GITNUXSOFTWARE REVIEW
Manufacturing EngineeringTop 10 Best Wood Structural Design Software of 2026
Compare wood structural design software options for engineers, focusing on modeling workflows and tool tradeoffs to shortlist for projects.
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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SCIA Engineer is the best pick for teams needing analysis-linked wood verification and repeatable documentation during iterative submittals, since wood checks run directly from the analysis model and changes propagate without separate re-entry, while PAMIR fits shops that want connection- and member-check workflows built for repeated revision cycles.
Editor’s top 3 picks
Three quick recommendations before you dive into the full comparison below — each one leads on a different dimension.
SCIA Engineer
Wood verification runs directly from the analysis model so changes propagate to check results without separate re-entry.
Best for: Fits when teams need analysis-linked wood checks and consistent documentation for iterative submittals.
S-FRAME
Editor pickDesign automation that drives timber member checks and connection-oriented outputs from a project data workflow.
Best for: Fits when structural teams need repeatable timber member and connection design output from BIM-derived geometry.
PAMIR
Editor pickConnection and member verification workflow built for iterative design checks tied to the same project model data.
Best for: Fits when wood structural teams need consistent check outputs and repeated runs across design revisions.
Comparison Table
SCIA Engineer
enterpriseStructural analysis and design platform with timber design support for multi-material engineering projects.
Wood verification runs directly from the analysis model so changes propagate to check results without separate re-entry.
SCIA Engineer supports wood structural design checks that run from the same modeling data used for analysis, which reduces the handoff gap between geometry and verification outputs. It is practical for teams that need consistent documentation and repeatable result sets for multiple design iterations, especially when design cases share common model structures.
A key tradeoff is that BIM interoperability tends to be more oriented toward exchanging geometry and loads than preserving authoring intent for wood framing details. It fits well when Revit linking is used to seed model geometry and loading, then SCIA Engineer performs the analysis and wood-specific verification in its own calculation workflow.
- +Single-model workflow ties analysis setup to wood verification outputs
- +Result reporting supports repeatable documentation across design cases
- +Connection and deflection checks keep verification steps in one place
- +IFC export supports downstream review and coordination
- –Wood detailing precision is limited compared with framing-first modeling tools
- –Model exchange can require extra mapping after external BIM imports
- –Automation needs setup discipline for consistent case management
- –Some wood-specific authoring tasks depend on structured input preparation
Structural design offices
Iterative wood verification and reports
Faster revision turnarounds
Consulting engineers
Connection design verification workflow
Fewer cross-check errors
Show 1 more scenario
Project BIM coordinators
IFC coordination for wood models
Clearer model handoffs
Export model information for coordination while SCIA Engineer owns calculation verification.
Best for: Fits when teams need analysis-linked wood checks and consistent documentation for iterative submittals.
S-FRAME
enterpriseStructural analysis and design software with timber design support for building and industrial structures.
Design automation that drives timber member checks and connection-oriented outputs from a project data workflow.
S-FRAME performs wood structural design workflows that convert project geometry into design checks and connection-oriented outputs for timber members. The tool focuses on code-aligned checks and detail generation tied to typical timber construction deliverables.
It also supports file-based interoperability for model exchange into broader BIM workflows. The overall differentiation is its emphasis on wood-specific design automation rather than general-purpose structural modeling.
- +Wood member design checks are tailored to timber workflows
- +Connection-focused outputs reduce manual detail chasing
- +Interoperability supports moving geometry between BIM toolchains
- +Repeatable calculations support consistent iterations
- –Automation depth depends on correct input modeling discipline
- –Connection scenarios outside typical timber detailing need extra manual work
- –BIM integration requires careful model mapping for reliable results
- –Advanced customization is limited compared with general structural toolchains
Timber structural engineers
Design timber framing members and connections
Verified frame designs for iteration
Structural drafting teams
Generate fabrication-aligned 2D drawings
Drawings synced to the model
Show 1 more scenario
Structural design reviewers
Review frame behavior across load cases
Review-ready analysis results
Inspect reactions and internal force trends to support design iteration and verification review.
Best for: Fits when structural teams need repeatable timber member and connection design output from BIM-derived geometry.
PAMIR
vertical specialistTimber engineering software for design, detailing, and production of wood construction systems.
Connection and member verification workflow built for iterative design checks tied to the same project model data.
PAMIR, from hsbcad.com, targets wood structural design workflows with an emphasis on connection and member verification that fit engineering deliverables. It supports model-to-check processing for typical wood structural tasks like beam deflection and connection design rather than only drafting output.
Automation is geared toward repeated calculations across revisions so teams can keep results aligned with the updated geometry. Output is positioned for documentation use cases that depend on consistent design checks across LRFD and ASD style projects.
- +Workflow focus on wood member checks instead of drawing-only output
- +Repeatable calculation runs support revision cycles in production projects
- +Connection design coverage aligns with common wood detailing deliverables
- +Check outputs are structured for report-style documentation
- –Integration depth depends on external CAD handoff steps
- –Governance controls and audit logging are not clearly defined for multi-user teams
Structural engineers
Verify beam checks from geometry changes
Consistent checks after revisions
Connection-focused design teams
Process connection design deliverables
Connection verification for reports
Show 1 more scenario
Wood design documentation teams
Maintain aligned outputs for revisions
Stable results across iterations
Repeat calculations across project revisions so deflection and connection results stay consistent.
Best for: Fits when wood structural teams need consistent check outputs and repeated runs across design revisions.
SkyCiv Structural 3D
SMBCloud structural analysis platform with wood and timber design checks in an online workflow.
3D model driven deflection and capacity checking tied to documentation exports for faster design iteration cycles.
SkyCiv Structural 3D is a wood structural design environment built around a 3D structural model workflow and engineering checks. The tool supports beam and frame analysis with deflection and member capacity checks, then extends into connection and detailing oriented outputs for practical deliverables.
- +Single 3D model workflow reduces re-entry of geometry for multiple checks
- +Built-in deflection evaluation supports iterative serviceability decisions
- +Model-driven outputs help keep drawings aligned with analysis results
- +IFC-oriented exchange supports coordination handoffs with other tools
- –Wood-specific detailing depth is thinner than BIM-first platforms for connections
- –Connection design workflows can require more manual attention than frame checks
- –Automation for recurring project templates is limited for large multi-team setups
- –Complex tall wood modeling may need disciplined meshing and load case setup
Timber and wood engineers
Size members for gravity and lateral loads
Timber capacity outputs
Residential structural designers
Run one-model residential design checks
Consistent documentation outputs
Show 1 more scenario
Structural detail coordinators
Reuse analysis results for detailing outputs
Reduced redesign effort
Carry deflection and capacity checks into connection and detailing oriented deliverables.
Best for: Fits when teams need 3D frame modeling with reliable reuse of analysis and documentation for wood framing and general timber systems.
Autodesk Robot Structural Analysis Professional
enterpriseStructural analysis software for buildings and civil structures with timber design capabilities in broader workflows.
Integrated design checking that runs directly from the same analysis model results, reducing mismatch between analysis and design documentation.
Robot Structural Analysis Professional covers standard analysis needs like load combinations, member forces, and code-based checks within one model. The timber workflow typically relies on defining structural members and assigning material and design parameters so checks run directly from the analysis results. BIM handoff is supported through IFC export and Revit linking, which helps keep geometry and model updates aligned between analysis and authoring.
- +Integrated analysis and design checking in one project model
- +Revit linking plus IFC export supports practical BIM handoff
- +Report generation supports repeated documentation for design iterations
- +Fast load case recalculation supports iterative modeling work
- –Timber detailing and fabrication outputs require external workflows
- –Timber model setup needs careful member and support definition
- –API automation takes time to set up and standardize across teams
- –Complex code parameter management can add overhead for custom standards
Structural engineering teams
Iterate timber frames with consistent checks
Faster iteration cycles
BIM coordination leads
Sync analysis models with Revit
Reduced model drift
Show 2 more scenarios
Engineering consultants
Standardize project documentation outputs
Less rework in deliverables
Generate consistent reports from the analysis model to document timber member results across projects.
Office admins
Control modeling standards across users
More consistent submissions
Standardize templates and modeling conventions so teams produce repeatable analysis setup for timber studies.
Best for: Fits when teams need consistent member-level checks with BIM-linked iterations.
FRILO Timber Construction
enterpriseFRILO offers timber design modules for structural verification of wood members and timber building elements.
Connection design checks are built into a calculation workflow that keeps member and connection assumptions aligned across iterations.
FRILO Timber Construction centers on timber member design and connection design workflows, including stiffness checks like deflection verification and resistance checks for structural action effects. The calculation flow is built around setting up members, defining actions, and running checks tied to design assumptions so results remain consistent across re-runs. Outputs are organized for review and handoff, which helps when structural engineers need to reproduce the same verification steps during design revisions.
- +Timber member checks and connection design run from one consistent calculation workflow
- +Re-run friendly load case and geometry inputs for design iteration and revision control
- +Deflection and resistance verification are integrated into the same engineering sequence
- +Outputs are organized for calculation review and documentation handoff
- –Deep timber focus can limit fit for mixed material, large-scale modeling workflows
- –Automation depth depends on how projects standardize input data and naming conventions
- –Graphical modeling flexibility is not its primary strength compared with general modeling tools
- –Connection detailing may require more manual setup for nonstandard geometries
Structural engineering teams
Iterate connection sizing across project revisions
Faster design iteration cycles
Timber framing designers
Standardize repetitive bay designs
Lower redesign effort
Show 1 more scenario
Small engineering offices
Produce calculation-based design documentation
More consistent deliverables
The calculation workflow organizes verification results for review and handoff on timber projects.
Best for: Fits when timber structural engineers need repeatable member and connection calculations with revision-friendly re-runs.
FEM-Design
vertical specialistFinite element design software from StruSoft with timber design modules compliant with Eurocode 5.
Wood-oriented finite element design workflow that ties FE results to timber member and stability checks within one model cycle.
FEM-Design performs finite element analysis for wood structural systems, including member and panel behavior under loads. Strusoft pairs that analysis core with wood-oriented design workflows for glulam and other engineered timber elements, plus connection and stability checks tied to structural results.
- +Finite element workflow supports detailed wood member and panel response modeling
- +Wood-focused design checks connect analysis output to timber design steps
- +Iterative model changes stay within one analysis-to-check workflow
- +Exchange workflows support mixed CAD and BIM project pipelines
- –GUI-driven setup can be slower than CAD-centric workflows for routine frames
- –Workflow depth requires training to prevent analysis assumptions from drifting
- –Automation depends heavily on how each model is structured in the FE model
- –Advanced project governance features like RBAC and audit logging are not evident in core tooling
Engineering teams
Compare FE structural alternatives
More consistent option comparisons
Timber structural engineers
Verify timber members and connections
Verified timber behavior
Show 1 more scenario
Truss and frame design teams
Design with stability checks
Stability and resistance checks
Create node-and-member models with supports, releases, and load combinations for axial and stability checks.
Best for: Fits when FE-based wood design iterations matter more than CAD-centric detailing automation.
SOFiSTiK
enterpriseFinite element analysis and design software with timber design modules supporting Eurocode 5 provisions.
Finite element analysis workflow with structured results handling that supports traceable verification cycles.
SOFiSTiK is used by structural teams that need a calculation workflow tied closely to building models and detailed member checks. It focuses on finite element analysis with constraint, load, and results processing geared for structural verification workflows across complex geometries.
- +FEA-centered workflow keeps internal forces consistent for follow-on checks
- +Model-to-analysis integration supports repeatable geometry and load revisions
- +Detailed results processing helps generate traceable verification reports
- +Extensible rule configuration supports team-specific design checking
- –Wood-specific detailing workflows can feel less streamlined than general CAD-struct tools
- –Automation depends on disciplined input structure and workflow conventions
- –Setup for complex projects can require more configuration effort than expected
- –Interoperability demands careful management of geometry fidelity and units
Precast engineers
Produce member and connection design outputs
Coordinated fabrication documents
Foundation and slab designers
Assess foundation and slab structural checks
Connected foundation decisions
Show 1 more scenario
Structural analysis teams
Maintain traceable member checks across revisions
Traceable design results
Update thin-walled framing capacity checks and regenerated calculation reports when models change.
Best for: Fits when teams need tightly coupled analysis-to-check workflows and detailed verification reporting for wood structures.
Mitek SAPPHIRE Structure
vertical specialistWood framing design software for trusses, wall panels, floors, and manufacturing workflows.
Connection-focused design workflow that ties connection selection and detailing-ready documentation to the framing model.
Mitek SAPPHIRE Structure is a wood structural design tool used for producing analysis outputs around beams, framing, and connections with an emphasis on wood-specific workflows. It supports design checks across common code paths and can drive documentation and calculation packages from structured model inputs.
- +Wood framing and connection workflow keeps design intent traceable in outputs.
- +Code-driven design checks reduce manual recalculation during revisions.
- +Calculation documentation is generated from structured model inputs.
- +Interoperability supports handoffs into common CAD and downstream detailing steps.
- –Tall wood and mass timber workflows may need tighter definition than some general structural tools.
- –Automation and API surface are limited compared with software that supports scripted model edits.
- –Revit-centric model authoring often requires extra mapping steps for round-trip consistency.
- –Some nonstandard detailing flows rely on manual adjustment after design checks.
Wood framing designers
Design beams, framing, and connections
Wood-specific structural outputs
Timber documentation teams
Create calculation packages from models
Consistent calculation packages
Show 1 more scenario
Fabrication handoff coordinators
Map design intent to exportable deliverables
Export-ready framing deliverables
Use a framing and connection workflow that connects design intent to downstream detailing exports.
Best for: Fits when wood structural teams need repeatable framing and connection documentation from a managed design workflow.
Graitec Advance Design
enterpriseStructural analysis software with code-based design workflows that include timber checks in supported regions.
Timber connection and verification reporting tied to configurable check templates for repeatable design pack generation.
Graitec Advance Design is a wood structural design workflow built around member, connection, and verification tools used in everyday structural checking. The software links model data across structural design, detailing workflows, and output packages needed by timber projects.
- +Connection-oriented outputs help reduce manual handoffs for timber detailing packages
- +Template-driven checks support repeatable verification workflows across projects
- +IFC exchange supports BIM interoperability for coordination with other design tools
- +Model-to-report structure supports consistent deliverables for LRFD and ASD-style workflows
- –Automation depth depends on disciplined configuration of templates and check parameters
- –Advanced automation and API extensibility are not the primary focus compared with code-first toolchains
- –Timber detailing coverage can require extra local libraries for specific hold-down families
- –Large model performance can depend on export and referencing strategy during iteration
Structural timber engineers
Size timber beams and columns
Repeatable sizing and schedules
Structural design and reporting teams
Regenerate reports after model changes
Traceable design documentation
Best for: Fits when teams need consistent timber checks and report outputs with BIM exchange into wider design workflows.
Conclusion
After evaluating 10 wood structural design software, SCIA Engineer 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 Wood Structural Design Software
Wood structural design software for structural engineers typically blends member checks, connection design, and analysis-linked verification into one workflow, then exports documentation that stays consistent across design revisions. This buyer's guide covers FRILO Timber Construction, SCIA Engineer, Autodesk Robot Structural Analysis Professional, SkyCiv Structural 3D, S-FRAME, Mitek SAPPHIRE Structure, PAMIR, Graitec Advance Design, FEM-Design, and SOFiSTiK.
The tools in this list differ most in how verification results stay tied to the analysis or framing model and how much automation they provide for timber-specific connection-oriented outputs. FRILO Timber Construction focuses on connection design checks inside a single calculation workflow, while SCIA Engineer runs wood verification directly from the analysis model so changes propagate into check results.
Wood Structural Design Software that unifies timber member and connection verification workflows
Wood structural design software supports structural engineers by calculating timber member capacity and running connection design checks tied to the same project inputs used for verification. FRILO Timber Construction builds connection design checks into its calculation workflow so member and connection assumptions remain aligned during iterative re-runs.
SCIA Engineer uses a single-model workflow where wood verification runs directly from the analysis model, which reduces re-entry when geometry or load cases change. Autodesk Robot Structural Analysis Professional also integrates analysis and design checking in one project model, with Revit linking and IFC export for BIM handoff, while timber detailing and fabrication often require external workflows.
Category-specific evaluation criteria for wood structural design
Wood structural design software must keep member checks, connection design, and the documentation outputs connected to the same project workflow, because iteration churn creates mismatch risk. This category varies most by whether verification runs from the analysis model, from a timber framing workflow, or from a connection-first calculation cycle that keeps assumptions aligned.
Single workflow that aligns timber member and connection assumptions
FRILO Timber Construction embeds connection design checks inside its calculation workflow so member and connection assumptions stay aligned during re-runs. S-FRAME also emphasizes connection-oriented outputs that originate from a project data workflow to reduce manual detail chasing.
Analysis-linked wood verification to reduce re-entry
SCIA Engineer runs wood verification directly from the analysis model so changes propagate into check results without separate re-entry. Autodesk Robot Structural Analysis Professional integrates analysis and design checking in one project model so member-level checks remain consistent as analysis results change.
3D frame-driven serviceability checks and documentation exports
SkyCiv Structural 3D uses a single 3D model workflow that ties deflection evaluation to documentation exports for faster design iteration cycles. PAMIR focuses on connection and member verification workflow tied to the same project model data for repeated runs across design revisions.
Template-driven timber verification reporting and repeatable design packs
Graitec Advance Design generates connection-oriented verification reporting using configurable check templates for repeatable design pack generation. Mitek SAPPHIRE Structure ties connection selection and detailing-ready documentation to a framing model to preserve design intent traceability in outputs.
Finite element coupling for timber panel and stability behavior
FEM-Design ties FE results to timber member and stability checks within one model cycle for wood-oriented iterations. SOFiSTiK keeps FEA-centered workflow results handling consistent for traceable verification cycles tied to internal forces.
Wood verification workflow fit: analysis-linked, connection-first, automation-first, or FE-centric
The fastest adoption path depends on where the authoritative geometry and loads live in the team workflow. Tools that push wood checks directly from analysis reduce re-entry, while connection-first tools reduce assumption drift by centering calculation steps around connection design outputs.
Choose the verification authority: analysis model or timber framing workflow
If the analysis model is the source of truth, SCIA Engineer provides a single-model workflow where wood verification runs directly from analysis. If the framing model and connection workflow are the source of truth, Mitek SAPPHIRE Structure ties connection selection and detailing-ready documentation to the framing model.
Decide whether connection design must be built into the calculation cycle
If iterative re-runs must keep member and connection assumptions aligned, FRILO Timber Construction runs connection design checks inside its calculation workflow. If connection output should come from an automation-driven project data workflow, S-FRAME emphasizes connection-focused outputs that originate from project geometry and data.
Plan for BIM handoff and model exchange based on integration depth
If Revit linking and IFC export are needed for BIM handoff while keeping integrated analysis and design checking, Autodesk Robot Structural Analysis Professional supports Revit linking plus IFC export. If BIM exchange relies more on report generation and templates than deep API-driven automation, Graitec Advance Design focuses on template-driven timber connection verification reporting.
Match serviceability and documentation speed to the team’s modeling style
For 3D frame-driven deflection evaluation tied to documentation exports, SkyCiv Structural 3D supports built-in deflection evaluation inside a single 3D model workflow. For connection and member verification repeated across revisions in a production-style project loop, PAMIR targets repeatable calculation runs tied to the same project model data.
Pick FE-centric behavior when wood panel or stability behavior drives iterations
When FE-based wood behavior is the iteration driver, FEM-Design supports a wood-oriented finite element design workflow that ties FE results to timber member and stability checks within one model cycle. When internal forces must remain consistent for follow-on checks with structured results handling, SOFiSTiK provides an FEA-centered workflow designed for traceable verification cycles.
Who should buy Wood Structural Design Software from this shortlist
Teams that ship timber projects with frequent design revisions need tools that keep verification results and documentation aligned to the same inputs. Procurement fit also depends on whether the team work starts from analysis, from framing and connections, or from finite element simulation.
Timber structural engineers running iterative member and connection calculations
FRILO Timber Construction is a fit when revision-friendly re-runs must keep member and connection assumptions aligned because connection design checks are built into its calculation workflow.
Structural teams that treat analysis results as the authoritative source for wood verification
SCIA Engineer supports analysis-linked wood verification where changes propagate into check results without separate re-entry, which suits iterative submittals built around a maintained analysis model.
Firms building framing and connection deliverables from a modeled design intent
Mitek SAPPHIRE Structure supports a wood framing and connection workflow that keeps design intent traceable in outputs, which fits teams that need repeatable framing and connection documentation.
Design offices that generate connection verification packages from configurable check templates
Graitec Advance Design fits teams that want consistent timber checks and report outputs using configurable check templates for repeatable design pack generation.
Engineers using FE-driven iterations for wood member, panel, or stability response
FEM-Design fits when finite element modeling of wood response is central because FE results connect directly to timber member and stability checks within one model cycle.
Common pitfalls when buying Wood Structural Design Software
Buying the wrong workflow model creates extra re-entry and mismatched assumptions between analysis geometry and connection design outputs. Many teams only discover this during revision cycles when documentation no longer matches the latest member or connection state.
Assuming wood checks will automatically remain consistent after analysis changes
SCIA Engineer and Autodesk Robot Structural Analysis Professional reduce this risk because wood verification runs directly from the analysis model or integrated project model, so changes propagate into check outputs.
Picking a timber tool without validating how connection outputs are produced for documentation
FRILO Timber Construction and Graitec Advance Design both focus on connection design checks and connection-oriented reporting, so teams should verify that design packs match the connection workflow their deliverables require.
Underestimating how input naming and modeling discipline affects automation-driven tooling
S-FRAME and Mitek SAPPHIRE Structure both tie automation or managed design workflows to correct input modeling discipline, so teams should test representative connection scenarios before committing.
Ignoring the integration effort needed for BIM handoff and external model mapping
SCIA Engineer can require extra mapping after external BIM imports, so teams planning Revit-to-struct exchange should validate mapping effort with real geometry exports.
Overbuying FE depth when routine frames need faster setup and iteration
FEM-Design and SOFiSTiK emphasize FE-centered workflows, so teams that mostly run routine frames should confirm that FE setup time aligns with project throughput expectations.
How We Selected and Ranked These Tools
We evaluated FRILO Timber Construction, SCIA Engineer, Autodesk Robot Structural Analysis Professional, SkyCiv Structural 3D, S-FRAME, Mitek SAPPHIRE Structure, PAMIR, Graitec Advance Design, FEM-Design, and SOFiSTiK against wood verification workflow alignment, iteration repeatability, and documentation consistency. Features accounted for 40% of the overall score, and ease and value each accounted for 30% to reflect adoption friction and throughput under revision cycles.
FRILO Timber Construction separated itself by embedding connection design checks into a single calculation workflow so member and connection assumptions remain aligned during re-runs. The ranking also reflected whether each tool kept verification tied to the analysis model or framed workflow to minimize re-entry when geometry and load cases change.
Frequently Asked Questions About Wood Structural Design Software
How do FRILO Timber Construction and S-FRAME differ in where design automation starts?
Which tools keep wood verification results tied directly to the engineering model without separate re-entry?
When teams need a 3D frame workflow for deflection checks and documentation exports, which software fits best?
What tradeoff appears when finite element workflows take priority over CAD-centric wood detailing automation?
Where does connection-focused documentation diverge between Mitek SAPPHIRE Structure and Graitec Advance Design?
How do Autodesk Robot Structural Analysis Professional and Tekla Structures compare for BIM interoperability workflows in structural design?
Which tools support IFC-oriented exchange for wood model handoff to downstream workflows?
What breaks if an organization tries to treat connection calculations as independent spreadsheets instead of using PAMIR’s model-to-check processing?
How do administrators control repeatable code-driven check configurations in Graitec Advance Design versus SCIA Engineer?
How do SOFiSTiK and FRILO Timber Construction handle traceable verification cycles when wood design requires detailed reporting?
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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