refine a design before installation

Module 5: Installation and Mounting

• Site assessment and preparation
• Fixed versus adjustable mounting systems and installation technique
• Safety protocols and personal protective equipment during installation

Module 6: Wiring, Commissioning, and Getting the System Live

• Inverter types, functionality, and compatibility, and AC/DC wiring best practices
• Configuring communication and monitoring systems for performance tracking
• System testing, safety checks, and documentation for project completion

Module 7: Keeping Systems Running — Troubleshooting and Monitoring

• Identifying common installation and connectivity challenges and diagnosing system faults
• Regular maintenance practices that protect system reliability
• Monitoring technologies (hardware and software) and interpreting logged performance data

Module 8: Turning Performance Data into Decisions

• Key performance indicators such as capacity factor and efficiency, and real-time data analysis
• Reporting findings to stakeholders to improve system performance
• Calculating ROI and payback periods, understanding incentives and tax credits, and financing options such as loans, leases, and PPAs

Module 9: Where Grid-Tied Solar Is Headed

• Innovations in materials and efficiency
• The impact of changing regulation on solar adoption
• Emerging markets and global trends shaping the industry