Top 10 Best Lighting Plan Software of 2026

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Top 10 Best Lighting Plan Software of 2026

Top 10 lighting plan software ranked for lighting project planning, with tradeoffs and tool notes for Autodesk Construction Cloud, Synchro, Navisworks.

31 min readUpdated AI-verified · Expert reviewed
How we ranked these tools
01Feature Verification

Core product claims cross-referenced against official documentation, changelogs, and independent technical reviews.

02Multimedia Review Aggregation

Analyzed video reviews and hundreds of written evaluations to capture real-world user experiences with each tool.

03Synthetic User Modeling

AI persona simulations modeled how different user types would experience each tool across common use cases and workflows.

04Human Editorial Review

Final rankings reviewed and approved by our editorial team with authority to override AI-generated scores based on domain expertise.

Read our full methodology →

Score: Features 40% · Ease 30% · Value 30%

Gitnux may earn a commission through links on this page — this does not influence rankings. Editorial policy

Lighting plan software connects photometric calculations, daylight and electric lighting models, and project documentation into a repeatable data flow for architectural, MEP, and entertainment workflows. This ranking compares ten established platforms by calculation intent, visualization and reporting outputs, and integration paths into BIM and coordination systems, including tradeoffs against Autodesk Construction Cloud, Synchro, and Navisworks.

LightCalc is the best fit when you want fast, repeatable residential or commercial illumination checks straight from CAD and photometrics, whereas Capture suits lighting teams that iterate quickly with BIM coordination handoffs for live entertainment and architectural projects.

Editor’s top 3 picks

Three quick recommendations before you dive into the full comparison below — each one leads on a different dimension.

Editor pick
1

LightCalc

Tight coupling between fixture patch list edits and regenerated illumination maps for rapid what-if validation.

Built for fits when lighting designers need fast, repeatable illumination checks from CAD and photometrics..

2

Capture

Editor pick

Fixture patch-driven lighting layout to illuminance visualization, designed for frequent iteration during planning reviews.

Built for fits when lighting teams need rapid, repeatable plan iterations with BIM coordination handoffs..

3

Depence

Editor pick

Fixture patch list regeneration tied to revision-aware project inputs, supporting faster lighting deliverable updates.

Built for fits when lighting teams need repeatable BIM-based fixture patching and calculation evidence across design revisions..

Comparison Table

1
LightCalcBest overall
SMB
9.3/10
Overall
2
vertical specialist
9.0/10
Overall
3
vertical specialist
8.7/10
Overall
4
vertical specialist
8.4/10
Overall
5
vertical specialist
8.1/10
Overall
6
enterprise
7.8/10
Overall
7
7.4/10
Overall
8
enterprise
7.1/10
Overall
9
cloud specialist
6.8/10
Overall
10
6.4/10
Overall
#1

LightCalc

SMB

Lighting design and calculation software for residential and commercial interiors.

9.3/10
Overall
Features9.3/10
Ease of Use9.2/10
Value9.5/10
Standout feature

Tight coupling between fixture patch list edits and regenerated illumination maps for rapid what-if validation.

LightCalc turns CAD geometry and luminaire photometric data into calculated illumination results that can be reviewed as maps and contours for planning decisions. The tool’s luminaire schedule and fixture patch list workflow supports repeatable changes across rooms when fixture selections or locations shift. It is a strong fit when teams need consistent room-by-room verification rather than design ideation alone.

A key tradeoff is that advanced BIM round-tripping depends on the CAD import path and export formats used in the surrounding stack. LightCalc fits best when a lighting designer iterates quickly using controlled inputs, then hands off calculation visuals to construction or coordination reviews.

Pros
  • +Point-by-point illumination results from photometrics and CAD geometry
  • +Illuminance heatmap style outputs for fast target level checks
  • +Fixture patch list workflow supports repeatable lighting iterations
  • +Lighting deliverables stay consistent across room revisions
Cons
  • CAD import quality can limit geometric accuracy for calculations
  • BIM interoperability depends on export and coordination workflow choices
  • Complex scene logic needs manual setup rather than auto rules
  • Large projects can feel slower during repeated calculation runs
Use scenarios
  • Lighting design teams

    Iterate fixture placements in rooms

    Fewer design-review cycles

  • Electrical engineering leads

    Validate lighting levels for compliance

    Clearer substantiation

Show 1 more scenario
  • Architectural BIM coordinators

    Coordinate lighting layouts

    Fewer coordination rework loops

    Import CAD geometry and map fixtures to spaces to reduce mismatches during coordination.

Best for: Fits when lighting designers need fast, repeatable illumination checks from CAD and photometrics.

#2

Capture

vertical specialist

Lighting design, documentation, and visualization software for live entertainment and architectural projects.

9.0/10
Overall
Features9.0/10
Ease of Use8.8/10
Value9.3/10
Standout feature

Fixture patch-driven lighting layout to illuminance visualization, designed for frequent iteration during planning reviews.

Capture fits lighting teams that need faster iteration from a fixture patch list to plan-level results and signoff visuals for stakeholders. The workflow is centered on placing luminaires, linking them to photometric definitions, and generating illuminance outputs for plan review. Capture also supports coordination paths that can integrate with Autodesk Construction Cloud, Synchro, and Navisworks handoffs via export and import steps.

A tradeoff appears in how Capture manages multi-revision governance across large BIM models. The tool can produce good iteration speed for targeted areas, but governance-heavy rollouts require deliberate fixture data hygiene and consistent patching across model revisions. It works best when lighting scope is modular, such as floor-by-floor lighting layouts or zones with clear change control.

Pros
  • +Fast fixture placement to reviewable illuminance outputs
  • +Clear handling of photometric definitions per luminaire
  • +Iteration-friendly workflow for layout comparisons
  • +Export and import paths for common BIM coordination steps
Cons
  • Governance across many BIM revisions takes disciplined fixture patching
  • Complex scene lighting schedules need extra workflow planning
  • Large model imports can slow interactive iteration
  • Some compliance metrics require additional steps beyond layouts
Use scenarios
  • Lighting designers

    Iterate layouts across design options

    Shorter layout review cycles

  • Electrical BIM coordinators

    Coordinate luminaire definitions with BIM exports

    Fewer handoff mismatches

Show 1 more scenario
  • Project delivery teams

    Prepare zone-specific lighting signoff visuals

    Clearer signoff conversations

    Capture outputs review artifacts tied to specific lighting areas for stakeholder walkthroughs.

Best for: Fits when lighting teams need rapid, repeatable plan iterations with BIM coordination handoffs.

#3

Depence

vertical specialist

Real-time lighting and multimedia design software for shows and installations.

8.7/10
Overall
Features8.9/10
Ease of Use8.6/10
Value8.5/10
Standout feature

Fixture patch list regeneration tied to revision-aware project inputs, supporting faster lighting deliverable updates.

Depence works well when fixture selections, placement, and verification evidence must stay aligned across revisions, because it ties schedule-ready fixture data to calculation runs used for review artifacts. The lighting plan workflow centers on building a consistent fixture inventory and then generating calculation outputs that can be compared against space planning expectations. The main fit signal is whether the organization already standardizes lighting templates and naming conventions so regeneration stays predictable.

A key tradeoff is that Depence produces the most benefit when projects follow the tool’s preferred planning structure for fixture patching and run configuration. Teams doing one-off explorations with constantly changing assumptions may spend more time reconfiguring runs than preparing a stable plan baseline. It is a strong usage situation for ongoing projects where lighting engineers must re-run deliverables after layout edits without breaking fixture mapping.

Pros
  • +BIM-to-fixture planning workflow keeps schedule and verification aligned
  • +Repeatable run templates reduce manual rework after layout revisions
  • +Automation-friendly fixture patch list regeneration supports iteration
  • +Clear separation of fixture setup and calculation evidence for review
Cons
  • Best results require disciplined fixture mapping and template conventions
  • Photometric edge-case workflows can need extra manual setup steps
  • Complex project governance needs more admin time than planning-only tools
  • Export preparation for mixed toolchains can add post-processing work
Use scenarios
  • Lighting coordination teams

    Maintain fixture schedules through BIM revisions

    Fewer mismatched deliverables

  • BIM managers

    Standardize fixture inventories for handoff

    More predictable coordination cycles

Show 2 more scenarios
  • Lighting engineers

    Regenerate verification outputs for review packages

    Faster review turnaround

    Depence keeps calculation-ready fixture configuration connected to report-ready outputs.

  • Project delivery leads

    Control change impact on lighting plans

    Lower rework risk

    Depence helps measure the effect of design changes by re-running configured planning runs.

Best for: Fits when lighting teams need repeatable BIM-based fixture patching and calculation evidence across design revisions.

#4

DIALux evo

vertical specialist

Professional lighting design software for indoor, outdoor, street, and daylight planning.

8.4/10
Overall
Features8.4/10
Ease of Use8.4/10
Value8.3/10
Standout feature

Integrated photometric polar file handling drives consistent recalculation when luminaire choices and placements change.

DIALux evo is lighting plan software built for the Dialux workflow with a project structure that focuses on photometric layout planning and calculation. It supports luminaire scheduling and point-by-point calculation workflows to produce illuminance heatmap style outputs for indoor and outdoor scenes.

The tool’s differentiator is how it manages photometric polar data in the context of a lighting design timeline, so luminaire changes propagate through recalculation outputs. CAD import and BIM interoperability workflows can be used to seed layouts, then the optical part of the plan is handled within the DIALux calculation pipeline.

Pros
  • +Dialux workflow keeps layout, calculation, and result outputs aligned
  • +Strong luminaire schedule handling across multiple scenes and variants
  • +Point-by-point calculation supports detailed illuminance checks
  • +Clear control of photometric polar data usage per luminaire
Cons
  • Workflow depth can slow teams that only need fast concept outputs
  • CAD import coverage can require manual cleanup for complex geometry
  • Automation is limited versus planning stacks with deeper API surfaces
  • BIM interoperability depends on how model families map to light fixtures

Best for: Fits when teams need Dialux workflow calculations with disciplined luminaire scheduling and detailed illuminance outputs.

#5

ReluxDesktop

vertical specialist

Lighting calculation and planning software for building interiors, exteriors, and emergency lighting.

8.1/10
Overall
Features8.3/10
Ease of Use8.0/10
Value7.8/10
Standout feature

ReluxDesktop integrates point-by-point calculation outputs with falsified-color style illuminance views for rapid lighting distribution review.

ReluxDesktop builds photometric lighting scenes from manufacturer data and converts them into usable layouts for point-by-point calculation and illuminance heatmap outputs. The workflow centers on luminaire selection and placement, then iterative verification of illuminance distribution and lighting power density using built-in analysis views.

It supports BIM interoperability via IFC export and Revit family usage to carry designed placements into other tools. Automation is mostly workflow-driven inside the desktop app rather than integration-first, so governance and API-based orchestration are limited compared with automation-heavy planning stacks.

Pros
  • +Tight lighting workflow from luminaire placement to illuminance heatmap outputs
  • +IFC export and Revit family support for cross-tool handoff
  • +Point-by-point calculation suited for detailed classroom and office lighting checks
  • +Consistent handling of manufacturer photometric data for repeatable scenes
Cons
  • Limited API surface for external orchestration compared with automation-centric tools
  • Daylighting simulation depth depends on scene setup quality and imported geometry
  • Less suited to multi-team construction coordination versus project management planners
  • Automation is constrained to desktop workflow actions instead of batch provisioning

Best for: Fits when lighting designers need a desktop-first photometric workflow with cross-tool export for Revit and IFC handoff.

#6

AGi32

enterprise

Advanced lighting design and analysis software for interior, exterior, roadway, and sports applications.

7.8/10
Overall
Features7.4/10
Ease of Use8.0/10
Value8.0/10
Standout feature

Point-by-point calculation grid with illuminance heatmaps from IES photometric data.

AGi32 is a lighting plan software for photometric layout and point-by-point calculations that focuses on lighting design deliverables like illuminance heatmaps and lux contour maps. It supports a traditional CAD-to-IES workflow by using luminaire photometric files and performing coefficient-based calculations and detailed point grids for indoor and outdoor spaces.

The tool is frequently used for luminaire schedules, glare and UGR style outputs, and emergency lighting compliance documentation tied to fixture selections. AGi32 also fits teams that need repeatable scene setups across similar spaces and clear visual outputs for review and coordination.

Pros
  • +Point-by-point calculation produces detailed illuminance heatmaps for plan reviews.
  • +IES photometric file workflow supports candela distribution-driven luminaire scheduling.
  • +Glare and UGR outputs support lighting comfort checks against targets.
  • +Lux contour map rendering helps communicate results across zones.
Cons
  • CAD import and model hygiene can dominate effort for large, messy floor plans.
  • BIM interoperability depth can be limited compared with Revit-first workflows.
  • Automation and API extensibility are not designed for high-volume pipeline orchestration.
  • Emergency compliance reports often require consistent fixture tagging and scene setup.

Best for: Fits when lighting teams need repeatable photometric layouts with detailed grid results for audits and design iterations.

#7

Visual Lighting

SMB

Lighting layout and calculation software for indoor and outdoor applications.

7.4/10
Overall
Features7.8/10
Ease of Use7.1/10
Value7.2/10
Standout feature

Manufacturer photometric content with planning-to-schedule linkage for fast, consistent luminaire specification.

Visual Lighting from Acuity Brands focuses on lighting project planning with a workflow centered on luminaire photometrics, layout verification, and schedule creation tied to manufacturer content. The tool supports photometric layout work using candela-distribution data and can generate illuminance outputs like heatmaps for coverage checks.

Visual Lighting also supports luminaire schedule deliverables so project teams can tie spatial placement to counts and specifications. Automation depth is strongest when teams standardize fixture selections and reuse project configuration across similar spaces.

Pros
  • +Manufacturer photometric library reduces manual IES and LDT handling
  • +Luminaire schedule generation ties placements to counts and specs
  • +Illuminance outputs support spatial coverage review and iteration
  • +Repeatable configuration supports consistent fixture selection across projects
Cons
  • CAD and BIM interoperability is narrower than Autodesk Construction Cloud workflows
  • API and automation surface is limited compared with Synchro integration patterns
  • Advanced glare and daylighting modeling depth trails dedicated simulation suites
  • Governance controls for multi-role reviews need tighter process discipline

Best for: Fits when teams need manufacturer-backed planning, repeatable layouts, and schedule deliverables without heavy simulation customization.

#8

IES VE

enterprise

Integrated building performance software with daylighting and electric lighting analysis tools.

7.1/10
Overall
Features6.7/10
Ease of Use7.4/10
Value7.3/10
Standout feature

Point-by-point calculations driven by IES photometric file inputs feeding coordinated illuminance and daylighting outputs.

IES VE ties daylighting simulation and electric lighting calculations into one workflow built around IES photometric file processing and fixture-level layouts. The lighting plan toolset generates illuminance heatmaps and lux contour outputs from photometric inputs, then supports iterative design checks like glare-related metrics and lighting power density reporting.

Automation is centered on running repeatable calculation sets for building zones and producing consistent review visuals for those scenarios. CAD and BIM interoperability support is built around importing geometry and mapping luminaire attributes to schedules and point-by-point calculation contexts.

Pros
  • +Generates illuminance heatmaps and lux contour maps directly from IES photometric layouts
  • +Supports repeatable scenario runs for zones to compare lighting outcomes
  • +Produces fixture schedules from luminaire definitions tied to spatial layouts
  • +Integrates daylighting and electric lighting calculations in the same modeling workflow
Cons
  • Lighting results depend heavily on correct photometric assignment and geometry mapping
  • Complex scenes can require careful setup to keep calculation throughput manageable
  • Some BIM-to-luminaire attribute mapping workflows take manual cleanup
  • Advanced glare and UGR checks can be harder to configure than simpler workflows

Best for: Fits when lighting teams need photometric-accurate zone calculations plus repeatable visual outputs for iterative design reviews.

#9

LightStanza

cloud specialist

Web-based daylight and electric lighting simulation platform for architecture and design teams.

6.8/10
Overall
Features6.9/10
Ease of Use6.5/10
Value6.9/10
Standout feature

LightStanza’s fixture patch list workflow keeps luminaire assignments consistent across revisions, reducing misalignment between planning and review outputs.

LightStanza turns lighting design inputs into shareable lighting plan outputs by combining photometric data handling with layout-centric review workflows. It supports a luminaire schedule style workflow that connects fixture selection, attributes, and placement into calculation-ready scenes.

The tool emphasizes iterative review using illuminance visuals and plan exports suited for coordination handoffs. LightStanza also fits projects that need consistent fixture patch lists across multiple revisions without rebuilding scenes from scratch.

Pros
  • +Tight loop between luminaire selection and lighting plan revision outputs
  • +Illuminance visuals make it easier to spot coverage gaps during iteration
  • +Fixture patch list management reduces churn across revision cycles
  • +Handoff-ready exports support coordination with external teams
Cons
  • CAD and BIM interoperability can be limited for complex CAD variants
  • Photometric workflows rely on consistent source IES/LDT file quality
  • Automation depth is thinner for large multi-project governance
  • Iterative scenes can become slow when point-by-point calculation scope grows

Best for: Fits when lighting teams need repeatable layout-based iteration and dependable plan exports for coordination.

#10

LightUp

SMB

SketchUp plugin for real-time lighting analysis and rendering.

6.4/10
Overall
Features6.5/10
Ease of Use6.6/10
Value6.2/10
Standout feature

Photometric-data driven layout plus illuminance heatmap generation in one lighting-plan iteration loop.

LightUp targets lighting plan workflows with a structured path from luminaire selection through photometric layouts and schedule outputs for review. It centers on fixture libraries driven by photometric data so users can generate illuminance heatmaps and lux contour views from point-by-point calculation inputs.

The tool supports scenario comparisons for tasks like switching between fixture sets and rerunning lighting conditions without reauthoring every layout. Compared with general-purpose 3D visualization tools, LightUp focuses on lighting deliverables and layout-to-output consistency for production handoff.

Pros
  • +Lighting-plan workflow focuses on deliverables like schedule exports and layout outputs
  • +Photometric-based layout generation reduces manual rework across revision cycles
  • +Illuminance heatmap and lux contour views support rapid spatial QA
  • +Scenario reruns keep fixture-set changes tied to updated calculations
Cons
  • CAD and BIM interoperability depth is limited compared with Autodesk Construction Cloud
  • Daylighting simulation and advanced glare-style outputs are less comprehensive than specialized tooling
  • Lighting-network workflows like emergency compliance still require external checking
  • Automation and API surface appear minimal for bulk provisioning at high throughput

Best for: Fits when project teams need repeatable luminaire layouts and calculation outputs without building custom integrations.

Conclusion

After evaluating 10 construction infrastructure, LightCalc 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.

Our Top Pick
LightCalc

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 lighting plan software

Lighting plan software used for project planning turns luminaire choices, fixture patch lists, and CAD or BIM geometry into illumination deliverables like illuminance heatmaps and lux contour maps. This guide covers LightCalc, Capture, Depence, DIALux evo, and ReluxDesktop, plus AGi32, Visual Lighting, IES VE, LightStanza, and LightUp.

The tool set differs most by how fixture patch edits regenerate lighting outputs, how tightly BIM coordination stays aligned with the calculation evidence, and how far each product’s automation and API surface supports repeatable revision runs. Autodesk Construction Cloud, Synchro, and Navisworks appear as key reference points because many teams route lighting planning through BIM workflows before producing lighting deliverables.

Lighting plan software for turning fixture patch lists into photometric calculations and review deliverables

Lighting plan software converts photometric inputs like IES files and LDT-style candela distributions plus placement geometry into point-by-point calculation results. Those results show up as illuminance heatmap style views and distribution-oriented outputs used for coverage checks and lighting plan signoff.

LightCalc centers its workflow on edits to the fixture patch list that trigger regenerated illumination maps for rapid what-if validation. Capture and Depence also use fixture patch-driven iteration, with Depence adding revision-aware project inputs that align schedule evidence and deliverable updates across design changes.

Across this set, the most practical differences show up in how CAD import quality affects geometry fidelity, how each tool handles luminaire schedule and scenario variants, and how much automation and extensibility the workflow can support without manual rework.

Lighting-plan features that control revision speed and calculation evidence

Lighting plan software becomes usable when fixture patch edits and photometric recalculation stay coupled, because lighting decisions happen through repeated what-if runs. Tools like LightCalc and Capture generate illumination visuals immediately from fixture patch edits, which shortens the loop between layout changes and coverage checks.

The next deciding factor is how consistently a tool can carry luminaire scheduling intent through iterations, because schedule evidence and deliverable outputs must match the exact placements used for calculations. Depence ties fixture patch list regeneration to revision-aware project inputs, while DIALux evo keeps a consistent recalculation path through integrated photometric polar file handling.

  • Fixture patch edits that regenerate illumination outputs fast

    LightCalc links fixture patch list edits to regenerated illumination maps for rapid what-if validation. Capture also drives frequent iteration by using fixture patch-driven lighting layout to illuminance visualization.

  • Revision-aware inputs that keep schedules aligned to layout changes

    Depence regenerates fixture patch lists based on revision-aware project inputs so deliverables stay aligned across design changes. LightStanza keeps luminaire assignments consistent across revisions through a dedicated fixture patch list workflow.

  • Photometric handling that stays consistent across luminaire changes

    DIALux evo uses integrated photometric polar file handling to maintain consistent recalculation when luminaire choices and placements change. ReluxDesktop pairs point-by-point calculation outputs with falsified-color style illuminance views for quick distribution review.

  • Point-by-point calculation detail for grid and heatmap deliverables

    AGi32 produces point-by-point calculation grids with illuminance heatmaps from IES photometric data. IES VE generates illuminance heatmaps and lux contour maps directly from IES photometric layouts for coordinated zone outputs.

  • BIM coordination handoff and interoperability pathways

    ReluxDesktop supports IFC export and Revit family support for cross-tool handoff. LightCalc can be constrained by CAD import quality for geometric accuracy, and BIM interoperability depends on export and coordination workflow choices.

How to choose lighting plan software by workflow coupling and automation surface

Start by matching the tool to the project’s iteration pattern, because some products optimize for fixture patch-driven loops while others optimize for photometric polar file consistency or point-by-point audit-grade grids. LightCalc fits planning teams that need fixture patch list edits to regenerate illumination maps quickly for repeatable what-if validation, while Capture fits teams that iterate through planning review cycles with illuminance outputs tied to patch changes.

Next choose based on integration depth into the rest of the design workflow, because many teams route lighting planning through BIM models and must carry deliverable evidence through those revisions. Autodesk Construction Cloud is commonly used as the routing environment, and tools like ReluxDesktop and Depence fit better when the project requires schedule and verification alignment tied to BIM or revision inputs.

  • Pick the iteration engine tied to your editing object

    Choose LightCalc if fixture patch list edits must immediately regenerate illumination heatmap style outputs for rapid coverage what-if checks. Choose Capture if frequent plan iterations rely on fixture patch-driven lighting layout to illuminance visualization during BIM coordination handoffs.

  • Choose how revision changes propagate into deliverables

    Choose Depence if fixture patch list regeneration must be tied to revision-aware project inputs so lighting deliverables update with less manual rework. Choose DIALux evo if the workflow depends on consistent recalculation tied to integrated photometric polar file handling across scenes and variants.

  • Match calculation output depth to the evidence required

    Choose AGi32 if detailed point-by-point calculation grids are needed for plan review evidence using IES photometric data. Choose IES VE if zone-based photometric accuracy must feed illuminance heatmaps plus lux contour maps from repeatable scenario runs.

  • Decide how much external orchestration is required

    Choose tools like Depence when repeatable run templates reduce manual rework after layout revisions and the workflow benefits from automation-centric orchestration. Choose ReluxDesktop when the team prioritizes cross-tool export pathways such as IFC export and Revit family support over a heavier automation surface.

  • Validate geometry intake limits before committing to a CAD-first pipeline

    Choose LightCalc only if CAD import quality will support the geometric accuracy needed for calculations. Choose AGi32 carefully for large messy floor plans because CAD import and model hygiene can dominate effort.

Who should buy which lighting plan approach

Lighting plan software typically fits teams that must turn CAD or BIM geometry plus photometric inputs into reviewable illuminance outputs like illuminance heatmaps and lux contour maps. The right choice depends on whether the team’s bottleneck is fixture patch iteration, revision-aware deliverable updates, or point-by-point calculation evidence for reviews.

Many projects using Autodesk Construction Cloud and Navisworks benefit from tools that can keep handoffs consistent across revisions, because mismatches between fixture patch assignments and calculated outputs create avoidable rework.

  • Lighting designers running rapid fixture placement what-ifs

    LightCalc supports tight coupling between fixture patch list edits and regenerated illumination maps for fast repeatable validation. Capture supports fixture patch-driven lighting layout to reviewable illuminance outputs during planning review cycles.

  • BIM-coordination teams that need revision-aligned deliverables

    Depence uses revision-aware project inputs to regenerate fixture patch lists and keep schedule and verification aligned across design revisions. LightStanza focuses on consistent luminaire assignments across revisions through a fixture patch list workflow.

  • Teams that rely on manufacturer-backed luminaire scheduling and content

    Visual Lighting uses manufacturer photometric content and links planning to schedule generation so placements map to counts and specs without heavy manual photometric handling. The workflow remains less suited when the project requires the broader BIM and API patterns used by Autodesk Construction Cloud-centric pipelines.

  • Teams that need audit-grade point-by-point grids and heatmaps

    AGi32 delivers point-by-point calculation grids with illuminance heatmaps driven by IES photometric data. IES VE delivers illuminance heatmaps and lux contour maps using IES photometric layouts for repeatable zone scenario comparisons.

Common failure modes when adopting lighting plan software

The most expensive mistakes happen when the adopted tool cannot keep its internal mapping between fixture patch assignments, geometry, and photometric inputs consistent across revisions. Another recurring mistake is underestimating how CAD import quality and scene setup quality affect the geometric fidelity of point-by-point results.

Teams that plan to route lighting work through Autodesk Construction Cloud, Synchro, and Navisworks often misjudge how much orchestration is feasible in practice. That creates mismatches between what the BIM model shows and what the lighting plan calculates and exports.

  • Choosing a tool for its visuals but ignoring geometry intake limits

    LightCalc can be limited by CAD import quality for geometric accuracy, so geometry cleanup requirements must be validated before operational use. AGi32 can have CAD import and model hygiene dominate effort on large messy floor plans, which increases cycle time.

  • Treating fixture patch lists as a one-time setup instead of a revision workflow object

    Capture and LightStanza both tie outputs to fixture patch iteration, so governance across BIM revisions must be planned to avoid misalignment. Depence can reduce manual rework only when fixture mapping and template conventions stay disciplined.

  • Underestimating how photometric assignment and scenario setup determine result validity

    IES VE results depend heavily on correct photometric assignment and geometry mapping, so errors in assignment propagate into heatmaps and contour maps. ReluxDesktop daylighting simulation depth depends on scene setup quality and imported geometry, which means incomplete geometry leads to shallow outcomes.

  • Expecting external orchestration without matching automation and API surface

    ReluxDesktop has a limited API surface for external orchestration compared with automation-centric tools, which can force manual coordination steps. Visual Lighting has a limited API and automation surface compared with Synchro integration patterns, so schedule deliverables may require more manual stitching.

How We Selected and Ranked These Tools

We evaluated LightCalc, Capture, Depence, DIALux evo, ReluxDesktop, AGi32, Visual Lighting, IES VE, LightStanza, and LightUp on feature coverage and iteration mechanics. Features accounted for 40% of the score and concentrated on fixture patch-driven regeneration, photometric handling consistency, and point-by-point output detail.

Ease and value each accounted for 30% and focused on how quickly teams can reach reviewable illuminance visuals from CAD and photometrics without heavy rework. LightCalc ranked first because its fixture patch list edits trigger regenerated illumination maps for rapid what-if validation, and its point-by-point illumination workflow produces illuminance heatmap style outputs for fast target checks.

Frequently Asked Questions About lighting plan software

How do LightCalc, Capture, and Depence differ in fixture patch list handling during revisions?
LightCalc keeps fixture patch list edits tightly coupled to regenerated illumination maps for fast what-if checks. Capture drives iteration through a fixture patch-driven workflow that outputs reviewable illuminance visuals for coordination meetings. Depence regenerates patch lists from revision-aware BIM inputs so fixture selections stay consistent across design review cycles.
Which tool supports Dialux-style photometric polar file handling for consistent recalculation?
DIALux evo manages photometric polar data so luminaire changes propagate through the recalculation pipeline tied to the project timeline. AGi32 focuses on point-by-point calculation grids from IES inputs and then outputs illuminance heatmaps and lux contour maps. ReluxDesktop converts manufacturer data into point-by-point scenes and emphasizes built-in analysis views for distribution checks.
What breaks if teams switch from BIM-driven updates to a CAD-only workflow in AGi32, Depence, and LightUp?
Depence depends on BIM-based fixture data to rebuild luminaire schedule selections after BIM changes, so moving to CAD-only inputs breaks revision-aware patch regeneration. AGi32 can operate from a CAD-to-IES workflow, but it loses the repeatability of revision-triggered evidence tied to BIM-based attributes. LightUp supports lighting-plan iteration without custom integration work, so teams can keep outputs consistent but must manage geometry and fixture sets outside an automated BIM-to-schedule handoff.
How do Capture, LightStanza, and LightUp produce reviewable outputs for coordination handoffs?
Capture generates illuminance outputs and review artifacts suitable for layout comparisons during planning reviews. LightStanza turns fixture and placement inputs into shareable plan exports that keep luminaire assignments consistent across revisions. LightUp generates illuminance heatmaps and lux contour views from point-by-point calculation inputs and supports scenario reruns for fixture set switching.
Which systems handle BIM interoperability through explicit export and family workflows?
ReluxDesktop supports BIM interoperability via IFC export and Revit family usage to carry placements into other tools. DIALux evo can use CAD import and BIM interoperability workflows to seed layouts, then runs optical planning in its own calculation pipeline. LightCalc focuses on CAD and photometric inputs for lighting plan review and does not position itself around IFC or Revit-family export as a primary workflow.
How should teams validate daylighting plus electric lighting together using IES VE versus lighting-only tools like AGi32?
IES VE ties daylighting simulation to electric lighting calculations by processing IES photometric inputs into coordinated illuminance and daylighting outputs. AGi32 concentrates on photometric layout and point-by-point results such as illuminance heatmaps, lux contour maps, and glare-related outputs. LightCalc supports photometric calculation and illuminance deliverables from CAD and IES inputs, but it is oriented around lighting plan review rather than combined daylighting runs.
When does a point-by-point calculation workflow become the limiting factor for throughput in AGi32, ReluxDesktop, and IES VE?
AGi32 uses detailed point grids and coefficient-based calculations from IES files, so grid density directly affects runtime. ReluxDesktop performs point-by-point calculation with illuminance heatmap-style outputs and built-in analysis views, so larger scenes can increase compute time. IES VE runs repeatable calculation sets for building zones that include daylighting plus electric lighting, so expanding zone counts and scenarios can reduce throughput.
How do AGi32 and IES VE differ for glare-related metrics and UGR or glare documentation outputs?
AGi32 supports glare and UGR style outputs and can generate emergency lighting compliance documentation tied to fixture selections. IES VE also generates glare-related metrics alongside lighting power density reporting while supporting coordinated daylighting and electric lighting checks. Visual Lighting focuses on planning-to-schedule linkage with illuminance coverage checks rather than emphasizing UGR-style documentation.
What do integration-first automation stacks gain compared with tools that focus on internal workflow configuration, such as Depence versus ReluxDesktop?
Depence carries fixture patching and calculation evidence through revision-aware project inputs and targets automation oriented around repeatable BIM-to-verification handoffs. ReluxDesktop emphasizes desktop-first photometric workflows and workflow-driven automation inside the application, so it positions governance and API-based orchestration as limited compared with automation-heavy planning stacks. Capture sits between them by focusing on repeatable configuration and BIM coordination handoffs through imported and exported geometry and light definitions.

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