
Learn about Stand Alone (off-grid) System. An off-grid solar system is designed for the power needs of mid- to large-size homes. Unlike grid-tied solar systems, off-grid systems have no connection to the utility grid and must make all the electricity necessary to power your home.
The on-grid solar power system is a solar power generation system where it is connected to the utility grid.
Hybrid solar systems generate power in the same way as a common grid-tie solar system but use special hybrid inverters and batteries to store energy for later use.
A solar cell, or photovoltaic cell, is an electrical device that converts the energy of light directly into electricity by the photovoltaic effect, which is a physical and chemical phenomenon.
There are three major types of solar panels: monocrystalline, polycrystalline, and thin-film. Each type has its own unique advantages and disadvantages, and the solar panel type best suited for your installation will depend on factors specific to your own property and desired system characteristics.
the solar panel type best suited for your installation will depend on factors specific to your own property and desired system characteristics.
Solar panels are designed to be easily and durably mounted to racks of different types, learn these different types through the tutorial.
Though mixing different solar panels is not recommended, it's not forbidden and things would be ok as long as each panel's electrical parameters (voltage, wattage, amps) are carefully considered.
A solar charge controller manages the power going into the battery bank from the solar array.
Learn how to choose a suitable charge controller for your solar PV system.
Solar batteries work by storing energy produced by your solar panels for later use.
We try to estimate the average life-span of your system's batteries.
A solar inverter or PV inverter is a type of electrical converter which converts the variable direct current (DC) output of a photovoltaic (PV) solar panel into a utility alternating current (AC).
Learn how to select and install cables and connectors for solar arrays, plus fuse, isolation switches, and ground fault protection to safely manage high-voltage DC.
Compare irradiance on sunny and cloudy days, link irradiance to current and voltage, and learn to estimate energy from irradiation using area under the curve and STC values.
Calculate daily energy per area by multiplying the irradiance value by peak sun hours to estimate the BV array's energy output.
Explore how altitude and azimuth describe the sun's position across seasons, including solstices and equinoxes, and how latitude and Earth's 23.5-degree tilt influence solar energy design.
Learn how to set the optimum tilt angle for PV modules by latitude, using adjustments from latitude minus 15 to plus 15 degrees to suit seasons.
Explore how a client's daily energy use shapes the battery bank size. Consider inverter efficiency, days of autonomy, depth of discharge, and nominal voltages (12, 24, 48 V).
Size a battery bank by calculating daily energy use, inverter efficiency, and days of autonomy, then wire it as one or two series-parallel strings to meet the target voltage.
Learn how to size a battery-based PV array for stand-alone and utility-interactive systems by calculating total energy, applying battery and array efficiencies, TSRF, and peak sun hours.
Size a grid-direct PV system by balancing the client's budget and available area with annual energy needs. Survey the site to assess shading, space, inverter placement, and safety equipment considerations.
Match the inverter to the array by selecting compatible ac and dc voltage windows, considering temperature effects on voc and ivc curves to determine safe string configurations.
Automate off-grid solar design in Excel by calculating monthly declination and elevation angles and mapping installation tilt with IF statements.
Learn to compute monthly peak sun hours for off-grid solar design using Excel, incorporating latitude, elevation and tilt angles, and derive sm values with min, max, and the two-hour rule.
Create an automated off-grid solar system design in Excel by inputting appliances' power, quantity, and hours, calculating total power and energy, and updating outputs with location-based irradiation data.
Explore the design of an off-grid solar system in Excel by deriving panel and battery specs from data sheets, and calculating losses, temperatures, and series/parallel configurations.
We teach solar energy in a method used by Stanford University… So:
We start with important electrical concepts Like (Current, Voltage, Power, and Energy)
Then we go through the different configurations of solar systems
Then we describe all the components of the solar energy system in details, starting with solar panels to generate energy and then charge controller which keeps current and voltage levels of this energy controlled and then we store this energy in batteries and finally we describe inverters which convert the DC into AC Current Used by the client…’
And the fun part starts here in the design process, where we will design both a battery-based system and on grid system.
Next, You will learn to design a full solar energy system using Microsoft Excel Software.
Finally, You will use PVsyst software for your solar energy design.
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Lifetime access to the course.
All the future updates I will be uploading.
Access to the student forum (where you can ask me any questions you have along the way and engage with other students).
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Upon finishing the course you get a "certificate of completion".