Use the comparison tool below to compare the top Solar Design software on the market. You can filter results by user reviews, pricing, features, platform, region, support options, integrations, and more.
ENACT Systems
$199 per monthVirto Solar
3.000$ - 4.500$RETScreen International
$869 per yearThe Solar Labs
$39 per monthPVComplete
$50 per monthSunDAT
$2,000 per yearLyra Solar
$49 one-time paymentFolsom Labs
$79 per monthPV*SOL
€895 one-time paymentWeb Solar Cloud
$20 per monthARKA 360
$ 1,699 per yearACCA Software
$ 8.24 per monthPVComplete
$180 per monthSolarEdge
PVComplete
$295 per monthSolargraf
$229 per monthSighten
$199 per monthLaplace Systems
Valentin Software
SolarDesignTool
$50 per user per monthVirto.solar
Maui Solar Energy Software
Solar design software is aN application designed to help with the technical aspects of designing a photovoltaic system, also known as a solar electric system. The software assists in sizing, optimizing and modeling systems, selecting components and calculating total costs. Solar design software enables users to adjust for site-specific parameters such as azimuth orientation and tilt angle of solar panels, available roof or ground space size, number of days of sunshine per year in the location and other variables. This allows them to get accurate results based on actual conditions instead of using averages.
There are many different types and versions of solar design applications available on the market today. Some are web-based and others are downloadable programs that can be installed on your computer or mobile device. Depending on which version you choose, you may have access to features such as detailed component selection and analysis tools, automatic shading calculations based on local weather data or geolocation mapping functions that allow you to see how much sunlight an area gets at certain times of day/year. Other features might include 3D model simulations to demonstrate how various elements will interact with each other in a given system configuration or engineering worksheets that provide additional industry-standard data such as I-V curves for estimating panel efficiency under varying conditions.
Solar design software usually comes with some level of technical support from the developers if needed. Additionally, some providers offer online classes or tutorials so users can better understand their product’s capabilities before investing time into using it for their projects. It’s important to compare different options carefully since each type offers its own unique set of features and benefits tailored towards specific needs or preferences (for example comparing cost effectiveness versus ease-of use). With the right program in place however, even novice engineers can become proficient quickly in creating PV designs that meet expected performance standards up front without costly delays during installation later down the line.
Solar design software is an important tool for those who design, install and maintain solar energy systems. It makes the entire process of designing a solar energy system easier and more efficient by helping users to virtually plan their installations to optimize the benefits they get from their system.
One of the biggest advantages is that it reduces the chance of errors in a project due to its ability to provide detailed calculations and simulations of installations before construction begins. It also allows users to make adjustments as needed without having to physically alter materials or equipment on-site. This saves time, money and effort during installation, especially when there are changes required in order to meet customer needs or environmental requirements.
It's also great for visualizing how a completed installation would look before any physical work begins. Solarview 3D, for example, produces 3D models which can show shadows changing throughout the day, allowing users to accurately predict yields for each individual module even with large installations. These modelling tools allow designers to size arrays correctly according to budget constraints as well as analyze shading issues from nearby features such as trees or other buildings.
Finally, solar design software is useful for analyzing performance over time by providing predictive maintenance information regarding accumulated faults in array configurations or modules going off peak production levels after long periods of operation in challenging environments - something that would be impossible without it. In this way, solar design software helps users get the most out of their solar investments and keep them running reliably over many years.
The cost of solar design software varies greatly depending on the type and features of the program. Basic programs can range anywhere from free or low cost up to thousands of dollars, while more advanced packages tend to be significantly more expensive. Solar design software solutions typically come with an annual subscription fee or a one-time purchase price plus any additional fees related to installation/customization if applicable. Generally, these subscriptions last 3-5 years and they may include upgrades and service support as part of the package deal. Some vendors offer customized solutions that are tailored specifically for certain types of projects, such as commercial or residential applications which may require added features and services than the “off-the-shelf” versions. Other factors that influence pricing include the type of user interface (desktop vs web-based), number of users, scalability options (for larger systems), compatibility with other platforms, ease of deployment and integration capabilities with existing infrastructure. Therefore it is important for organizations to shop around for different solutions, evaluate their needs in terms of features and services offered by each option before making a final decision on which tool best fits their requirements as well as their budget.
Solar design software is capable of integrating with a wide variety of other types of software. For example, building information modeling (BIM) and geographic information systems (GIS) can be used to provide additional geospatial information on the site to design a more accurate solar system. Additionally, weather forecasting software can be integrated to help designers predict changes in wind speed and average temperatures as part of their calculations. 3D modeling programs such as SketchUp or Revit can also be incorporated into the designs for photorealistic visuals models from which decisions concerning the final design can be made. Financial modeling or energy audit tools may further enable simulation of how the energy generated by a system will impact an organization’s bottom line over time. Finally, customer relationship management systems or enterprise resource planning solutions may also be connected with solar design software in order to better track customer communication, project resources, and financial data related to each solar project.
When considering a solar design software, it is important to ask the following questions: