Solar Energy System Design builds upon the introduction to PV systems from Solar Energy Basics course, which included basic system components and functions, as well as some basic system sizing using simplifying assumptions. You should at this point have a basic understanding of electrical power and energy, be able to calculate the energy needs of a site as well as energy production potential for a PV system at a given location under optimal conditions. Much of this course will focus on incorporating on the ground conditions into energy production considerations, and how to account for these conditions in system design and equipment selection. By the end of this course you should be able to incorporate losses in irradiance due to array setups with less than optimal positioning and/or shading, and account for variations in module output due to temperature variations in your system design.
Welcome to the first module of Solar Energy System Design. In this module, you will be revisiting the solar resource in a bit more depth than the Solar Energy Basics course. This will entail looking more closely at some of the properties of sunlight, and what happens to that light as it travels from the Sun until it eventually reaches the Earth's surface.
What's included
8 videos1 reading4 assignments
Show info about module content
8 videos•Total 50 minutes
Welcome from Dr. Neal Abrams•4 minutes
The Sun and the Solar Spectrum•7 minutes
The Sun-Earth Relationship•7 minutes
The Sun and Atmosphere•12 minutes
Solar Irradiance•4 minutes
Finding Solar Insolation•6 minutes
Using Insolation Data•5 minutes
Insolation to PV Energy•4 minutes
1 reading•Total 20 minutes
Getting insolation data from NREL•20 minutes
4 assignments•Total 106 minutes
Solar energy from source to panel•30 minutes
Solar energy•16 minutes
Sun-atmosphere interactions•30 minutes
Variation in insolation•30 minutes
PV module and array circuits
Module 2•2 hours to complete
Module details
We will now look closer at the circuits and electrical characteristics of modules and arrays. In Solar Energy Basics, you used module spec sheets to calculate power using voltage and current. In this module, you will be using those module specifications again, and looking at how the different voltage and current values included are important for determining how that module will operate under different conditions. Lastly, we will be looking at the design of both the internal circuitry of modules, and the circuitry of arrays of modules.
What's included
5 videos1 reading3 assignments
Show info about module content
5 videos•Total 29 minutes
Electricity and Circuits•6 minutes
The PV Circuit•3 minutes
Measuring power in a PV circuit•8 minutes
PV and Electrical Interactions- Efficiencies from cell to array•6 minutes
Electrical characteristics in PV arrays- Variations in productivity•7 minutes
1 reading•Total 10 minutes
Bypass diodes vs. blocking diodes•10 minutes
3 assignments•Total 96 minutes
Photovoltaic module and array electrical characteristics•36 minutes
Circuitry Basics•30 minutes
PV modules and array circuits•30 minutes
PV sizing and output under different conditions
Module 3•4 hours to complete
Module details
You calculated photovoltaic system sizes and outputs in Solar Energy Basics based on available insolation. Those insolation values were always based on the assumption of the array being set up at optimal conditions. On-the-ground conditions can often result in variations from the optimal design for capturing all the available insolation, such as the angle of a roof and the direction it is facing being fixed, or nearby trees casting shade onto part of an array. In this module you will learn how to account for the different sources of losses in insolation, because the overall productivity of a system design can change based on the positioning of the array, temperature variations, and shading on parts of the array. These variations in productivity need to be accounted for early in the planning phase of a PV system.
What's included
7 videos2 readings6 assignments
Show info about module content
7 videos•Total 38 minutes
PV Sizing and Output•5 minutes
Orientation and Tilt•6 minutes
Temperature Dependent Output•8 minutes
Temperature Dependent Output as a Percent•4 minutes
Measuring Shading at a Site•7 minutes
Analyzing Shading and Calculating Insolation•6 minutes
PV Output Reduction Due to Shading•2 minutes
2 readings•Total 25 minutes
Finding critical temperature data•5 minutes
Tools for Measuring Shading•20 minutes
6 assignments•Total 190 minutes
PV Sizing and output under different conditions•40 minutes
Module and array conditions•30 minutes
PV Watts Practice•30 minutes
Temperature dependent output•30 minutes
Shading Practice•30 minutes
Shading calculations using PV Watts•30 minutes
Grid-tie PV System design under real world conditions
Module 4•3 hours to complete
Module details
In the last content module of the course you will be working on equipment selection and system sizing. The previous modules on array siting, irradiance variability, temperature effects, shading losses, and circuit design will all come into play when you are designing a system. Additionally, you will be looking at site surveying, where those pieces of information are gathered, and permitting, where they are recorded and communicated along with the recommended system design.
What's included
5 videos2 readings4 assignments
Show info about module content
5 videos•Total 27 minutes
Module 4 Introduction•0 minutes
Residential Site Survey•6 minutes
Array Sizing and Module Selection•7 minutes
Inverter Sizing and Selection•7 minutes
String sizing for the inverter•6 minutes
2 readings•Total 70 minutes
Site checklists and Unified Solar Permits•60 minutes
Putting it all together to design a photovoltaic system•10 minutes
4 assignments•Total 110 minutes
Grid tied design Quiz•30 minutes
Putting it all together•20 minutes
Site surveys and permits•30 minutes
Module and inverter selection quiz•30 minutes
Course Capstone
Module 5•4 hours to complete
Module details
The capstone project of this course will entail applying much of what you have learned in this course. You will need to design a PV system using commercially available components and calculate it's output under site specific conditions. You will have to account for the available solar radiation and losses due to the positioning of the array as well as due to shading. You will also need to design an optimal configuration to connect the PV modules with an inverter. Finally, you will evaluate a PV system design for both accuracy and safety.
What's included
1 peer review
Show info about module content
1 peer review•Total 240 minutes
Capstone Project•240 minutes
Instructor
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4·
Reviewed on Nov 10, 2022
over all a very good course for solar design and PV array sizing .. Need a little more time for the Equipment sizing and selction section and also the state wise permits and NOC.
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5·
Reviewed on Sep 9, 2020
Teacher is very elaborative and explained each concept so nicely. Thankfully now i can design solar systems for net metering. Thanks Professor Neal Abrams and Coursera
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PG
5·
Reviewed on Sep 11, 2022
Loved this course. With a very practical perspective, it does not go deep into PV theory but focusses more on what you should know to design your own PV System. Overall I am very satisfied!
What will I actually learn in this solar energy system design course?
You'll learn how to design a photovoltaic system using site conditions instead of ideal assumptions. It starts with solar resource and module behavior, then builds into estimating output losses from orientation, shading, and temperature before moving into equipment selection for a grid-tied system. By the end, you'll work through a roof-mounted PV design and estimate how much energy it should produce.
Do I need to take Solar Energy Basics first?
Not necessarily, but you do need the same background. This course builds on basic photovoltaics and assumes you already understand electrical power and energy, can estimate a site's energy needs, and can calculate PV output under optimal conditions. It moves quickly into design factors like tilt, shading, and temperature rather than teaching those basics from scratch.
Is this course beginner-friendly for solar design?
It's a good fit if you're new to system design but already know the basics of photovoltaics. Because it's an intermediate course, it assumes some comfort with electrical power, energy use, and simple PV sizing, then moves into site-specific design work. If you're completely new to solar energy, the pace may feel fast.
How long does it take to complete this course?
Plan on about 17 hours in total. At around 10 hours a week, many learners could finish in about 2 weeks, though you may want a little extra time for the design assignments and capstone. The course includes lessons, readings, quizzes, applied assignments, and a final project.
Are there hands-on exercises or projects in this course?
Yes, there are applied exercises throughout the course, although most of the early work is guided rather than open-ended. You'll complete calculation-based quizzes and assignments on PV output, orientation, shading, and temperature, use PVWatts for practice, and finish with a capstone project designing a roof-mounted system. That structure lets you apply each design idea as you learn it, then pull everything together in one larger design task.
What topics are covered in this course?
The course covers solar resource assessment, PV electrical behavior, and system design under practical constraints. You'll learn how orientation, temperature, and shading affect output, and how module and inverter specifications shape array sizing and string design. The overall emphasis is on turning site conditions and component data into a workable solar design.
What can I actually do after finishing this course?
After finishing, you should be able to analyze a site and create a more accurate PV system design than a simple ideal-condition estimate. That includes estimating output losses, sizing an array for energy needs, and selecting module and inverter combinations that work together in a grid-tied setup. For example, you could use local solar and temperature data to predict annual production for a roof-mounted array and check whether the string configuration is appropriate.
Is this course more focused on theory or hands-on learning?
It's more concept-first with applied calculations than project-heavy from the start. Most of the course explains how PV performance changes under different site conditions, then reinforces that through quizzes, design assignments, and a final capstone.
Why would I choose this course over other solar design courses?
This course is a strong choice if you want solar design to reflect actual installation conditions, not just ideal PV sizing. Instead of stopping at basic output estimates, it works through orientation, shading, temperature, site surveys, permitting context, and inverter string sizing, then brings those pieces together in a roof-mounted system capstone. If you already know the basics and want to move toward realistic grid-tied design decisions, it's a stronger fit than a more introductory solar course.