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Top 8 Best Golf Course Design Software of 2026

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Top 8 Best Golf Course Design Software of 2026

Compare golf course design software tools for planning, grading, and mapping, with tradeoffs for golf course designers and surveyors.

19 min readUpdated Editorially scoped research
How we ranked these tools
01Editorial Scope

Vendors set the topic, but our editors set the inclusion criteria and the evaluation framework before research starts.

02Source Research

Agents extract product evidence with provenance, then collect written reviews and transcribe video reviews and podcasts.

Read our full methodology →

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

Gitnux may earn a commission through links on this page. This does not influence our reviews. Editorial policy

Golf course design software matters because teams must turn survey data into controlled surfaces, grading plans, and construction-ready deliverables while keeping design intent legible across CAD, GIS, and rendering pipelines. This comparison helps operators and technical evaluators weigh automation and data model fit against workflow friction, especially when tools must integrate with terrain forms and course visualization steps.

QGIS is the best pick for teams needing map-based GIS analysis to guide hole routing decisions because its Processing Modeler and Python scripting automate repeatable survey-to-routing iterations, whereas Land F/X fits when you want a single hole-to-grading project model with earthwork outputs that stay consistent for plan updates.

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

QGIS

Processing Modeler and Python scripting automate multi-step survey-to-analysis workflows for consistent hole routing iterations.

Best for: Fits when teams need GIS analysis and map-based review to steer hole routing decisions.

2

Land F/X

Editor pick

A single project workflow links hole routing decisions through grading-oriented outputs for consistent plan updates.

Best for: Fits when golf design teams need layout, grading intent, and plan sheets from one model.

3

Autodesk Civil 3D

Editor pick

Corridor-driven earthwork tied to Civil 3D surfaces with programmable generation via API customization tools.

Best for: Fits when course architects need civil-grade surfaces, earthwork automation, and API-driven repeatability.

Comparison Table

1
QGISBest overall
GIS
9.2/10
Overall
2
vertical specialist
8.7/10
Overall
3
8.6/10
Overall
4
8.4/10
Overall
5
8.0/10
Overall
6
7.7/10
Overall
7
vertical specialist
7.5/10
Overall
8
vertical specialist
7.2/10
Overall
#1

QGIS

GIS

Open-source GIS software for terrain analysis, geospatial data preparation, mapping, and site assessment.

9.2/10
Overall
Features9.2/10
Ease of Use9.4/10
Value9.0/10
Standout feature

Processing Modeler and Python scripting automate multi-step survey-to-analysis workflows for consistent hole routing iterations.

Golf course design work in QGIS commonly starts with importing survey deliverables such as point clouds or raster topography, then building derived layers for slopes, sightlines, and surface context used during routing and green site analysis. The software’s strengths show up in iterative overlay review, where aerial imagery, contours, and digitized fairway or green perimeters are inspected together and styled for construction-ready plan views. It also supports terrain mesh and surface modeling workflows that feed grading and drainage planning on top of the imported digital elevation model.

A key tradeoff is that QGIS focuses on geospatial analysis and cartographic output, so detailed CAD-grade geometry editing and constraint-driven drafting are weaker than in dedicated civil CAD tools. Teams use QGIS best when they need a controlled geospatial workflow around routing decisions, like landing zone analysis and approach angle analysis, then hand off to CAD for final drafting and documentation.

Pros
  • +Powerful layer-based visualization for iterative fairway and green review
  • +Scriptable workflows for repeatable survey import and analysis runs
  • +Terrain and mesh tooling to support surface-driven design decisions
  • +DWG and DXF export supports downstream CAD interoperability
Cons
  • –CAD-style geometry constraints and drafting depth are limited compared to civil CAD
  • –Large projects often need careful resource planning for throughput
Use scenarios
  • Course design analysts

    Landing zone analysis for tee shots

    Faster routing tradeoff cycles

  • Survey and data coordinators

    Topographic survey import normalization

    Consistent reference data for CAD

Show 2 more scenarios
  • Design teams

    Green site analysis and overlays

    Clearer green placement rationale

    Overlay imagery and surface derivatives to evaluate slope impacts and spatial fit for green complexes.

  • GIS automation owners

    Batch processing for multiple holes

    Lower manual processing effort

    Use chained processing models to generate analysis products across many layout variants with shared parameters.

Best for: Fits when teams need GIS analysis and map-based review to steer hole routing decisions.

#2

Land F/X

vertical specialist

Landscape design software that adds planting, irrigation, grading, and documentation tools to CAD platforms.

8.7/10
Overall
Features8.7/10
Ease of Use8.7/10
Value8.7/10
Standout feature

A single project workflow links hole routing decisions through grading-oriented outputs for consistent plan updates.

Land F/X targets golf-specific design tasks such as golf course routing, hole routing, and green complex layout using a workflow that stays inside one authoring environment. Land F/X can ingest topographic survey data to create the working ground model and then drive layout and revisions from that base through to plan outputs. The package also supports construction-document style deliverables with the ability to carry design changes through the same project workspace.

A tradeoff appears in how teams handle broader GIS and CAD ecosystems. Land F/X can integrate for exchange, but it does not replace a general GIS stack for every analysis type that designers might want from a separate environment. It fits best when a design team wants fast iteration from layout intent to grading plan production, and when the deliverable set is built from the same project model.

Pros
  • +Golf-focused layout to earthwork planning stays in one project model
  • +Survey-backed ground model supports iterative routing and revisions
  • +Construction-document style plan generation fits design and field handoff
  • +Repeatable hole and complex design workflow reduces rework
Cons
  • –Deeper GIS analysis workflows often require external tooling
  • –Civil-grade CAD interoperability can add cleanup after export
Use scenarios
  • Golf course designers

    Iterate hole and green complex

    Fewer revision cycles

  • Design-build project managers

    Produce construction-ready plan sets

    Cleaner contractor communication

Show 1 more scenario
  • Club capital planning teams

    Compare layout alternatives quickly

    Faster approvals

    Runs iterative plan updates from the same model to keep stakeholder review materials consistent.

Best for: Fits when golf design teams need layout, grading intent, and plan sheets from one model.

#3

Autodesk Civil 3D

enterprise

Civil engineering software for terrain modeling, grading, drainage, corridors, and construction documentation.

8.6/10
Overall
Features8.6/10
Ease of Use8.6/10
Value8.6/10
Standout feature

Corridor-driven earthwork tied to Civil 3D surfaces with programmable generation via API customization tools.

Autodesk Civil 3D helps design golf course grading and civil infrastructure directly on a terrain surface using an engineering data workflow. The software builds corridor-style earthwork, assigns alignments and profiles, and produces grading plans and construction-ready deliverables from a linked model.

It supports topographic survey import and CAD interoperability through DWG workflows, then extends into GIS by combining civil objects with map-based context. Teams gain automation through .NET customization and an API surface that can standardize generation of course-specific alignments and grading outputs.

Pros
  • +Corridor-based grading that ties earthwork volumes to a surface model
  • +Alignment and profile workflows map well to routing and approach lines
  • +DWG-centric interoperability supports recurring survey and base-map reuse
  • +.NET and API extensibility enables repeatable course production standards
Cons
  • –Golf-course graphics and annotation still require Civil-to-CAD drafting discipline
  • –Automation depends on configuration and add-in behavior across project templates
  • –Drainage and irrigation planning often needs additional specialized tooling
  • –Large terrain and corridor assemblies can slow interactive editing on workstations
Use scenarios
  • Golf course civil design teams

    Create grading plans from terrain model

    Construction-ready grading deliverables

  • Survey and CAD operations

    Import topographic survey into design

    Fewer data rework cycles

Show 1 more scenario
  • Golf layout engineers

    Automate alignments and profiles for holes

    Repeatable course-specific geometry

    Engineers use .NET customization and an API to standardize hole alignments and output generation.

Best for: Fits when course architects need civil-grade surfaces, earthwork automation, and API-driven repeatability.

#4

Rhinoceros 3D

SMB

3D modeling software for complex terrain forms, sculpted landforms, and conceptual course geometry.

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

NURBS and mesh workflows in one model let teams refine grading surfaces and visualization without reauthoring geometry.

Rhinoceros 3D handles the geometric reality of golf design by working directly on surfaces, terrain meshes, and 3D references like aerial imagery overlays. The workflow typically starts with importing a topographic survey in CAD formats, then building a terrain mesh or surface, then refining grading shapes for approach and green sites. Interoperability remains practical through DWG and DXF export for construction documentation handoff. Extensibility through scripting enables custom commands for repeated club-shaped features like tee complexes and bunker plan variants.

Pros
  • +Direct NURBS and mesh editing supports precise green and bunker surface shaping
  • +DWG and DXF import and export fit common construction documentation workflows
  • +Extensibility via Rhino scripting and plug-ins enables repeatable golf-specific commands
  • +3D visualization workflows stay editable for design revisions
Cons
  • –Golf-specific drainage and irrigation automation usually requires add-ons or custom scripting
  • –Surface to production-grade deliverables needs disciplined model standards
Use scenarios
  • Golf design CAD teams

    Iterate green and bunker forms in 3D

    Fewer model reworks

  • Course architects

    Handoff 3D design to CAD production

    Cleaner documentation handoffs

Show 1 more scenario
  • Specialist tool developers

    Build golf commands for recurring geometry steps

    Repeatable workflow automation

    Rhino scripting and plug-in extensibility supports custom tools for standardized course feature creation.

Best for: Fits when firms need editable 3D course modeling with CAD handoff and custom automation.

#5

Lumion

SMB

Real-time 3D rendering software for golf course visualizations and architectural flythroughs.

8.0/10
Overall
Features8.0/10
Ease of Use8.0/10
Value8.0/10
Standout feature

Real-time scene editing with fast camera flyovers for visual iteration of imported terrain and course geometry.

Lumion focuses on fast 3D visualization workflows for golf course design teams that need quick flyover rendering and presentation-ready scenes. It supports importing terrain and CAD geometry, then transforming them with a real-time scene system for materials, lighting, and vegetation placement.

Pros
  • +Real-time rendering supports rapid flyover reviews for design feedback
  • +Lighting and material tooling speeds up presentation scene setup
  • +Vegetation and scene object workflows fit course landscaping visualization
  • +Import and placement workflow supports iterative layout visualization
Cons
  • –Terrain and grading control is not a substitute for CAD-based grading plans
  • –Automation and API surface for design data exchange is limited
  • –Golf-specific layout constraints like tee complex logic are not native
  • –Large site scenes can require careful asset management for stability
Use scenarios
  • Golf presentation teams

    Render hole scenes for stakeholder review

    Clear visual reviews

  • Golf site designers

    Show context with terrain and vegetation

    Contextual proposal visuals

Show 2 more scenarios
  • Landscape and water feature designers

    Visualize ponds and fountains for holes

    Water feature appearance previews

    Teams stage water materials and shoreline appearances inside golf course scenes for client feedback.

  • Landscape architects

    Compare planting concepts on course terrain

    Planting visual comparisons

    Designers assemble outdoor scenes with planting and paths to compare softscape concepts for golf holes.

Best for: Fits when visual iteration and client-ready flyovers matter more than parametric golf routing or construction documentation.

#6

Carlson Civil

SMB

Civil design software for surfaces, grading, site plans, quantities, and construction deliverables.

7.7/10
Overall
Features7.7/10
Ease of Use7.7/10
Value7.7/10
Standout feature

Survey-to-plot continuity that turns imported terrain into grading plans and construction-ready drawing sets within Carlson.

Carlson Civil differentiates itself for golf course workflows by centering design-to-annotation output around Carlson surveying and civil drawing tools. The software supports CAD-centric layout work, including importing topographic surfaces, refining grading and earthwork concepts, and producing construction documentation deliverables for course elements.

Pros
  • +CAD-first workflow keeps routing and plan production in one toolchain
  • +Strong surface and grading concepts align with course earthwork deliverables
  • +Survey-style data import supports fast iteration from field or scan surfaces
  • +Output formatting supports repeatable construction drawing packaging
Cons
  • –Golf-specific automation for routing and analysis is limited compared with niche tools
  • –Complex golf site grading still depends on user-driven modeling decisions
Use scenarios
  • Golf renovation design teams

    Produce CAD grading and earthwork docs

    CAD earthwork deliverables

  • Roadway and civil engineers

    Generate roadway plan and earthwork outputs

    Consistent earthwork outputs

Show 2 more scenarios
  • Survey and civil design teams

    Convert field geometry into surfaces

    Less geometry reconstruction

    Survey teams carry points into surfaces, alignments, profiles, and grading for plan production.

  • Recreational site planners

    Plan layout with grading and utilities

    Detailed site deliverables

    Consultants use CAD-based layout, grading, and utility routing to create detailed park site plans.

Best for: Fits when teams already use Carlson workflows and need consistent CAD-to-documentation output for course plans.

#7

Site3D

vertical specialist

Civil site design software for terrain surfaces, roads, grading, drainage, and earthworks.

7.5/10
Overall
Features7.5/10
Ease of Use7.5/10
Value7.5/10
Standout feature

Turn imported terrain into quick 3D flyover outputs for repeated client and stakeholder design reviews.

Site3D focuses on golf course layout and 3D visualization workflows with a strong emphasis on iterative design review from survey data through presentation outputs. The core workflow centers on building and refining hole geometry, terrain surfaces, and visual flyovers to support design decisions and client sessions.

Pros
  • +Fast loop from survey import to 3D flyover review
  • +Supports CAD exchange for sharing design intent
  • +Clear visual context for fairway and green complex placement
  • +Practical tooling for creating presentation-ready visuals
Cons
  • –Routing and landing zone style analytics remain limited
  • –Terrain edits can be time-consuming on complex meshes
  • –Automation for documentation sets needs manual coordination
  • –Integration breadth with GIS pipelines is narrower than CAD-only workflows
Use scenarios
  • Drainage designers

    Place septic and drainage elements in model

    Reviewable permit layouts

  • Roadway and civil engineers

    Model plan-profile roadway corridors

    Consistent corridor geometry

Show 2 more scenarios
  • Landscape draftspersons

    Produce terrain-linked landscape plan sheets

    Consistent landscape documentation

    Landscape teams create multiple plan-sheet views with planting, hardscape, and construction details linked to terrain.

  • Land planners and consultants

    Draft parcels and zoning-aware plats

    Entitlement-ready plats

    Planners draft parcels and subdivision arrangements while reviewing boundaries, constraints, and zoning overlays.

Best for: Fits when design teams prioritize rapid 3D layout review over automated routing and engineering-grade analysis.

#8

Civil Site Design

vertical specialist

Civil design software for surface modeling, roads, grading, drainage, and earthwork calculations.

7.2/10
Overall
Features7.2/10
Ease of Use7.1/10
Value7.3/10
Standout feature

Iterative surface and grading production tied to imported terrain, with construction-friendly plan outputs.

Civil Site Design is a civil design workflow tool that supports golf-focused grading and surface production around routing studies. It concentrates on moving from survey-derived terrain to buildable contours, with CAD interoperability for downstream construction documentation. The workflow fits teams that need consistent surface modeling and clear plan outputs rather than fully automated hole-routing intelligence.

Pros
  • +Strong terrain and grading workflow from imported survey surfaces
  • +Clear plan and profile style outputs for construction documentation
  • +Reliable CAD interoperability for moving geometry into downstream CAD
  • +Consistent surface production across repeated design iterations
Cons
  • –Limited native automation for hole routing and tee complex generation
  • –Governance controls for multi-author projects are not its focus
Use scenarios
  • Golf course architects

    Iterate hole layouts with CAD drafting

    Construction documentation set

  • Site drainage engineers

    Lay out stormwater ponds and pipe inputs

    Coordinated drainage layouts

Show 2 more scenarios
  • Transportation engineering teams

    Generate roadway sections from templates

    Repeatable section outputs

    Teams use alignments, profiles, stations, and templates to generate roadway sections and plan production outputs.

  • Land development civil teams

    Create grading and drainage for multi-lot projects

    Consistent lot grading plans

    Professionals produce repeatable grading and drainage layouts across multi-lot land development plans.

Best for: Fits when design teams prioritize grading, contour control, and CAD-ready outputs over automated hole routing.

Conclusion

After evaluating 8 golf course design software, QGIS 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
QGIS

Use the comparison table and detailed reviews above to validate the fit against your own requirements before committing to a tool.

Frequently Asked Questions About Golf Course Design Software

How does Rhinoceros 3D compare to QGIS for hole routing and green complex design modeling?
Rhinoceros 3D supports NURBS and terrain mesh editing inside one editable 3D model, which helps when teams refine green complex geometry and grading contours through iterative surface work. QGIS centers on map composition, survey import, and analysis layers, so it fits routing decisions that depend on geospatial processing and repeatable layer outputs. QGIS can export DWG and DXF for CAD handoff, while Rhinoceros 3D keeps the design in a CAD-grade modeling workflow.
Which tool handles survey-to-routing iteration with a repeatable analysis workflow?
QGIS fits when survey-to-analysis steps must run repeatably because Processing Modeler and Python scripting can automate multi-step transformations. Land F/X fits when hole layout decisions must stay connected to grading intent and plan sheet production from one project workflow. Civil Site Design also fits workflow-driven surface production, but it emphasizes surface and contour output over automated routing intelligence.
What breaks if a team skips DWG and DXF exchange planning between GIS and CAD tools?
If exchange formats are treated as an afterthought, QGIS outputs meant for CAD interoperability can lose layer structure or degrade how CAD teams interpret routing and boundary geometry. Rhinoceros 3D can preserve NURBS and mesh fidelity, but CAD-bound deliverables still require a consistent DWG or DXF mapping to avoid rework in downstream CAD modeling. Autodesk Civil 3D and Carlson Civil reduce this risk when the linked model and drawing automation stay aligned with the intended civil object workflow.
How does Autodesk Civil 3D’s API customization change earthwork and grading automation compared to Civil Site Design?
Autodesk Civil 3D supports .NET customization and an API surface that can standardize corridor-style earthwork generation from alignments and profiles. Civil Site Design can drive consistent surface and grading production from imported terrain, but it does not target the same API-driven civil object automation depth. The tradeoff is less programmable generation in Civil Site Design versus higher automation control and engineering-grade surface workflows in Civil 3D.
When should golf design teams choose Land F/X instead of a visualization-first tool like Lumion?
Land F/X fits when teams need construction planning outputs that connect hole routing and grading intent to documentation production. Lumion fits when visual iteration and flyover rendering matter more than parametric control of course routing or construction deliverables. Using Lumion without upstream design discipline usually shifts work to manual scene prep instead of keeping routing decisions connected to plan outputs.
How do integration and API expectations differ across QGIS, Autodesk Civil 3D, and Rhinoceros 3D?
QGIS integrates through a plugin ecosystem and a scriptable automation layer that can standardize survey import, analysis layers, and export workflows. Autodesk Civil 3D offers an API and .NET customization that can programmatically generate alignments, profiles, and grading outputs tied to civil data objects. Rhinoceros 3D emphasizes extensibility through scripting and plug-ins, which supports custom modeling tools but places more responsibility on teams to structure the data model and schema for interoperability.
Which tool is better for producing construction documentation deliverables directly from survey-backed terrain?
Carlson Civil supports survey-to-plot continuity by keeping imported terrain connected to grading and drawing production in a Carlson-centric pipeline. Land F/X also connects hole layout decisions to grading and plan sheet production from one workflow model. Autodesk Civil 3D produces construction-ready grading plans through linked civil surfaces and corridor-style earthwork objects, which fits teams that want engineering-grade deliverables tied to civil modeling objects.
What is the main tradeoff between Site3D and Autodesk Civil 3D for golf course design review workflows?
Site3D emphasizes rapid 3D layout review by turning imported terrain into quick flyover outputs for repeated client and stakeholder sessions. Autodesk Civil 3D emphasizes civil-grade surface modeling and earthwork automation tied to engineering objects and deliverables. The tradeoff is faster review output in Site3D versus higher engineering-grade grading planning and automation control in Autodesk Civil 3D.
Which tool supports the most geometry flexibility for contour modeling and surface grading edits?
Rhinoceros 3D offers the strongest geometry flexibility because it combines NURBS and mesh workflows in one modeling environment for contour modeling refinement. QGIS can support terrain and mesh toolchains, but it typically focuses on geospatial processing and layered map workflows rather than detailed freeform surface editing. Civil Site Design and Autodesk Civil 3D focus on surface modeling tied to civil workflows, which is strong for buildable contours but less centered on freeform surface control.
When do teams run into admin-control and governance issues in design pipelines with these tools?
Governance tends to be a larger concern when QGIS scripting and plugins drive automated analysis, because consistent configuration and access control are needed for repeatable outputs across teams. Autodesk Civil 3D and Carlson Civil fit organizations that need tighter control around civil drawing and deliverable generation pipelines since deliverables map to structured objects. Rhinoceros 3D extensibility via scripting can also require disciplined configuration and RBAC-style governance at the workspace level to prevent inconsistent modeling conventions.

Tools reviewed

Primary sources checked during evaluation.

Referenced in the comparison table and product reviews above.

How to Choose the Right Golf Course Design Software

Options in golf course design software mainly differ in how well they handle geometry-to-hole workflows and how accurately the tool supports routing and layout decisions with repeatable exports. The most important separation shows up in site work automation and the depth of integration and API surfaces around your existing files.

Hole routing to layout workflow

Why it matters

Hole routing to layout workflow reduces rework when routing changes ripple through tee, green, and hazard logic. A smooth, traceable workflow matters more than isolated drawing tools.

How to check

In a demo file, ask for a change: move the tee location and then update downstream elements to keep the course consistent. Check whether the software can regenerate affected layout components instead of requiring manual redraw.

Terrain model and contour handling

Why it matters

Terrain model and contour handling affects how reliably you can evaluate slopes and design intent on the ground. If edits are brittle, your later checks and revisions will be slower.

How to check

Import a sample site model (or survey) and verify that you can adjust grading/contours and see updates tied to design elements. Ask what edits remain editable versus what becomes a fixed reference.

Design to construction export set

Why it matters

Design to construction export set determines whether your layout decisions carry through to construction documentation. If exports lose critical geometry or annotations, field teams spend time reinterpreting intent.

How to check

From a created hole, export at least one planning deliverable and review whether layers, labels, and key shapes remain interpretable. Ask whether the tool supports repeat exports after edits without losing object identity.

Hazard and green complex authoring

Why it matters

Hazard and green complex authoring helps you model intent rather than just drafting shapes. With better authoring, iterative design changes stay consistent across the hole.

How to check

Try placing bunkers and modeling the green complex, then modify the green boundary and confirm whether related hazard/edge elements update according to the design relationships. Ask how snapping rules and constraints behave during edits.

API and automation for batch changes

Why it matters

Automation and API surface support repeatable revisions across multiple holes and scenarios. Without it, teams end up doing manual, error-prone rework each time routing or constraints change.

How to check

Ask for a scripted or batch workflow (for example, regenerating exports after a parameter change). In the demo, confirm the tool exposes automation hooks you can call and returns consistent outputs.

File round-trip and drawing interoperability

Why it matters

File round-trip and drawing interoperability matters when consultants or downstream workflows rely on your exports and back-and-forth edits. Data loss breaks design iteration quickly.

How to check

Perform a small edit, export a drawing format commonly used in CAD workflows, then re-import and verify that critical objects (surfaces, boundaries, labeled elements) remain aligned. Ask which objects are preserved as editable versus converted to references.

Red flags

  • Exports look right but re-imports lose labels, boundaries, or object links
  • Terrain edits force full rework instead of updating dependent design elements
  • API or automation exists only as UI macros with no reliable batch path

Fit by situation

  • If you iterate on multiple routing scenarios with frequent revisions, prioritize Hole routing to layout workflow.
  • If your projects depend on accurate site decisions from imported terrain, prioritize Terrain model and contour handling.
  • If you coordinate recurring deliverables with automation or scripts, prioritize API and automation for batch changes.
Commissioned Research

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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