Top Virto.CAD Alternatives

RatedPower, a part of Enverus, is an end-to-end software solution for the development of large-scale solar PV, BESS, and hybrid renewable projects. Designed for energy professionals, it automates and optimizes the entire workflow—from land scouting and layout design to documentation and final engineering—saving time while improving accuracy. Its geospatial tools help users evaluate buildable sites by layering data like infrastructure, energy pricing, interconnection queues, and land ownership. RatedPower streamlines early-stage decision-making with precise site selection and access to locational marginal pricing insights. In the design phase, users can import topographic data to perform terrain analysis, simulate cut-and-fill volumes, and determine optimal layout configurations. The platform generates preliminary system designs with reliable energy yield estimates, SLDs, and Gen-Tie reports compliant with international engineering standards—essential for securing permits and financing. RatedPower also supports both standalone and hybrid battery storage projects, with features for capacity optimization and feasibility assessment. During detailed design, users can run batch simulations, manually tweak parameters like pitch or DC/AC ratio, and compare results using key performance and cost metrics. Finally, the software makes collaboration easy by exporting editable drawings, reports, and 3D models that integrate with tools like PVsyst, ensuring smooth transitions across project stages. RatedPower is the comprehensive digital partner for accelerating and scaling up renewable energy development.

PVcase Ground Mount is a software tool built on AutoCAD that facilitates the design of large-scale solar power plants. This application empowers solar engineers to cut down on costs while boosting reliability and enhancing the performance of solar installations. By utilizing realistic, terrain-focused PV layouts, it minimizes project uncertainties and helps avoid design mistakes. Even the best solar designs can suffer from high capital expenditure, so obtaining a clear cost breakdown from the outset is crucial. The software enables optimization of designs while evaluating potential shading challenges that could impact performance. Additionally, it simplifies the electrical design process through effective string mapping and strategic device placement. The platform also allows for easy downloading and sharing of key estimates such as cable runs and piling lengths among team members, promoting seamless collaboration. Furthermore, PVsyst provides the capability to export your solar design in a tailored format, ensuring compatibility with various project requirements. This combination of features makes PVcase Ground Mount an essential tool for efficient solar plant development.

solarVis is an all-encompassing platform tailored for the solar and renewable energy sector, empowering businesses to manage all facets of solar sales and project oversight within a single digital ecosystem. The platform encompasses tools for lead generation, project design, feasibility analysis, proposal development, customer relationship management, and installation tracking, facilitating solar companies to improve their workflows from initial customer engagement to installation completion. Key features include a 3D rooftop design tool that enables accurate solar layout planning, a multi-scenario analysis feature that evaluates technical and financial feasibility, and customizable proposal generators that prepare detailed project proposals for clients. Moreover, solarVis includes a materials database alongside bill of materials management, allowing teams to accurately compute costs, assemble equipment packages, and track the components employed during solar installations. This comprehensive solution not only enhances operational efficiency but also ensures that solar companies can successfully execute projects that align with customer expectations and sustainability objectives. By streamlining these processes, solarVis positions itself as an indispensable ally for businesses aiming to thrive in the competitive renewable energy landscape.

SunDAT provides an innovative web-based platform for the design of utility-scale and commercial solar photovoltaic systems. Utilizing advanced patented technology, it aims to enhance the Ground Coverage Ratio (GCR) and increase energy production, even in difficult terrain. The system efficiently navigates complex boundaries and obstacles, greatly streamlining the design workflow. By automating various tasks, SunDAT significantly boosts the efficiency of solar design processes, allowing users to easily locate steep slopes or areas within an array that may require grading or should be avoided. Furthermore, the software allows for the creation of visual heatmaps, which can be exported to PVsyst for in-depth analysis, along with facilitating pile length calculations with ease. It supports exporting project data in multiple formats, including PDF, DXF, and DAE, which enhances its compatibility with design programs like AutoCAD and PVsyst for additional refinement and assessment. SunDAT Web is specifically designed to cater to both large utility projects and commercial PV installations, ranging from expansive 150MW ground-mount systems to smaller 2 MW rooftop projects. With SunDAT, users can be confident that their solar designs are not only effective in energy production but also optimized for the best use of available land. This comprehensive tool is essential for professionals aiming to maximize their renewable energy initiatives.

LITIO 2.0 is a cutting-edge extension compatible with AutoCAD, GStarCAD, ZwCAD, and BricsCAD, created to adeptly calculate and generate flat sheet layouts for an array of duct configurations, including transitions from rectangular to circular shapes, cylinders, cones, intersections, connections, Ys, elbows, and beyond. Meanwhile, LitioLAB 1.0 acts as an advanced mathematical drawing application for AutoCAD, GStarCAD, and ZwCAD, allowing users to design complex forms such as 2D and 3D curves or surfaces that are not available through the standard commands of these platforms. If you're eager to elevate your expertise in AutoCAD, GStarCAD, or ZwCAD with enhanced drafting capabilities, import coordinate data from XLS files, and seamlessly produce intricate mathematical designs, LITIO 2.0 is the perfect solution for streamlining the creation of sheet metal components and patterns. This essential software not only boosts productivity but also broadens the range of creative options available in the realm of sheet metal design, empowering designers to bring their visions to life more efficiently than ever before. By incorporating these tools, users can explore new dimensions in their design processes.

PVSketch is an intuitive web-based application designed to streamline the development of solar energy projects. Its user-friendly interface allows sales representatives to access a detailed layout tool without requiring extensive prior knowledge. This cutting-edge tool significantly improves the visualization of solar solutions while delivering trustworthy energy modeling features. As part of the broader PVComplete ecosystem, PVSketch fosters effective collaboration among solar developers, installers, and engineers, enhancing both workflow efficiency and accuracy. Sales representatives can quickly kickstart projects online using PVSketch, which can then be seamlessly transitioned to PVCAD, an AutoCAD plugin, for comprehensive engineering design. By simplifying solar design, PVSketch empowers users to assemble complete solar projects in just five clicks. The platform's easy-to-use drawing tools ensure that anyone can achieve precise solar designs effortlessly. With a single click, users can generate a full layout, while those looking to enhance their projects further can refine their designs into more intricate configurations, raising the overall quality. Ultimately, PVSketch not only accelerates the early stages of solar project creation but also equips users with the tools to develop sophisticated and customized energy solutions. This capacity to adapt and modify designs makes PVSketch an invaluable resource for anyone involved in solar energy development.

Introducing an all-encompassing online platform designed specifically for solar industry experts, capable of revolutionizing your proposal development process entirely. Featuring a cutting-edge 3D design engine, dependable energy yield simulations, a comprehensive financial calculator, and an easy-to-use drag-and-drop proposal editor, HelioScope facilitates quick and effective responses to client requests. The platform boasts numerous features, such as 3D modeling, rapid proposal creation, reliable simulations, limitless design possibilities, real-time assistance, single line diagrams, automated CAD exports, one-click sharing, compatibility for systems up to 5 MW, an extensive library of 45,000 components, and global weather coverage with pan file support. Moreover, HelioScope empowers solar professionals to streamline their project management while ensuring exceptional accuracy and dependability. With this innovative tool, users can elevate their workflow and enhance client satisfaction significantly.

SolarEdge Designer is a free online resource tailored for professionals in the solar industry, aimed at substantially lowering the expenses linked to photovoltaic design while facilitating the creation of compelling client proposals. This comprehensive platform empowers users to design, build, and validate SolarEdge systems for both residential and commercial applications, spanning from the initial idea to the final installation, which is vital for securing sales. Users benefit from an efficient design workflow that integrates a variety of automated features, such as stringing, quick design validation, identification of various obstacles, and bulk mapping of Power Optimizer barcodes. Moreover, site layouts can be easily exported to the SolarEdge Monitoring Platform, streamlining project management. To enhance customer engagement, the tool generates persuasive proposals that include thorough reports and accurate energy simulations, independently verified by DNV GL. The financial analytics capabilities provide precise assessments of potential savings on energy costs and return on investment for system owners. Additionally, the platform includes an impressive 3D simulation of the project site, further enriching the visual appeal of the proposals presented. By leveraging this advanced tool, solar industry professionals can not only refine their sales techniques but also significantly boost client satisfaction and confidence in their offerings. Ultimately, this innovative solution stands to transform how solar projects are conceived and sold, paving the way for greater industry success.

BlueSol is an innovative global software solution tailored for the development of photovoltaic systems, allowing users to seamlessly transition from preliminary yield evaluations to the creation of detailed project documentation. Boasting a user-friendly Microsoft interface, BlueSol effectively streamlines the management of all facets involved in PV system design. It incorporates automated and optimized integration of essential components, including strings, inverters, panels, batteries, and cables. Moreover, the software generates calculations for radiation distribution maps across different regions and allows users to export system layouts in both DWG files and image formats. Users can also create interactive designs using internet mapping services and a 3D visualization option, significantly enriching the planning process. Additionally, BlueSol is available as a single installation that accommodates multiple languages, broadening its accessibility for a global audience. The extensive capabilities of BlueSol make it an indispensable resource for professionals engaged in the photovoltaic system design sector. Ultimately, its combination of features ensures that users can achieve optimal results in their projects.

The simulation tool that integrates shading impacts from adjacent buildings allows users to analyze optimal configurations and designs for solar modules before they are installed. It adeptly calculates the I-V curve reflecting the electrical characteristics of various solar products from different manufacturers, ensuring precision in its outputs. Additionally, it evaluates anticipated electricity production by considering the installation site’s geographic coordinates and climatic conditions, leading to remarkably accurate simulation results. The software further streamlines the process by automatically determining the necessary components for establishing a photovoltaic system based on the parameters defined by the user. It also supports simulations for power generation using half-cell modules, which can be conveniently added to the existing solar cell module database for later applications. This all-encompassing methodology guarantees that users are equipped with all the crucial instruments required to effectively enhance solar energy solutions, promoting a more sustainable future. Ultimately, the combination of these features makes the tool invaluable for both novice and experienced users alike.

T*SOL serves as a powerful simulation tool aimed at evaluating the efficiency of thermal solar systems. It is designed for multiple purposes such as heating domestic water, supplementing heating requirements, warming swimming pools, and providing process heat. By utilizing T*SOL, users can strategically plan and size their solar thermal setups, which includes considerations for storage options and collector layouts, even accommodating east-west roof orientations while also assessing the financial feasibility of these installations. At the beginning of your design process, a broad selection of pertinent systems is available to meet various heating requirements, including water heating, pool management, and process heat solutions. The software provides sizing recommendations throughout the design process and allows for adjustments to parameters, helping users identify the most efficient combinations of storage capacity and collector area. Additionally, it offers simulation results that display energy metrics, temperatures, and volumes in multiple graphical formats. Users can choose from various visualization options such as bar charts and line graphs, with the capability to modify the time scale from a single day up to a full year, enabling an in-depth examination of system performance across different durations. This extensive flexibility positions T*SOL as an essential tool for enhancing the design of solar thermal systems while also assisting users in making informed decisions on their installations. Ultimately, the comprehensive nature of T*SOL ensures that it remains a crucial asset for anyone looking to optimize their solar energy solutions.

BricsCAD stands out as the pioneering CAD design software utilizing the .dwg format, catering to all your design requirements with features that encompass 2D drafting, 3D modeling, and mechanical design capabilities. The BricsCAD® suite provides an economical, cross-platform CAD solution compatible with Windows, macOS, and Linux systems. Users can opt for a perpetual license suitable for either standalone or networked setups, and they have the option to include All In Maintenance for simplified software updates. Additionally, BricsCAD® offers a flexible rental plan, commonly referred to as "Subscription," for those who prefer not to purchase outright. For newcomers, existing knowledge of other CAD applications along with comprehensive LISP support can significantly ease the transition to BricsCAD®. The software employs advanced multi-threading to leverage modern high-performance processors and incorporates innovative machine-learning features that enhance drawing precision while conserving time. BricsCAD®'s compact architecture and impressive performance are a testament to its creators' unwavering emphasis on delivering top-quality software design, ensuring users have a seamless and efficient experience.

PV*SOL offers an exceptional array of configuration options and shading analysis specifically designed for photovoltaic systems. Users can evaluate solar energy production, size solar panels effectively, and carry out economic projections customized to their specific configurations. By leveraging sophisticated simulation models, informed design decisions become achievable. Furthermore, the software assists clients and partners in understanding the complexities of their solar setups by generating visually stunning and professional reports. It also supports the integration of financial incentives and complex tariff models, enhancing overall financial strategies. Experience the finest results with our leading product that utilizes state-of-the-art 3D technology for precise and realistic PV system designs. Our industry-leading software is the ideal choice for the swift and reliable development of photovoltaic systems. Additionally, you can delve into the functionalities of our solar calculation and PV power output software by accessing the free online version of PV*SOL. This initiative allows prospective users to test the software's effectiveness and capabilities before making any financial commitments, ensuring they make the best choice for their solar energy needs. Ultimately, exploring this free version can lead to a deeper understanding of how PV*SOL can benefit your solar projects.

Web Solar Cloud is a user-friendly online platform designed for the swift creation of solar project designs. This tool enables users to generate professional-grade solar layouts efficiently, making it accessible even for beginners in solar design. Additionally, the software compiles a comprehensive documentation package that fulfills local permitting requirements, which encompasses intricate solar panel arrangements and electrical schematics. This makes the entire process of solar project planning not only simpler but also more streamlined for users.

Civil Site Design is a global civil engineering software program that facilitates the design of roads, sites, and stormwater management systems. Users have the flexibility to utilize their preferred CAD software, such as AutoCAD, Civil 3D, or BricsCAD, while benefiting from the integration of design and drafting within a singular platform. Notably, this program pioneers the use of Artificial Intelligence, enabling it to generate design models automatically based on the input provided by users. Additionally, the software streamlines the design of intersections, cul-de-sacs, and roundabouts, featuring an extensive array of tools that assist in the reconstruction of roads and the management of stormwater and site development. This comprehensive approach enhances efficiency and accuracy in civil engineering projects.

Start by developing a preliminary design that outlines the module and inverter configuration along with the general layout. Progress this into a permit-ready design by following a simplified four-step wizard. You can define the installation site by utilizing aerial imagery or by importing a 3D model from platforms like EagleView or RoofOrders. Leveraging SolarDesignTool, you can swiftly create a photovoltaic system design and assemble a solar permit package in just 15 minutes. This permit package will include a variety of critical documents, such as a project overview, site layout, single-line diagram, PV safety labels, plans for attachments, details for support racking systems, a fire safety strategy, equipment specifications, and pertinent certifications. After finalizing the PV system design, generating the solar permit package becomes a straightforward task with the push of a button, facilitating a smooth transition to the required documentation. For a standard residential sloped rooftop using a commonly accepted racking system, the permit package will provide all necessary documents, ensuring compliance and readiness for the installation process. This efficient approach not only saves time but also enhances accuracy in the documentation, paving the way for a hassle-free installation experience.

A thorough evaluation of solar energy potential is crucial at the pre-feasibility phase of any project. Not only is it necessary to obtain trustworthy results, but the analysis must also be performed in a timely manner. Resources like Solargis's iMaps and pvPlanner provide rapid access to accurate solar yield predictions. The new Prospect tool further improves the accuracy of these forecasts while promoting collaboration throughout the solar project development stages. Among the various sources of solar data, Solargis is distinguished for its exceptional precision and dependability, a claim backed by numerous independent studies. This data has been validated in over 1,000 locations across the globe, with validation statistics for more than 180 accessible non-confidential sites showcased on the validation map. Additionally, while well-known simulation tools like PVsyst offer advanced features for designing systems and modeling energy, it is essential to recognize that the default weather data included may not always be reliable. Consequently, employing validated solar data is critical for maximizing project success, and leveraging such resources can significantly enhance overall project outcomes.

Boosting customer conversion rates becomes achievable with a sales cycle that employs TSL, streamlining the creation of high-performance photovoltaic designs. By harnessing automation and remote analysis, significant savings in both time and resources are realized. The platform boasts an advanced 3D modeling portal that conducts thorough shading analyses and facilitates the automated design of panel layouts. Users can effortlessly craft precise shapes using the polygon tool, which allows for intuitive structural design based on existing models. With the dimension tool, meticulous measurements are ensured as users can click and drag polygons while inputting dimensions with a simple tap of the tab key. Each sub-array, representing a group of panels within a specified area, can be customized to fit various rooftop configurations, including adjustable mounting heights to cater to specific requirements. The drag-and-drop functionality enhances usability, enabling users to add, delete, or reposition panels seamlessly within the SolarLabs interface. By merely clicking on the table, users can move panels to any preferred location on the roof, all while benefiting from a 3D view that guides the design process visually. This cutting-edge methodology significantly simplifies solar system planning and substantially improves design efficiency, making it an invaluable tool for professionals in the industry. Overall, this approach not only optimizes the workflow but also maximizes the potential for successful project implementations.

GeoT*SOL offers detailed minute-by-minute simulations for heat pump systems, facilitating the evaluation of yearly performance metrics such as the coefficient of performance (COP) and the financial implications tied to their operation. Moreover, these systems can seamlessly integrate with a variety of heat sources, such as gas condensing boilers and solar energy systems. Users have the flexibility to select from multiple operational configurations, including monovalent, monoenergetic, and bivalent modes. The annual performance factor according to VDI 4650 is an important criterion for assessing the effectiveness of different systems. This metric plays a vital role in numerous financial assistance initiatives and regulatory approvals, ensuring compliance with necessary standards. Additionally, GeoT*SOL assesses the financial viability of the system by adhering to the guidelines established by the Federal Association of the Solar Industry (BSW), allowing for a comparison of heat pump expenses against alternative solutions. It also analyzes capital investment and production expenses, including the cost of heating, alongside the modified internal rate of return (MIRR), which factors in both profit margins and reinvestment possibilities. In summary, this tool delivers an exhaustive evaluation that empowers users to make well-informed choices regarding their heating solutions. As a result, it plays a significant role in optimizing both energy efficiency and financial outcomes for users.

Almost all professionals in the solar industry, specifically 98%, conduct technical evaluations at the site before construction begins, with over half completing this step prior to closing a sale. However, despite their diligence, solar companies frequently spend countless hours using ladders and taking manual measurements on rooftops, which can delay project timelines, reduce accuracy, and increase safety risks. By utilizing drone technology combined with sophisticated 3D modeling, Scanifly’s solar design software can dramatically decrease the need for rooftop inspections, potentially slashing onsite time by up to 90%, while also improving design accuracy to avoid expensive redesigns, change orders, or installation delays. Conventional tools such as ladders, tape measures, and handwritten notes may lead to inaccuracies and mistakes due to the reliance on approximations. In contrast, the use of drones and 3D modeling technology streamlines the entire process, enhancing both efficiency and safety while increasing design precision. By capturing images with your drone in JPEG format, you can digitize multiple elements of the project. Additionally, this cutting-edge technology automatically creates scaled 3D models of the intended sites, offering a thorough perspective for solar project planning. This advancement not only simplifies the workflow for solar companies but also allows for more informed decision-making throughout the project lifecycle.

Solarius PV proficiently evaluates the effects of solar shading caused by far-off obstructions such as mountains, hills, buildings, and trees through a simple photographic survey combined with the solar diagram tailored for the specific installation site. Furthermore, it allows users to analyze the shadows cast by nearby structures like chimneys, walls, and antennas on photovoltaic modules, which can affect the system's layout as the sun's position shifts throughout the year, month, day, or even hour. Additionally, the tool automates the management of shadow projections between parallel rows, ensuring that the spacing of modules is optimal across various surface orientations, be they horizontal, vertical, or tilted, which ultimately improves the overall performance of the system. By offering these capabilities, Solarius PV streamlines the design process and enhances energy efficiency, making it an invaluable resource for solar energy projects. This approach not only simplifies the planning phase but also contributes significantly to maximizing energy generation potential.

Photovoltaic systems exhibit a broad range, from compact setups on home rooftops to large-scale utility projects that span vast areas. Concentrating Solar Power (CSP) systems serve the purpose of electricity generation and come in different configurations, including parabolic troughs, power towers, and linear Fresnel systems. Many of these projects are supported by power purchase agreements (PPAs), which link the energy systems to the electrical grid at specified interconnection points, enabling the monetization of electricity through sales. The ownership structure of such projects can vary, with options for individual ownership or collaborative partnerships that might involve flip or leaseback agreements. In some cases, a third-party ownership model is adopted, where the solar installation is located on a customer's property, yet the ownership remains with an external developer who pays the property owner for the generated electricity, usually through a PPA or lease. This approach not only encourages the wider adoption of solar technology but also creates financial benefits for property owners willing to engage in sustainable energy practices. As a result, these diverse ownership models contribute to the overall growth and accessibility of renewable energy across different sectors.

PV Designer software stands out as an ideal solution for residential and smaller commercial energy systems, enabling users to easily outline roofs, configure set-back and keep-out zones, and incorporate SunEye shading data accurately on rooftops. Its intuitive features allow for simple dragging and dropping of modules, string sizing, inverter capacity checks, and AC energy output calculations, greatly enhancing the design workflow. The application comes with extensive global databases that include information on modules, inverters, and historical weather trends, positioning it as a flexible resource. Users can test different design scenarios and compare their AC kW-hr outputs side by side, facilitating the identification of the most effective design. While particularly designed for systems around 15 kW, it is also capable of handling larger projects up to 100 kW. The software's intuitive interface makes it accessible for beginners in solar design, while still offering the detailed analysis typically found in more advanced engineering applications. This fusion of ease of use and powerful capabilities establishes PV Designer as a remarkable asset in the field of solar design, appealing to both novices and experienced professionals alike. Furthermore, the ability to simulate real-world conditions enhances the decision-making process, making it an invaluable tool for optimizing solar energy systems.

Our goal is to hasten the transition to sustainable and eco-friendly energy solutions. To make this happen, we plan to provide user-friendly photovoltaic (PV) design software specifically designed for solar installers, engineers, wholesalers, and manufacturers. This fresh perspective facilitates the quick and effective establishment of solar parks and related projects. With this ambition, we are dedicated to developing advanced and accurate software tools that meet industry needs. Furthermore, we understand the importance of ensuring our software integrates smoothly with current workflows. We aim to cultivate a cooperative atmosphere for engineers in the photovoltaic industry. Our design software streamlines the engineering processes for solar PV projects by automating repetitive tasks like the generation of 3D models. As a result, users can avoid the laborious task of manually drafting these models, which conserves precious time. This efficiency leads to faster and more accurate drawings for initial construction site designs, ultimately enhancing project productivity. As our company evolves, Kim Eyckmans launched his engineering career at a prominent solar EPC firm in the BENELUX region, where he acquired essential knowledge about the sector. This experience has been a driving force behind our commitment to innovate and effectively contribute to the renewable energy landscape, ensuring a brighter and more sustainable future.

Nest3D is an advanced point cloud processing platform built to accelerate scan-to-CAD workflows for surveying and drafting teams. It enables rapid conversion of point cloud data into accurate, production-ready DWG drawings. Users draft directly from 360º LiDAR-backed panorama images, reducing reliance on slow manual tracing. Nest3D integrates seamlessly with AutoCAD, BricsCAD, and ZWCAD, preserving native DWG workflows. Existing templates, layers, blocks, and linetypes are automatically applied for consistent results. The software supports E57 and FLS files from terrestrial and mobile SLAM scanners. One-click feature extraction minimizes drafting time while maintaining high precision. Teams experience fewer errors and less rework due to standardized outputs. Nest3D supports collaborative workflows across machines and distributed teams. It significantly increases drafting capacity without increasing headcount. Surveyors gain clearer site understanding and faster turnaround times. Nest3D delivers a streamlined, end-to-end solution from scan capture to finished CAD drawings.

Glint Solar offers a cutting-edge cloud-based software platform tailored for the analysis, design, and development of early-stage utility-scale solar projects, enabling developers and interdisciplinary teams to effectively screen, prioritize, and evaluate numerous potential solar locations by leveraging integrated GIS and topographic information, satellite imagery, and engineering-approved yield and feasibility tools along with 3D visualizations. This comprehensive platform empowers users to assess viable construction areas, pinpoint exclusion zones, evaluate grid connections, and generate high-quality visuals that aid in securing permits, improving stakeholder communication, and guiding internal decision-making. By consolidating all project information into a shared workspace, Glint Solar enhances collaboration among business development, GIS, and engineering teams, reducing time wasted on non-viable sites and accelerating project timelines through quick scenario updates and accurate reporting, eliminating the need for disparate tools or tedious manual processes. Additionally, its intuitive interface allows team members to easily adapt to evolving project needs, further optimizing the development workflow. This approach not only boosts efficiency but also fosters a more agile environment that can respond to the dynamic nature of solar project development.

BAESS Labs is an AI-driven solar design and project intelligence platform engineered for solar professionals, EPCs, and consultants. It centralizes the full lifecycle of solar development—from concept definition to final proposal—within a single, streamlined interface. Users begin by entering project location and capacity, after which the AI suggests optimized system configurations automatically. The Smart PV Designer allows visual module placement with shading analysis and real-time layout optimization to maximize performance. An AI-powered Bill of Quantities engine instantly generates detailed component lists and pricing breakdowns, reducing hours of manual estimation work. Integrated energy simulation tools provide hourly production forecasts using localized weather data and performance ratio calculations. Financial analytics modules calculate ROI, IRR, NPV, and cash flow projections while producing executive-ready reports. The AI credit system ensures transparent, flexible usage across features like BOQ generation, executive reports, and design assistance. Tiered plans accommodate individual professionals, growing firms, and enterprise organizations with options for API access, team collaboration, and white-label capabilities. With claims of saving up to 95% of design time, BAESS Labs significantly accelerates project turnaround. Professional reporting tools help users present polished proposals that improve client confidence and approval rates. By combining automation, data intelligence, and real-time optimization, BAESS Labs transforms traditional solar design workflows into a faster, smarter, AI-powered experience.

Archelios PRO serves as an all-encompassing simulation and design tool specifically designed for experts in the photovoltaic field, offering a cohesive approach to every facet of solar project development. This innovative software allows users to meticulously design, size, simulate, and manage photovoltaic systems with exceptional precision and effectiveness. By utilizing cutting-edge technology, Archelios PRO significantly boosts the energy efficiency and financial gains of solar projects while complying with crucial regulatory and technical requirements. The platform also includes powerful features for optimizing self-consumption, ensuring that the produced energy is used effectively on-site. Additionally, Archelios PRO is supported by a dedicated technical assistance team and receives regular updates, ensuring that users remain informed about the latest trends and advancements in the ever-evolving solar industry. This dedication to continuous improvement not only enhances the overall user experience but also empowers professionals to adapt more readily to the shifting dynamics of the energy sector. Ultimately, Archelios PRO stands out as a vital resource for those committed to maximizing the potential of solar energy solutions.

SolarPlus is an all-encompassing software solution tailored for solar design, designed to help you acquire more customers, streamline processes, and enhance profitability. With SolarPlus V4, you can concentrate on critical activities like leading your team, closing deals, and managing all administrative tasks related to solar installations from a single platform. This version represents a significant advancement in energy modeling, allowing users to analyze comprehensive generation data, grid interactions, and energy demand. Furthermore, SolarPlus alleviates the burden of compliance by facilitating standard-compliant PV design and producing necessary handover documentation. Our cutting-edge RoofMap tool provides exceptional visualization and control over panel layouts, ensuring optimal designs for every project. You have the flexibility to select from various tariff options or create a customized tariff that aligns with your customers' billing needs. Additionally, you can evaluate both current and proposed tariff recommendations, accommodating different structures that include single or time-of-use rates, block pricing options, and maximum demand strategies. This comprehensive approach positions SolarPlus as an indispensable asset for solar professionals seeking to thrive in a competitive market.

Our innovative platform significantly enhances sales and the execution of projects, delivering superior solar and energy storage solutions. Among its standout features are remote design capabilities that utilize satellite imagery, detailed proposals that include accurate pricing and energy assessments, and integrated tools for project management. A highlight of our offering is the customer-facing application, which stands out in the market by validating expected performance and cost savings. Other functionalities include tracking solar and storage power flow, calculating utility bill savings, and ongoing performance monitoring. The platform is designed to accommodate various workflows, facilitating team collaboration and effective task delegation. By harnessing high-resolution satellite imagery, users can effortlessly create layouts for both residential and commercial projects. Improve your sales approach with visually compelling and precise proposals that lead to faster deal closures. Moreover, manage projects efficiently to ensure they are completed swiftly while surpassing client expectations. This comprehensive suite of features positions our platform as an essential tool for businesses operating in the renewable energy industry, driving both efficiency and success. As the demand for renewable energy solutions grows, our platform remains at the forefront, continually evolving to meet the needs of our clients.