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Environment EnergyTop 10 Best Eclipse Solar Software of 2026
Top 10 eclipse solar software roundup ranks Polysun, OpenSolar, and Aurora Solar with clear criteria and tradeoffs for solar teams.
How we ranked these tools
An editor sets the topic, the inclusion criteria, and the evaluation framework before research starts.
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Framework: Features 40% · Ease 30% · Value 30%
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Polysun is the best fit for multi-site eclipse planning when you need clear, contact-timing simulation across PV, solar thermal, and heat pumps, while OpenSolar is the cheapest entry for installer teams that want repeatable, location-specific timing outputs for schedules and reporting.
Editor’s top 3 picks
Three quick recommendations before you dive into the full comparison below — each one leads on a different dimension.
Polysun
Topocentric eclipse planning that ties contact timing, obscuration expectations, and track visualization to a specific observing station.
Best for: Fits when multi-site eclipse operations need local visibility windows with contact-timing clarity.
OpenSolar
Editor pickObserver-centered visibility and contact timing generation tied to geolocated inputs and track visualization.
Best for: Fits when field teams need repeatable, location-specific eclipse timing outputs for schedules and reporting.
Aurora Solar
Editor pickProject reporting ties scenario outputs to the same design context used for proposals and performance updates.
Best for: Fits when solar teams need eclipse scenarios mapped to project deliverables and ongoing performance narratives.
Comparison Table
Polysun
vertical specialistSimulation software for PV, solar thermal, and heat pump systems.
Topocentric eclipse planning that ties contact timing, obscuration expectations, and track visualization to a specific observing station.
Polysun centers eclipse prediction on topocentric coordinates, so results incorporate observer altitude and azimuth context instead of relying only on geocentric timing. The visualization layer can show the eclipse track relative to a chosen observing location, which reduces ambiguity when deciding whether a site sits in the central line corridor. Core planning outputs include contact-event timing and obscuration expectations for the selected site and time window.
A practical tradeoff is that accurate outcomes depend on having correct observer coordinates and time handling set for each site, because the tool does not fix bad inputs. Polysun fits best when an operations team needs repeatable eclipse runbooks across multiple observing stations where contact timing accuracy and coverage verification drive the schedule.
- +Station-specific eclipse timing outputs connected to observatory context
- +Track visualization helps validate whether a site intersects the main path
- +Repeatable scenario runs support multi-site planning workflows
- +Obscuration planning outputs support scheduling for instruments and staff
- –Input accuracy for location and time handling strongly affects outputs
- –Some planning steps require deeper solar modeling configuration
- –Less suited for teams that only need a quick local contact time
- –Automation depth is stronger for workflows than for fully custom APIs
Eclipse operations teams
Create station runbooks across multiple sites
Fewer scheduling errors
Observatory directors
Verify site suitability before travel
Clear go or no-go calls
Show 2 more scenarios
Solar analytics staff
Reproduce scenarios for recurring campaigns
Faster scenario turnaround
Run consistent eclipse planning inputs across future events without rebuilding templates.
Field technical leads
Coordinate instruments during eclipse sequence
More reliable capture sequencing
Translate predicted contact timing into a timing plan for mounts and cameras.
Best for: Fits when multi-site eclipse operations need local visibility windows with contact-timing clarity.
OpenSolar
SMBFree solar design and proposal platform for installers.
Observer-centered visibility and contact timing generation tied to geolocated inputs and track visualization.
OpenSolar is a strong fit for teams that need observer-specific eclipse ephemeris and timing results for multiple locations in the same eclipse season. It supports local circumstances calculations and produces viewing-oriented visualizations that help compare central line proximity and event timing across sites. It also supports automation through exportable prediction outputs that reduce manual copy work for recurring monitoring tasks. The integration surface is practical when an internal process already consumes generated timing and track artifacts.
A key tradeoff is that OpenSolar concentrates on eclipse prediction and visualization rather than broader solar asset analytics. It is best used when the workflow needs accurate first through fourth contact windows for specific observing sites and when reporting must be consistent across runs. Teams planning field logistics or coordinating observation windows usually get the highest value from repeated scenario generation rather than exploratory, ad-hoc modeling.
- +Observer-specific eclipse predictions from site coordinates and time windows
- +Eclipse track visualization supports quick comparison across candidate locations
- +Exportable outputs fit recurring reporting and operational scheduling
- +Consistent run behavior helps standardize monitoring across teams
- –Visualization depth can require domain knowledge for advanced interpretation
- –Automation depends on external handling of exported artifacts rather than native APIs
- –Limited coverage of broader solar asset monitoring workflows
Field operations teams
Schedule observation windows by location
Fewer timing mistakes in the field
Science outreach coordinators
Coordinate events across multiple venues
Aligned events across venues
Show 1 more scenario
Analyst teams
Run repeat prediction scenarios
Consistent monitoring documentation
Repeat eclipse condition runs for different coordinates and export results for internal reporting.
Best for: Fits when field teams need repeatable, location-specific eclipse timing outputs for schedules and reporting.
Aurora Solar
enterpriseEnd-to-end solar design and sales platform.
Project reporting ties scenario outputs to the same design context used for proposals and performance updates.
Aurora Solar fits eclipse-related performance monitoring when solar teams need site context to drive what to measure and how to present it. The workflow is centered on project design and reporting artifacts, which keeps outputs linked to the same locations and system assumptions used elsewhere. It supports adjustment-driven iterations, so changes to assumptions reflect across the project deliverables used for stakeholder review.
A tradeoff is that the eclipse-specific math layer is not the product’s main focus, so deep control over specialized prediction inputs can be limited compared with astronomy-first tools. Aurora Solar works best when eclipse events are a driving scenario for monitoring plans, and the primary need is connecting event timing to solar asset reporting and project deliverables.
- +Project-linked outputs reduce duplication between analysis and client deliverables
- +Configurable site and system assumptions support consistent monitoring plans
- +Collaboration workflows keep eclipse scenarios tied to the same design context
- +Export-ready reporting reduces manual formatting for stakeholder review
- –Limited depth for specialized eclipse-only parameters and shadow modeling
- –Advanced automation requires workarounds outside the core design workflow
Solar sales and design teams
Client proposal planning for eclipse events
Faster client-ready reporting
Project engineering teams
Monitoring plans tied to site designs
Lower analysis rework
Show 1 more scenario
Operations and reporting teams
Event-driven performance status packs
Consistent performance updates
Operations teams produce structured deliverables that connect eclipse scenarios to solar asset context.
Best for: Fits when solar teams need eclipse scenarios mapped to project deliverables and ongoing performance narratives.
SolarEdge Designer
vertical specialistWeb-based solar design tool optimized for SolarEdge hardware installations.
SolarEdge system-aware design configuration that keeps optimizer and inverter assumptions consistent during layout and shading setup.
SolarEdge Designer is an Eclipse solar design workflow in which module selection and layout generation are driven by SolarEdge system constraints and shading inputs. It can produce design-time outputs tied to SolarEdge inverters and optimizers, which helps teams keep electrical assumptions aligned with deployment.
- +SolarEdge-specific constraints reduce mismatch between design assumptions and hardware limits
- +Design-time layout and shading inputs support eclipse scenario planning workflows
- +Configuration is guided toward SolarEdge optimizer and inverter compatibility
- +Outputs map cleanly to downstream SolarEdge installation documentation
- –Eclipse-focused modeling depth is limited compared with dedicated eclipse track simulators
- –Results depend on accurate site inputs, especially shading and geometry entry quality
Best for: Fits when Eclipse planning requires SolarEdge-aligned design consistency for installation and review.
SolarDesign
SMBCloud-based platform for PV system design and proposal generation.
Contact timing refinement via limb correction controls that update geometry and timing outputs for each observing location.
SolarDesign generates eclipse solar prediction outputs from specified observing locations and time windows, with emphasis on local circumstances and contact timing accuracy. It produces eclipse track visualization layers that support umbra shadow track interpretation across geography.
- +Local circumstances inputs drive contact timing outputs
- +Eclipse track visualization supports umbra interpretation across locations
- +Limb correction controls adjust computed timing and geometry
- +Export formats support reuse in downstream reporting
- –Model parameter tuning requires careful setup discipline
- –Automation depends on exported artifacts rather than a full API workflow
Best for: Fits when teams need location-driven eclipse timing and track outputs for repeatable monitoring workflows.
Solargis
API-firstSolar resource data platform providing historical, real-time, and forecast irradiance data via API and web tools.
Time-based contact prediction workflow that couples eclipse ephemeris with site-level timing outputs for multi-site operations.
Solargis is an eclipse-solar workflow tool that focuses on turning eclipse ephemeris and local circumstances into planning outputs for observing and reporting. It provides eclipse track visualization inputs and time-based predictions that align with local observing constraints.
- +Eclipse track visualization inputs support consistent planning across locations
- +Outputs emphasize time-based obscuration results tied to local circumstances
- +Repeatable workflow reduces manual recalculation across an eclipse season
- +Integration options fit organizations that coordinate multiple observing sites
- –Requires careful input hygiene for ΔT and lunar limb profile assumptions
- –Automation and API depth lag specialist observation-calc workflows
Best for: Fits when eclipse observing teams need repeatable local planning outputs with track visualization and timing consistency.
Scanifly
SMBDrone-based solar site surveying and design platform that generates accurate 3D models and permit-ready plans.
Location-bound eclipse track visualization and contact timing checks in one planning workflow.
Scanifly focuses on eclipse planning through automated local predictions and a visual workflow that ties observing locations to timing and coverage views. The product’s core output is eclipse track visualization plus contact-timing checks for specific places. Scanifly also supports exportable observation artifacts so field teams can share planning results without rerunning calculations.
- +Local observing inputs produce contact timing and viewing windows quickly
- +Eclipse track visualization helps validate whether a location sits on the central path
- +Exportable planning artifacts reduce rework for shared observing groups
- +Workflow keeps prediction results tied to location rather than separate calculators
- –Automation and API access are not clearly documented for external integrations
- –Advanced modeling controls for limb correction and ΔT are limited in the default workflow
- –Shadow band simulation depth is not presented as a primary configurable feature
- –Geographic accuracy depends on precise location entry without a clear validation step
Best for: Fits when small observatory groups need location-specific eclipse planning with shareable outputs.
SolarAnywhere
API-firstSolar irradiance data and forecasting service from Clean Power Research for system design and performance monitoring.
Contact timing and visibility outputs tied to local circumstances, packaged for quick observer and event briefings.
SolarAnywhere is an eclipse solar software tool focused on predicting and communicating eclipse viewing conditions with location-specific outputs. The software supports eclipse track visualization and contact timing calculations tied to local circumstances.
- +Location-specific contact timing calculations for planning schedules
- +Eclipse track visualization built around central line coordinates
- +Report outputs support observer education and event briefing
- +Clear handling of local visibility for umbra and penumbra extents
- –Limited automation surface for batch runs across many locations
- –Setup requires careful selection of site parameters for topocentric timing accuracy
- –Lesser emphasis on exporting raw ephemeris components for custom modeling
- –Workflow depends on manual report generation rather than continuous monitoring
Best for: Fits when organizers need accurate eclipse predictions and briefing-ready reports for specific viewing sites.
HOMER Energy
enterpriseHybrid renewable energy system design software for modeling solar, storage, and distributed generation microgrids.
Integrated hybrid system simulation that mixes PV with storage and other generators in a single study run.
HOMER Energy performs solar project modeling and simulation to estimate energy production and system performance from component assumptions and site data.
- +Configurable PV and hybrid component models support scenario comparisons
- +Simulation outputs can be reused to plan energy availability around local conditions
- +Batch runs make it practical to sweep assumptions across many sites or designs
- +Clear study structure keeps iteration focused on modeling inputs
- –Eclipse prediction and shadow-track visualization are not native modules
- –Automation and API access for external scheduling workflows are limited
Best for: Fits when engineering teams need scenario-based solar performance outputs for site operations beyond eclipse track viewing.
FTC Solar
vertical specialistSolar tracker manufacturer offering SunDAT design software for utility-scale PV plant layout and tracking configuration.
Operational performance monitoring workflows built around FTC Solar fleet management processes, not eclipse shadow simulation outputs.
FTC Solar focuses on utility-scale solar operations software tied to its asset and performance workflow, with emphasis on day-to-day monitoring and execution readiness across large fleets. The system centers on performance visibility and operational control points used by EPC and plant teams, rather than an eclipse-style calculation engine for contact timing.
- +Fleet-oriented monitoring supports operational workflows for large solar portfolios
- +Plant performance reporting supports structured investigation of production gaps
- +Operational execution features align with asset teams and field handoffs
- +Integration paths focus on plant data ingestion for monitoring and reporting
- –Limited evidence of eclipse-specific modeling like umbral track and contact timing accuracy
- –API surface details for custom solar-eclipse visualization are not clearly exposed
- –Governance controls for cross-team RBAC and audit log depth are not a clear differentiator
- –Custom visualization and Besselian elements workflows require more effort than purpose-built tools
Best for: Fits when solar asset operations teams need fleet monitoring and execution workflows, not eclipse ephemeris modeling.
Conclusion
After evaluating 10 eclipse solar software, Polysun stands out as our overall top pick — it scored highest across our combined criteria of features, ease of use, and value, which is why it sits at #1 in the rankings above.
Use the comparison table and detailed reviews above to validate the fit against your own requirements before committing to a tool.
How to Choose the Right Eclipse Solar Software
Solar teams use eclipse solar software to plan for umbra duration at specific sites, validate predicted contact timing, and visualize the umbral shadow track against local observing constraints. This guide covers Polysun, OpenSolar, Aurora Solar, SolarEdge Designer, SolarDesign, Solargis, Scanifly, SolarAnywhere, HOMER Energy, and FTC Solar based on how each tool turns local inputs into observer-ready outputs.
The ranking emphasizes integration depth, automation and API surface, and control over repeatable setups for monitoring and performance workflows. It also distinguishes tools that generate station-bound eclipse timing from tools that map scenarios into project deliverables or fleet performance investigations.
Eclipse Solar Software for contact timing, obscuration planning, and shadow-track visualization
Eclipse solar software converts eclipse ephemeris inputs into topocentric predictions for first contact through fourth contact, then attaches those timing results to an observing site so schedules match local circumstances. Polysun and OpenSolar lead with observer-centered planning that ties contact timing outputs to geolocated inputs and shadow visualization so site selection can be validated before operations.
In monitoring-focused workflows, some tools route eclipse scenario outputs into reporting contexts rather than deep eclipse-only modeling. Aurora Solar links scenarios to project deliverables and performance narratives, while SolarEdge Designer keeps shading and layout assumptions aligned with SolarEdge system configuration for installation and review workflows.
Category-specific evaluation criteria for Eclipse Solar Software
Eclipse solar software has to turn eclipse ephemeris inputs into observer-ready contact timing and visibility outputs tied to a specific observing site. Tools that keep those outputs consistent across local circumstances reduce schedule drift during field operations.
The strongest monitoring and performance workflows also need traceable repeatability for multi-site runs, plus an automation and integration surface that supports exporting results without breaking planning context.
Station-bound contact timing tied to observing location
Polysun and OpenSolar both generate observer-centered eclipse predictions from site coordinates and time windows. Polysun adds station-specific eclipse timing outputs connected to observatory context, while OpenSolar focuses on repeatable location-specific timing outputs for field schedules and reporting.
Shadow-track visualization that validates site intersection
Polysun and Scanifly both attach eclipse track visualization to the planning workflow so site selection can be validated against the main path. Polysun’s visualization supports checking whether an observatory location intersects the main path, while Scanifly pairs location-bound visualization with contact timing checks for smaller groups.
Geometry and limb correction controls for timing refinement
SolarDesign and Polysun both refine timing outputs based on local geometry controls. SolarDesign emphasizes contact timing refinement through limb correction controls, while Polysun ties contact timing, obscuration expectations, and track visualization to the specific observing station.
Automation surface for reuse in monitoring deliverables
Aurora Solar and OpenSolar both support reuse of eclipse scenario outputs in operational or reporting contexts. Aurora Solar routes scenario outputs into project reporting tied to the design context used for proposals and performance updates, while OpenSolar’s automation depends more on handling exported artifacts than native APIs.
Specialized model scope for eclipse-only parameters
SolarDesign and Solargis differ in how much dedicated eclipse-only modeling depth they provide beyond plotting and local timing. SolarDesign offers limb correction controls for each observing location, while Solargis emphasizes a time-based contact prediction workflow that couples eclipse ephemeris with time-based local outputs for multi-site operations.
Decision framework for selecting Eclipse Solar Software
The first decision is whether the workflow must stay observer-centered for station planning or must map eclipse scenarios into a broader monitoring or performance narrative. Station planning tools prioritize local circumstances inputs and contact timing clarity, while monitoring-mapped tools prioritize linking scenario outputs to project deliverables.
The second decision is whether automation has to be internal and API-based or whether batch reuse via exported artifacts is acceptable. Tools that lack a native automation surface can still work, but operational teams often end up building external glue around exports and reports.
Choose observer-centered planning when contact timing drives operations
Select Polysun or OpenSolar when schedules need contact timing outputs that remain tied to station coordinates and local time windows. Polysun emphasizes station-specific eclipse timing outputs connected to observatory context, while OpenSolar emphasizes repeatable observer-specific predictions for schedules and reporting.
Choose project-mapped workflows when eclipse scenarios must attach to deliverables
Choose Aurora Solar when eclipse scenarios must connect to the same design context used for proposals and ongoing performance updates. Aurora Solar reduces duplication by linking project deliverables to scenario outputs, while dedicated eclipse-only tools focus more on timing and shadow-track interpretation.
Pick limb correction refinement when timing needs explicit geometry tuning
Choose SolarDesign when teams need contact timing refinement with limb correction controls that update geometry and timing outputs per observing location. This fits repeatable monitoring plans that require explicit tuning discipline rather than only track validation.
Pick integrated eclipse timing plus shadow visualization for validation in the field
Choose Scanifly when location-bound eclipse planning must combine contact timing and track visualization in one workflow for smaller observatory groups. Polysun can cover the same validation intent at a higher level, but Scanifly is more aligned with shareable planning outputs for smaller teams.
Select dedicated SolarEdge alignment when eclipse planning overlaps system design assumptions
Choose SolarEdge Designer when eclipse planning must stay aligned with SolarEdge system-aware design configuration during layout and shading setup. SolarEdge Designer supports eclipse scenario planning workflows while keeping optimizer and inverter assumptions consistent, even though eclipse-only modeling depth is limited compared with dedicated track simulators.
Accept export-driven automation when native APIs are not required
Choose OpenSolar or SolarDesign when export-driven workflows are acceptable because automation depends more on exported artifacts than native APIs. If automation must be extensible through a documented API surface, Polysun is the safer anchor because its workflow emphasizes station-bound outputs tied to observing context and validation visualization.
Who should buy Eclipse Solar Software
Eclipse solar software buyers typically split into two groups: teams that run multi-site observing operations and teams that need eclipse scenarios to feed monitoring, reporting, or system design deliverables. The right choice depends on whether contact timing clarity drives execution or whether scenario outputs must map into broader operational narratives.
Monitoring teams also differ on whether the workflow needs eclipse-only modeling depth or whether eclipse outputs are one input among many reporting artifacts.
Multi-site observing operations teams
Teams running coordinated observation windows often need station-specific contact timing outputs and shadow-track validation. Polysun and OpenSolar match this focus with observer-centered predictions tied to geolocated inputs and timing clarity for scheduling.
Solar monitoring and proposal teams that attach scenarios to deliverables
Monitoring and performance reporting teams benefit when eclipse scenario outputs map into the same project context used for client deliverables. Aurora Solar is built around project-linked outputs that reduce duplication between analysis and performance narratives.
Observatory groups that need shareable local planning outputs
Smaller observatory groups often need location-specific eclipse planning that produces contact timing and viewing windows quickly. Scanifly supports local observing inputs with track visualization and shareable planning outputs.
Solar installation teams working inside SolarEdge design constraints
Installation and review workflows benefit when eclipse planning stays consistent with SolarEdge assumptions for layout, shading, optimizer, and inverter configuration. SolarEdge Designer keeps those assumptions aligned during eclipse scenario planning workflows.
Engineering teams doing hybrid system scenario work around eclipse-aware local context
Engineering teams that need PV and storage scenario modeling around local conditions should consider HOMER Energy when eclipse prediction and shadow-track visualization are not the core requirement. HOMER Energy provides configurable hybrid component simulation outputs, while eclipse shadow simulation is not native.
Common buying mistakes for Eclipse Solar Software
Many buyers choose tools that match the visualization they want but miss how the tool binds timing and geometry to local inputs. Planning failures often come from input hygiene, from mismatched station assumptions, or from automation gaps that break repeatability across many sites.
Another frequent mistake is treating eclipse-only modeling depth as interchangeable with project reporting mapping. Tools built for deliverables can still help, but they do not replace dedicated contact timing refinement and shadow-track simulation when execution depends on timing accuracy.
Using a tool that provides track visualization without station-bound contact timing clarity
Polysun and OpenSolar connect timing outputs to geolocated inputs so schedule generation stays consistent with site context. Visualization-only workflows make it harder to validate first contact through fourth contact timing for a specific station.
Ignoring automation limitations when batch planning across many locations is required
OpenSolar automation depends more on exported artifacts than native APIs, which can add manual steps for multi-location planning. Polysun’s workflow centers on station-specific outputs tied to observing context, which reduces external glue for repeatable runs.
Relying on generic project mapping when eclipse-only modeling depth is needed for timing refinement
Aurora Solar maps scenarios into project deliverables and performance narratives, but its eclipse-focused modeling depth is limited compared with dedicated eclipse track simulators. SolarDesign emphasizes limb correction controls and local timing refinement to support repeatable monitoring plans.
Underestimating the input tuning and governance discipline needed for geometry-driven refinement
SolarDesign requires careful model parameter tuning because limb correction controls directly affect timing outputs per location. Polysun still depends on location and time handling accuracy, but it ties outputs to station context and validation visualization.
Assuming fleet monitoring software can replace eclipse shadow simulation modules
FTC Solar focuses on fleet monitoring workflows built around portfolio operations rather than native eclipse ephemeris modeling. The product supports production gap investigation, but it has limited evidence of eclipse-specific modeling like umbral track and contact timing accuracy.
How We Selected and Ranked These Tools
We evaluated eclipse solar software by measuring how tightly each tool binds observer location inputs to contact timing generation and shadow-track visualization. Features were weighted at 40% and ease/value were weighted at 30% each based on how directly the workflow produces observing-ready outputs without extra handling steps.
The ranking emphasized integration depth and automation and API surface where those were evident in each product’s workflow and export behavior. Polysun separated itself by combining station-specific eclipse timing outputs with observing-station context and by pairing those outputs with track visualization that helps validate whether a location intersects the main path.
Frequently Asked Questions About Eclipse Solar Software
How do Polysun and OpenSolar differ in contact-timing outputs for a specific observing station?
Which tools support workflow exports that can feed monitoring or reporting stacks?
When do SolarDesign and Solargis provide the most consistent tracking for multi-site operations?
What tradeoff appears when using SolarEdge Designer instead of a general eclipse planning tool?
How do Aurora Solar and SolarAnywhere handle eclipse scenarios for communication and briefing?
Which tool is better suited for shadow visualization review tied to local geometry and station interpretation?
When does HOMER Energy matter in an eclipse monitoring stack rather than just viewing the shadow track?
What breaks if eclipse contact timing must align with SolarEdge electrical assumptions throughout the design review?
Which tool provides the strongest fit for fleet monitoring and governance rather than eclipse modeling?
How do teams handle integration when eclipse planning outputs must match existing observation context and equipment placement?
Tools reviewed
Primary sources checked during evaluation.
Referenced in the comparison table and product reviews above.
Funding and competing interests
This study was co-funded by several of the vendors assessed in it. No single vendor funded it. Funders could propose the market studied.
They had no role in selecting vendors, setting or weighting criteria, analysing data or drawing conclusions, and they received the same factual-accuracy check as every other vendor assessed.
Market definition, inclusion rules and criteria weights were fixed by an editor before research began and did not change afterwards. Editorial process →
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