Module Description
The Design of Photovoltaic Systems course gives engineers, energy professionals, and students the skills to design practical and reliable solar power systems.
The course starts with the basics of solar energy and PV components (modules, charge controllers, batteries, inverters). It then covers different system types—off-grid, grid-connected, and hybrid—and guides learners step by step through load assessment, resource evaluation, system sizing, and optimization.Through clear formula sheets and real case studies, participants will be able to design efficient solar PV systems that improve energy security and support sustainable development.
The course starts with the basics of solar energy and PV components (modules, charge controllers, batteries, inverters). It then covers different system types—off-grid, grid-connected, and hybrid—and guides learners step by step through load assessment, resource evaluation, system sizing, and optimization.Through clear formula sheets and real case studies, participants will be able to design efficient solar PV systems that improve energy security and support sustainable development.
learning Outcomes
By the end of this module, you will be able to:
- Explain how PV cells convert sunlight to electricity and differentiate major PV cell/module types and technology trends.
- Characterize & select key components—modules (IV/series-parallel behavior), charge controllers (PWM vs MPPT), batteries (DoD, capacity, chemistry), and inverters (string, micro, hybrid, pumping)—for a given application.
- Compare off-grid, grid-connected, and hybrid configurations and justify an architecture based on site constraints and grid context.
- Perform load analysis and solar-resource assessment, identify the design month (worst-case H/E), and determine peak-sun-hours and tilt assumptions.
- Size battery banks, PV arrays (series/parallel limits), charge controllers, and inverters using the provided step-by-step formula sheets.
- Design complete photovoltaic systems—including panels, batteries, controllers, and inverters—using step-by-step methods and real case studies.













