GITNUXSOFTWARE ADVICE
Telecommunications ConnectivityTop 10 Best Ftth Design Software of 2026
Top 10 ftth design software ranked by features and tradeoffs for network planning teams, with examples like SPIDAcalc, Bentley, and Visio.
How we ranked these tools
Vendors set the topic, but our editors set 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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SPIDAcalc is the best fit for network-planning teams that need calculation-grade FTTH design documents with repeatable exports, while Bentley OpenComms Designer works better if you run model-driven, Bentley-centric GIS validation and deliverables; if you’re on a tight budget, Visio covers reviewed diagram-first schematics without an in-tool design engine.
Editor’s top 3 picks
Three quick recommendations before you dive into the full comparison below — each one leads on a different dimension.
SPIDAcalc
Integrated strand allocation plus splice planning keeps feeder-to-drop counts consistent during design changes.
Best for: Fits when network planning teams need calculation-grade FTTH design documents and repeatable exports.
Bentley OpenComms Designer
Editor pickModel-driven optical validation and constraint checking tied to a design database that supports regeneration for repeated what-if cycles.
Best for: Fits when network planning teams need model-driven design validation with Bentley-centric GIS and deliverables.
Visio
Editor pickShape stencils with custom data fields enable repeatable FTTH diagram templates and attribute reporting.
Best for: Fits when teams need reviewed, diagram-first FTTH artifacts without an in-tool design engine.
Comparison Table
SPIDAcalc
vertical specialistTelecommunications design software for overhead and underground fiber network planning and structural analysis.
Integrated strand allocation plus splice planning keeps feeder-to-drop counts consistent during design changes.
SPIDAcalc is built for repeated design iterations where fiber route planning, strand allocation, and loss budget checks stay consistent across spreadsheets and reports. It supports splice planning and splitter assignment logic, which reduces rework when demand points or service area boundaries change mid-project. Output generation emphasizes engineering documentation and design deliverables, including file exports that can feed other planning or drafting tools.
A key tradeoff is that governance and automation depth depends on how design artifacts are exported and re-imported rather than on a direct API-first workflow. SPIDAcalc fits teams that run frequent desktop planning cycles and need traceable calculation outputs for engineering review rather than continuous data synchronization across GIS, CAD, and provisioning systems.
- +Worksheet-based planning keeps strand counts aligned across routes and splices
- +Splitter assignment logic supports both centralized and distributed splitting approaches
- +Loss budget calculations stay tied to the same cable and path assumptions
- +Engineering exports support CAD and mapping handoff workflows
- –Automation and integration rely heavily on export and rework rather than API control
- –Design governance controls like RBAC and audit logs are not the primary focus
- –Advanced GIS-style constraints require external data preparation
FTTH engineering teams
Iterate demand and reroute fibers
Fewer rework loops
OSP planning coordinators
Document routes and splicing locations
Clear engineering deliverables
Show 2 more scenarios
Outside plant managers
Compare splitting assignment strategies
Faster topology tradeoffs
Run centralized versus distributed splitting assumptions and track resulting design impacts.
Drafting and design support
Export CAD or mapping artifacts
Shorter handoff time
Generate export files that support drafting updates and review cycles in other tools.
Best for: Fits when network planning teams need calculation-grade FTTH design documents and repeatable exports.
Bentley OpenComms Designer
enterpriseTelecommunications design software supports outside-plant engineering and fiber network planning.
Model-driven optical validation and constraint checking tied to a design database that supports regeneration for repeated what-if cycles.
OpenComms Designer is used to build a network design model and validate optical constraints through calculated engineering checks. It supports exporting design results into formats commonly used for downstream drafting and field coordination, which reduces manual rework between planning and documentation.
A tradeoff appears in project setup effort, since teams often need clean GIS alignment and consistent fiber and splitter assumptions before automated checks become reliable. It fits best when a planning group must regenerate designs repeatedly after route changes, demand updates, or equipment substitutions.
- +Engineering checks for optical constraints built into the design workflow
- +Model-driven outputs reduce repeat work across design and documentation
- +Bentley-oriented integration path for GIS and engineering deliverables
- +Repeatable regeneration when routes, counts, or equipment change
- –Design accuracy depends on consistent GIS and inventory alignment
- –Workflow setup and template management take time for first deployments
- –Automation depth can feel constrained for teams needing custom planning engines
- –Deliverable tailoring may require additional configuration effort
Fiber network planning teams
Re-run designs after route edits
Faster iteration cycles
GIS and network engineering groups
Convert spatial inventory into design context
Less manual reconciliation
Show 1 more scenario
Design assurance reviewers
Check optical reach and loss assumptions
Fewer late-stage design defects
Verify that fiber and equipment assumptions meet engineering limits before releases.
Best for: Fits when network planning teams need model-driven design validation with Bentley-centric GIS and deliverables.
Visio
SMBDiagramming application widely used for FTTH network schematic design and documentation.
Shape stencils with custom data fields enable repeatable FTTH diagram templates and attribute reporting.
Visio fits FTTH drawing work where the required deliverable is a marked-up outside plant map, feeder-to-drop relationship sketch, or a splice and route diagram that teams can review in the same document. Shape stencils and custom layers help teams keep conventions for cable types, spans, and node symbols consistent across service areas. It also integrates with Microsoft 365 document workflows, so diagram updates can move through standard review cycles.
A key tradeoff is that Visio does not provide a built-in loss budget calculator, splitter assignment optimizer, or PON-specific design rule engine, so engineering logic often has to come from external tools. Visio is best used when the planning process already produces structured inputs, and diagrams need to reflect them via manual mapping, guided layout, and repeatable stencils.
- +Stencil-based symbols make consistent FTTH diagram conventions easier
- +Shapes and connectors support repeatable topology drawing across projects
- +Office document collaboration fits standard review and markup processes
- +Export formats support diagram distribution and archiving
- –No native PON design rules, so engineering calculations need external tools
- –Network changes often require manual updates to keep diagrams accurate
- –Large GIS-like datasets can become slow compared with map-first planners
- –Automation depends on add-ons and document scripting work
Network planning engineers
Create review-ready route and splice diagrams
Faster internal design reviews
Field engineering teams
Maintain work package diagram standards
Lower rework during installs
Show 1 more scenario
Project managers
Track design revisions in documents
Clearer revision history
Teams use document workflows to collect markup, version diagrams, and share project artifacts.
Best for: Fits when teams need reviewed, diagram-first FTTH artifacts without an in-tool design engine.
3-GIS Fiber Management System
vertical specialistFiber network software manages outside-plant design, inventory, and operational records.
Fiber strand allocation and splice planning remain linked to spatial asset records for controlled change tracking.
3-GIS Fiber Management System is a FTTH network design and management software focused on outside-plant workflows tied to mapping and inventory. It supports fiber route planning with asset tracking for poles, conduits, splice closures, and fiber strand allocation, so network changes stay linked to field objects.
- +Asset-backed fiber route planning ties routes to concrete OSP inventory objects
- +Fiber strand allocation and splice planning stay auditable through managed fiber records
- +CAD and GIS-oriented export options support engineering handoffs and field updates
- +Centralized data storage reduces mismatch between design geometry and managed assets
- –Complex designs can require careful configuration to keep allocation rules consistent
- –Automation depth for bulk what-if scenarios is less documented than mapping-driven workflows
- –Advanced PON modeling coverage depends on the way designs map into its managed objects
- –Role and governance controls appear lighter than in enterprise-centric planning stacks
Best for: Fits when teams manage OSP inventory and fiber allocations in one system for controlled FTTH updates.
RapidPlan
SMBNetwork planning and diagramming tool used by telecommunications providers for fiber route design.
Strand allocation and splice planning stay tied to a configurable workflow, so scenario edits update the downstream closure and allocation results.
RapidPlan performs fiber access network planning from demand modeling through route and splice planning to BOM-ready outputs for FTTH build design. It focuses on a configurable workflow for strand allocation and splice closures so teams can keep assumptions consistent across iterative scenarios.
- +Configurable planning workflow keeps strand and splice logic consistent across iterations
- +Exports support handoff from planning outputs to external GIS and CAD processes
- +Loss and capacity checks run off the planned topology for scenario comparison
- +Scenario reuse reduces rework when demand points or routes change
- –Workflow setup requires clear conventions for naming and allocation rules
- –Admin controls for cross-team collaboration are less granular than GIS-first planning stacks
- –Advanced automation depends on disciplined project configuration rather than plug-in scripting
- –Bulk changes across large projects can be slower than route-first GIS editors
Best for: Fits when network planning teams need repeatable FTTH design calculations and export-ready deliverables across scenarios.
IQGeo Comsof Fiber
vertical specialistAutomated software designs fiber access networks from customer demand and geographic data.
Loss budget-driven design validation tied directly to the model used for route and splitter planning.
IQGeo Comsof Fiber targets FTTH design teams that need GIS-based outside plant mapping tied to fiber route planning and structured network assets. It focuses on configuration for splitter-based access topologies, including optical power and loss budget workflows used during design iterations.
- +GIS-first workflows keep outside plant context attached to fiber routes
- +Topology and splitter assignment support repeatable design configurations
- +Loss budget workflows align fiber planning with optical feasibility checks
- +CAD and KML export paths support downstream engineering and GIS layers
- –Advanced modeling and automation need disciplined setup and admin time
- –Automation coverage can be narrower for fully custom provisioning pipelines
- –Complex projects may require tight data normalization across GIS layers
- –Some integrations rely on export-based handoffs instead of live APIs
Best for: Fits when network planning teams need GIS-linked fiber design governance and repeatable topology outputs.
Esri ArcGIS for Telecommunications
enterpriseGIS software supports fiber network planning, engineering, mapping, and asset management.
Telecommunications-oriented GIS data management for map-based network editing and constraint-aware design workflows.
Esri ArcGIS for Telecommunications brings FTTH fiber planning into a GIS-centered workflow with map-based asset modeling and network editing. It supports loss, connectivity, and route workflows by combining telecommunications data management with Esri spatial tools used for outside plant inventory.
- +GIS-native asset editing keeps fiber routes aligned with pole and conduit inventory
- +Geospatial automation supports repeatable design updates across service areas
- +Telecommunications data configuration improves consistency across planners and projects
- +Extensibility with Esri APIs supports custom validation and export pipelines
- –FTTH-specific design steps require careful configuration across multiple GIS components
- –High-volume route processing can strain throughput without targeted data design
Best for: Fits when network planning teams need GIS-driven FTTH designs with automation and custom validation.
Hexagon Smallworld
enterpriseTelecom GIS software models network assets, connectivity, and geographic infrastructure.
Spatially driven engineering workflows that keep FTTH edits tied to governed GIS features and geometry across scenarios.
Hexagon Smallworld is an FTTH design environment that couples network planning with GIS-centric data handling for outside-plant and fiber route workflows. It is built around a spatial data model used for feature management, edits, and scenario work across cable routes, assets, and service areas.
- +GIS-native data editing supports controlled outside-plant updates
- +Scenario planning fits multi-team design iterations
- +Export workflows support engineering handoff and field preparation
- +Access control supports engineering governance across roles
- –FTTH-specific workflows depend on configured libraries and templates
- –Workflow depth can increase training time for planning teams
- –API automation breadth needs validation against local deployment needs
- –Visualization for rapid what-if iterations can feel heavier than CAD-only tools
Best for: Fits when GIS-led fiber design teams need governed edits, scenario iterations, and engineering exports.
FNT Command
enterpriseInfrastructure management software documents fiber, sites, connections, and network capacity.
End-to-end design traceability from outside-plant route elements through splitter assignment and strand allocation in a single working model.
FNT Command performs FTTH fiber route planning with an interactive design workflow that ties outside-plant geometry to splitter-based build decisions. It supports PON topology modeling with splitter placement and strand allocation steps aimed at producing constructible fiber schedules.
- +Interactive outside-plant design workflow links routes to downstream fiber build outputs.
- +Splitter assignment and strand allocation support constructible PON build planning.
- +Project-level change history supports review of design modifications over time.
- +Engineering exports support handoff from planning to field documentation.
- –Advanced automation often needs deliberate configuration to match team standards.
- –GIS import coverage can require pre-normalizing base map data formats.
- –Large-network performance tuning may be needed for dense route datasets.
- –API depth for custom integration depends on available integrations and scripting hooks.
Best for: Fits when engineering teams need traceable fiber routing and splitter-to-strand planning in one workflow.
Setics Sttar
vertical specialistSetics Sttar plans FTTH deployments with route engineering, demand analysis, cost modeling, and network architecture design.
Rule-consistent fiber strand allocation that stays aligned with splitter assignments across the design workflow.
Setics Sttar is an FTTH design tool focused on turning planning inputs into field-ready fiber routing and strand allocation outputs. It supports outside plant mapping workflows, feeder and distribution fiber planning, and loss budget checks tied to topology decisions.
- +End-to-end FTTH fiber routing workflow from planning inputs to allocation outputs
- +Topology-driven planning that keeps assignments consistent across service areas
- +Loss budget checks connected to design decisions for PON feasibility
- +Exports support handoff into CAD and GIS drafting workflows
- –Configuration depth can slow onboarding for small teams
- –Smaller organizations may need process discipline to keep inventories consistent
- –Automation coverage depends on modeled project structure and data completeness
- –Some drafting outputs require manual refinement for final map styling
Best for: Fits when FTTH planning teams need repeatable fiber routing, allocation, and feasibility checks across multiple service areas.
Conclusion
After evaluating 10 ftth design software, SPIDAcalc 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 Ftth Design Software
FTTH design software organizes fiber access network planning from outside-plant geometry to splitter and strand allocation, so design teams can regenerate diagrams and build documents after each constraint change. This guide covers SPIDAcalc, Bentley OpenComms Designer, Visio, 3-GIS Fiber Management System, RapidPlan, IQGeo Comsof Fiber, Esri ArcGIS for Telecommunications, Hexagon Smallworld, FNT Command, and Setics Sttar.
Teams choose between worksheet-based calculation tools like SPIDAcalc and model-driven GIS design workflows like Bentley OpenComms Designer and IQGeo Comsof Fiber. For diagram-first teams, Visio focuses on template-driven FTTH schematics without native PON design rules, while FNT Command emphasizes end-to-end traceability from route elements to splitter-to-strand planning.
FTTH Design Software for fiber routing, PON topology, and splitter-to-strand planning
FTTH design software supports fiber route planning and PON topology configuration by linking outside-plant features to distribution fiber, splice planning, splitter assignment, and fiber strand allocation outputs. In SPIDAcalc, worksheet-based planning keeps strand counts aligned across routes and splices, with splitters handled for both centralized and distributed splitting approaches.
In Bentley OpenComms Designer, optical constraint checking runs inside a model-driven design workflow that regenerates repeat what-if cycles from the design database. For diagram-centric teams, Visio uses custom shape stencils with data fields to standardize FTTH diagram templates, but it leaves PON engineering calculations to external tools because it has no native PON design rules.
FTTH Design Software features that determine calculation quality and design control
FTTH design software drives fiber access network planning outputs like feeder-to-drop strand counts, closure build inputs, splitter assignments, and traceable route-to-allocation relationships. Those outputs must stay consistent when service-area boundaries and constraints change.
Teams also need automation and integration surfaces that match how they update outside-plant and documentation. Worksheet calculation, model-driven regeneration, and GIS-native editing each change how design governance and auditability work during iterative what-if cycles.
Strand allocation and splice planning that stay linked to design edits
SPIDAcalc keeps strand counts consistent by coupling integrated strand allocation with splice planning during design changes. RapidPlan anchors strand allocation and splice planning to a configurable workflow so edits update downstream closure and allocation results.
Splitter assignment logic tied to topology and repeatable PON configuration
SPIDAcalc includes splitter assignment logic that supports centralized and distributed splitting approaches inside the same planning workflow. FNT Command links splitter assignment with constructible PON build planning so routing traceability continues into build outputs.
Model-driven optical validation and constraint checking
Bentley OpenComms Designer ties model-driven optical validation and constraint checking to a design database that regenerates what-if cycles. IQGeo Comsof Fiber uses loss budget-driven design validation directly against the model used for route and splitter planning.
GIS-first asset alignment for outside-plant context and governed edits
IQGeo Comsof Fiber uses GIS-first workflows so outside-plant context stays attached to fiber routes while topology and splitter assignment support repeatable configurations. Esri ArcGIS for Telecommunications and Hexagon Smallworld both support telecommunications-oriented GIS data management or governed spatial engineering workflows for scenario iteration and exports.
Inventory-backed traceability across route elements to build outputs
3-GIS Fiber Management System links fiber route planning to concrete OSP inventory objects so allocation and splice planning remain auditable through managed fiber records. FNT Command preserves end-to-end design traceability from outside-plant route elements through splitter assignment and strand allocation in one working model.
Diagram template automation when engineering calculations live outside the tool
Visio uses shape stencils with custom data fields to standardize FTTH diagram templates and attribute reporting. This approach suits diagram-first artifact production while engineering calculations require external tools because Visio has no native PON design rules.
Choose an FTTH design workflow based on where the calculation truth must live
FTTH design teams usually differ in where they want calculation truth to reside. Some workflows treat strands, splices, splitters, and documents as one worksheet or working model. Other workflows treat GIS as the authoritative geometry layer and bolt on telecommunications validation rules.
A second decision point is control depth for regeneration and automation. Model-driven engines regenerate results from a design database while worksheet engines recompute based on planning inputs and export pipelines. The right choice depends on how frequently constraints, inventory, and service-area boundaries change during planning cycles.
Pick worksheet or working-model planning when strand and splice consistency must survive design changes
Select SPIDAcalc when strand counts must remain aligned across routes and splices as design changes occur, because its worksheet-based planning keeps those counts consistent and splitter assignment supports both centralized and distributed splitting. Choose RapidPlan when the planning workflow needs to be configurable so scenario edits update closure and allocation results through the same strand and splice logic.
Pick model-driven optical validation when optical constraints must regenerate from a design database
Choose Bentley OpenComms Designer when constraint checking and optical validation must run inside a model-driven design workflow that regenerates repeat what-if cycles from a design database. Choose IQGeo Comsof Fiber when loss budget-driven validation must stay tied directly to the model used for route and splitter planning.
Pick GIS-first governance when outside-plant inventory must stay synchronized to FTTH edits
Choose IQGeo Comsof Fiber when GIS-first workflows should keep outside-plant context attached to fiber routes while topology and splitter assignment support repeatable design configurations. Choose Hexagon Smallworld or Esri ArcGIS for Telecommunications when governed spatial engineering workflows or telecommunications-oriented GIS editing automation must handle multi-team scenario iteration and exports.
Pick end-to-end traceability when route elements must remain traceable into splitter-to-strand build planning
Choose FNT Command when an interactive outside-plant design workflow must link routes to downstream fiber build outputs so splitter assignment and strand allocation stay traceable in one working model. Choose 3-GIS Fiber Management System when fiber route planning must be tied to managed OSP inventory objects so allocation and splice planning remain auditable.
Pick diagram-first tooling when engineering computations are documented elsewhere
Choose Visio when teams need reviewed FTTH diagrams built from stencil-based symbols with custom data fields for consistent topology drawing and attribute reporting. Plan for external engineering calculations because Visio provides no native PON design rules for loss or splitter engineering checks.
Who should use FTTH Design Software based on workflow priorities
FTTH network planning teams typically choose tooling based on whether the work requires repeatable strand and splice calculations, model-driven optical validation, GIS-governed edits, or diagram production with standardized conventions. The best fit depends on how design changes propagate across planning outputs and documentation.
Teams managing multiple service areas also need consistency across iterations and controlled change tracking when inventory and allocation rules must match across closure and build artifacts.
OSP-to-build planning teams that must keep feeder-to-drop counts consistent across iterations
SPIDAcalc and RapidPlan keep strand allocation and splice planning aligned with route changes so downstream closure and allocation outputs remain consistent when scenarios shift.
Teams running optical feasibility checks during design rather than after delivery
Bentley OpenComms Designer and IQGeo Comsof Fiber integrate constraint or loss budget validation into the design workflow so optical checks regenerate with the design database model.
GIS-governed OSP editing teams that treat spatial assets as the foundation
IQGeo Comsof Fiber, Esri ArcGIS for Telecommunications, and Hexagon Smallworld focus on GIS-linked editing and scenario iteration so outside-plant geometry and constraints stay synchronized to FTTH design edits.
Engineering teams that need a single traceable model from outside-plant elements to splitter-to-strand outputs
FNT Command provides end-to-end traceability through outside-plant route elements, splitter assignment, and strand allocation in one working model. 3-GIS Fiber Management System also ties planning outputs to inventory-backed fiber route objects for auditable change tracking.
Teams producing FTTH schematics and attribute-ready diagrams with a calculation tool elsewhere
Visio supports stencil-based FTTH diagram conventions using shapes and connectors plus custom data fields, but it requires external engineering calculations because it has no native PON design rules.
Common FTTH Design Software mistakes during tool selection and rollout
Teams often underestimate how much design governance depends on the workflow engine rather than on the diagram output layer. A tool that draws consistent diagrams can still break engineering consistency if its calculations are disconnected from the planning model.
Another recurring mistake is selecting based on GIS capabilities alone while ignoring how splitter assignment, strand allocation, and optical validation must regenerate during what-if cycles. The planning team needs a concrete automation and regeneration path for the specific deliverables they publish.
Choosing a diagram-first tool when engineering calculations must stay inside the same planning workflow
Visio can standardize FTTH diagram templates with stencil symbols and custom fields, but it lacks native PON design rules so strand and splitter engineering checks must run elsewhere.
Breaking the linkage between strand allocation and splice planning during scenario changes
SPIDAcalc and RapidPlan keep strand and splice logic coupled so edits propagate into closure and allocation results, while disconnected spreadsheet workflows often require manual reconciliation.
Assuming GIS alignment is automatic when GIS components and inventory feeds require configuration
Bentley OpenComms Designer and IQGeo Comsof Fiber can deliver model-driven constraint checking or loss budget validation only when GIS and inventory alignment stays consistent, and first deployments often require workflow template setup.
Selecting for traceability without verifying how splitter-to-strand outputs align with the build planning steps
FNT Command provides end-to-end traceability from route elements to splitter and strand allocation, while teams still need deliberate configuration so automation matches team standards.
How We Selected and Ranked These Tools
We evaluated SPIDAcalc, Bentley OpenComms Designer, Visio, 3-GIS Fiber Management System, RapidPlan, IQGeo Comsof Fiber, Esri ArcGIS for Telecommunications, Hexagon Smallworld, FNT Command, and Setics Sttar against FTTH design planning needs that include strand allocation, splitter assignment, optical or loss budget validation, and traceable outputs. Features accounted for 40% of the score and ease and value accounted for 30% each.
SPIDAcalc ranked highest because its integrated strand allocation plus splice planning keeps feeder-to-drop counts consistent during design changes and its splitter assignment logic supports both centralized and distributed splitting approaches. Ease and value also scored highly because worksheet-based planning keeps strand counts aligned across routes and splices while supporting repeatable exports for network planning deliverables.
Frequently Asked Questions About Ftth Design Software
How do SPIDAcalc and RapidPlan keep feeder-to-drop strand counts consistent during scenario changes?
Which tools in the list generate CAD or mapping exports directly from FTTH design models?
When does Visio fit best compared with model-driven planners like Bentley OpenComms Designer?
What breaks if a team relies on a diagram-first tool like Visio for splitter-based loss budget validation?
How do IQGeo Comsof Fiber and Hexagon Smallworld handle GIS-linked governance for edits across scenarios?
Which tool provides tighter end-to-end traceability from outside-plant route elements to splitter assignment and strand allocation?
How do integrations differ between Esri ArcGIS for Telecommunications and Bentley OpenComms Designer for GIS-centric planning?
What admin controls and audit visibility matter most for multi-team engineering governance in FNT Command and Hexagon Smallworld?
When teams manage feeder and distribution planning across multiple service areas, where does Setics Sttar fit?
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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