PVcase product updates: summer edition

PVcase Ground Mount 3D solar power plant layout design exported as a KML file into Google Earth satellite view.
Max HailerContent project manager
June 30, 2026
PVcase Products

PVcase Summer Updates are here, bringing faster workflows, enhanced 3D capabilities, and greater modeling accuracy across PVcase Prospect, PVcase Ground Mount, and PVcase Yield.

PVcase Prospect

Capacity reporting optimization

PVcase Prospect capacity reporting optimization feature showcase showing a 3D rendering of multi-page capacity reports

Generate and analyze multi-scenario capacity reports instantly.

You can now generate Capacity Reports directly from the Evaluate Capacity sidebar's Total Cost flow. This direct integration is a streamlined enhancement that enables users to efficiently analyze the Total Cost of Upgrades for a Point of Interest (POI) across multiple scenarios.

Automatically find data center sites based on proximity to grid, fiber, and gas

PVcase Prospect parcel search interface mapping colored fiber optic and gas lines over Appomattox satellite imagery

View operational fiber and gas infrastructure overlaid directly onto local parcels.

Site selection just got much faster with the seamless integration of RexTag fiber and gas data into your parcel searches. You can now filter parcels by their proximity to operational assets, set configurable distances (e.g., 0.5 miles), or search within custom-drawn polygons. This eliminates tedious manual workarounds, such as adding non-viable parcels to projects just to cross-reference separate datasets, thereby significantly reducing time-to-shortlist.

Automated pipeline hazards for buildable area analysis

PVcase Prospect buildable area analysis user interface showing automated pipeline hazard settings for CO2 pipelines, featuring a dropdown menu for operational status configurations including abandoned, canceled project, idle, operational, retired, and under development, along with a setback distance input field supporting measurement units in centimeters, feet, kilometers, miles, yards, and meters.

Configure custom setback distances and set specific hazards in the buildable area analysis menu.

Rextag pipeline data is now integrated into the Buildable Area Analysis (BAA), providing specific hazard settings and setback controls based on pipeline commodity types and operational status (e.g., distinguishing between "Operational" and "Abandoned"). By automating this process, developers and site feasibility analysts completely eliminate the need for manual pipeline tracing, resulting in highly accurate site maps and buildable area calculations. 

PVcase Ground Mount

Seamless workflow with inverter sizing

PVcase Ground Mount inverter sizing user interface displaying two panels: an inverter sizing menu showing PV module manufacturer and model, inverter manufacturer and model, and configuration parameters including location temperature and string size; alongside a DC/AC ratio matrix graph with string size on the y-axis and strings per inverter on the x-axis, featuring four green dots indicating the selected ratio and a wide square defining the recommended design range.

Instantly verify PV module and inverter compatibility.

You can now check the compatibility between PV modules and inverters directly within PVcase Ground Mount. The update centralizes the sizing process into a streamlined workflow, eliminating the need for other tools or manual spreadsheets. Furthermore, our new compatibility tool accounts for detailed electrical characteristics, MPP distribution, and localized temperature conditions to ensure significantly more accurate string sizes, electrical design settings, and cabling parameters.

Component Database

Animated GIF of the PVcase Ground Mount component database interface showing a cursor selecting between cloud database tracking and manual data input; the cloud database tab features dropdown selections for certified manufacturer models and real-time certified equipment specifications, while the manual input tab displays custom fields for module length, height, width, and physical dimensions.

Pull certified, real-time specifications from a central cloud database.

You can now pull certified, real-time data for modules and inverters directly into your project from a centralized cloud database. The update centralizes approved equipment specifications into a unified platform, eliminating abstract guesswork and reliance on external workarounds like shared spreadsheets. Furthermore, our new automated component selection realistically calculates your needs to ensure a 50% faster workflow and significantly more accurate engineering outputs across all teams 

AutoCAD 2027 compatibility

AutoCAD 2027 logo featuring a white letter A icon inside a red square with a subtitle reading version 2027, overlaid on a blurred background screenshot of an active AutoCAD project grid displaying engineering layout lines.

PVcase is compatible with AutoCAD 2027. Adopting the latest 2027 release doesn't mean leaving your old workflows behind, as we proudly maintain legacy support for AutoCAD 2026 and earlier versions. 

Construction precision with 3D electrical design

A 3D design from PVcase Ground Mount showing a utility-scale East-West solar panel layout grid with a close-up focus on electrical components rendered as elevated 3D blocks mounted directly onto the structure beneath the solar modules.

Visualize electrical infrastructure as 3D blocks mounted directly on frame piles.

You can now transform inverters, DC combiners, and AC combiners into elevated 3D blocks mounted directly on frame piles. The update centralizes device setup into a unified Configuration Modal with visual previews, eliminating abstract guesswork. Furthermore, our new 3D-aware cable routing realistically calculates both horizontal and vertical segments to ensure significantly more accurate Bill of Materials (BOM) and cable sizing outputs. 

Eliminate manual stringing inefficiencies

Top-down grid view screenshot from PVcase Ground Mount showing two solar module arrays with green colored electrical stringing lines; the display demonstrates automated continuous stringing where four modules are wired sequentially while a leftover module in each array is managed as an unstrung component with a custom S-shaped wiring configuration.

Eliminate electric design inefficiencies using continuous stringing tools.

Our new continuous stringing feature automates the electrical design process by populating rows based on your defined minimum and maximum string sizes. When encountering tricky leftover modules, the system seamlessly manages them by allowing you to leave them unstrung, draw S or U-shaped strings, or jump to the next row. By automatically prioritizing larger string sizes, this feature provides built-in cost optimization to keep your designs as efficient and cheap as possible.

Enhanced visual clarity for design presentation

When exporting a KML file from PVcase Ground Mount, the software now preserves your specific layer and object colors. This distinct visual clarity carries over seamlessly into viewing tools like Google Earth, making your exported designs and proposals much easier for stakeholders to navigate, recognize, and interpret.

Please note: These features are available starting with version 2.62. Be sure to update PVcase Ground Mount to access them.

PVcase Yield

15-min sub-hourly simulations

PVcase Yield energy production simulation user interface menu showing calculation settings with tabs for TMI, Month, and Day alongside a time resolution configuration set to 15 minutes. Below the settings, two performance data graphs are displayed: the top chart illustrates AC energy yield measured in kilowatt-hours per kilowatt-peak (kWh/kWp), and the bottom chart tracks layout AC energy per month and hour. The workspace includes functional utility buttons for exporting the multi-scenario analytical results into PDF and other file formats.

Model energy output with sub-hourly accuracy using 15-minute resolution metrics.

Model solar energy production with unprecedented accuracy by uploading custom CSV weather files containing 15-minute interval data (35,040 rows per year) directly into PVcase Yield. Powered by a fast cloud-computation engine that effortlessly handles massive datasets without slowing down your computer, this feature is critical for avoiding underestimated inverter clipping. It provides the granular precision needed for accurate battery dispatch modeling and complex system designs with high DC/AC ratios. 

Single-run multi-module simulations

PVcase Yield layout and electrical user interface menu focusing on multiple module power classes with a navigation sidebar highlighting options for layout losses, grid probability, and simulation; the main display shows a single simulation configuration combining a single tracking layout with two distinct module types labeled bifacial module A and module B alongside a selected inverter and transformer configuration options, completed with unified execution buttons to start calculation or cancel.

Run yield simulations containing multiple tracking module types simultaneously.

You can now define multiple module types within a single layout and run a unified simulation to assess their combined performance. This effectively eliminates the tedious workaround of splitting a project into separate files and manually recombining the data, accurately reflecting real-world design constraints like supply shortages or space optimization.

Advanced MV/HV loss modeling

PVcase Yield user interface screen showing the post-inverter AC loss calculation menu under project losses, displaying independently configurable toggle options for module current mismatch loss, cable loss long-term, and liquidation loss; inverter specific toggles include inverter efficiency loss, inverter clipping loss, and inverter night consumption loss, while the AC losses section displays electricity consumption loss, MV cabling loss, MV transformer loss, HV cabling loss, HV transformer loss, and system unavailability loss.

Model your design's AC losses with higher precision configuring MV and HV stages independently.

We have enhanced post-inverter AC loss modeling by decomposing the loss chain into distinct, independently configurable Medium Voltage (MV) and High Voltage (HV) stages. Users can independently define MV and HV transformers and toggle specific losses for MV/HV cabling. To ensure smooth sailing, the system also actively validates compatibility across your inverters and transformers to prevent voltage configuration errors.

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See the new updates in action

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