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Top 10 Best Scaffolding Design Calculation Software of 2026

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Top 10 Best Scaffolding Design Calculation Software of 2026

Compare scaffolding design calculation software tools like ScaffPlan, Allplan, and SCIA Engineer for selecting methods, outputs, and workflow fit.

20 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

AI search agents find sources, extract figures with provenance, and aggregate written reviews. They also 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 rankings. Editorial policy

Scaffolding design calculation software matters when teams must turn frame geometry into load paths, stability checks, and compliance-ready outputs for temporary works. This comparison helps technical evaluators decide between BIM-first planning tools, EN 12811-focused calculation modules, and structural analysis platforms that fit existing engineering workflows.

ScaffPlan is the best pick for scaffold contractors and rental companies that want one controlled workflow because its parametric 3D model links scaffold geometry to calculations, material outputs, and drawing production, while Allplan fits enterprise teams needing associative model-to-document pipelines for scaffold checks and drawing packs.

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

ScaffPlan

Parametric 3D modeling that links scaffold geometry, engineering calculations, material outputs, and drawing production in one workflow.

Best for: Fits when scaffold contractors need one controlled workflow for 3D design, calculations, drawings, and material reporting.

2

Allplan

Editor pick

Associative model-to-document pipelines that carry scaffold checks into fabrication-ready drawing outputs within Allplan.

Best for: Fits when teams need model-linked scaffold calculations and drawing packs from the same engineering workspace.

3

SCIA Engineer

Editor pick

Open API automation connects custom scaffold model generation, analysis runs, and result extraction to engineering workflows.

Best for: Fits when structural teams need configurable analysis for unusual scaffold assemblies and temporary works.

Comparison Table

1
ScaffPlanBest overall
vertical specialist
9.1/10
Overall
2
enterprise
8.9/10
Overall
3
enterprise
8.7/10
Overall
4
vertical specialist
8.5/10
Overall
5
vertical specialist
8.0/10
Overall
6
vertical specialist
7.7/10
Overall
7
7.5/10
Overall
8
enterprise
7.1/10
Overall
9
6.9/10
Overall
10
6.7/10
Overall
#1

ScaffPlan

vertical specialist

3D scaffolding planning and design software for scaffold builders and rental companies.

9.1/10
Overall
Features9.1/10
Ease of Use9.1/10
Value9.1/10
Standout feature

Parametric 3D modeling that links scaffold geometry, engineering calculations, material outputs, and drawing production in one workflow.

Designers can review scaffold geometry visually while developing layouts and checking structural requirements. ScaffPlan also supports coordinated drawings and material reporting, reducing repeated data entry between design, engineering, and project delivery.

The main tradeoff is that unusual components, complex load paths, or regional engineering rules may require additional manual review. ScaffPlan fits projects where contractors need a repeatable load capacity analysis and documentation workflow for large commercial or industrial sites.

Pros
  • +One model connects design geometry, calculations, and deliverable drawings.
  • +Visual modeling supports review of access, clearance, and configuration changes.
  • +Material reporting reduces manual transfer between design and project documentation.
  • +Built around scaffold-industry workflows rather than generic CAD drafting.
Cons
  • –Nonstandard components and unusual load paths may need manual engineering review.
  • –Public materials provide limited detail about API access and administrative controls.
  • –Advanced BIM exchange is less central than native scaffold design workflows.
  • –Regional engineering practices may require additional configuration or independent checks.
Use scenarios
  • Scaffolding engineering teams

    Designing complex temporary access structures

    Coordinated design package

  • Scaffold contractors

    Preparing repeatable project estimates

    Fewer quantity transcription errors

Show 1 more scenario
  • Site delivery managers

    Reviewing scaffold changes before erection

    Earlier change detection

    Shared visual views expose geometry changes before crews receive revised documentation.

Best for: Fits when scaffold contractors need one controlled workflow for 3D design, calculations, drawings, and material reporting.

#2

Allplan

enterprise

Nemetschek engineering BIM platform with structural analysis modules applicable to temporary works and scaffolding design.

8.9/10
Overall
Features8.9/10
Ease of Use8.9/10
Value8.9/10
Standout feature

Associative model-to-document pipelines that carry scaffold checks into fabrication-ready drawing outputs within Allplan.

Allplan supports scaffold design calculations by combining structured engineering workflows with an integrated BIM and CAD authoring environment. Load case and structural checks can be carried out from model-based geometry, then carried into engineering deliverables such as reports and drawings.

The main distinctiveness is that scaffold calculations sit inside a broader Allplan authoring and exchange workflow instead of living as a detached spreadsheet calculator. Automation relies on repeatable templates and associative model-to-document links rather than standalone rule wizards.

Pros
  • +Model-driven workflow keeps scaffold geometry and calculations linked
  • +Associative drawing and report generation reduces manual rework
  • +Template-based checks support consistent production across project teams
  • +BIM and CAD exchange supports 3D scaffold model handoff workflows
Cons
  • –Scaffolding-specific setup can be time-consuming for first adoption
  • –Automation depth depends on project data hygiene and naming conventions
  • –Complex validation requires disciplined parameter management
  • –Some scaffold compliance outputs rely on downstream document workflows
Use scenarios
  • Structural teams and BIM coordinators

    Validate scaffold loads from the structural model

    Model-driven scaffold check results

  • Architectural design teams

    Derive scaffold coordination views and sheets

    More consistent drawing revisions

Show 2 more scenarios
  • Civil infrastructure engineers

    Run BIM workflows for retaining scaffolded systems

    Structured civil design information

    Specialized civil workflows store structured design information for selected retaining-structure projects within BIM coordination.

  • Design documentation teams

    Produce plans and annotated sheets from model data

    Coordinated documentation output

    Associative model-to-document links drive coordinated plans, sections, elevations, and details for scaffold deliverables.

Best for: Fits when teams need model-linked scaffold calculations and drawing packs from the same engineering workspace.

#3

SCIA Engineer

enterprise

Structural analysis platform with a dedicated scaffolding module compliant with EN 12811.

8.7/10
Overall
Features8.7/10
Ease of Use8.8/10
Value8.6/10
Standout feature

Open API automation connects custom scaffold model generation, analysis runs, and result extraction to engineering workflows.

Engineering teams can represent tube-and-fitting arrangements, modular frames, cantilevered access structures, and temporary support systems as analytical members and surfaces. The solver supports load capacity analysis with wind, imposed, and self-weight actions, while design modules cover steel, concrete, and timber checks. Results include internal forces, reactions, displacements, and utilization data for reviewing critical members and supports.

The main tradeoff is the absence of a dedicated scaffold object library with built-in TG20 or scaffold-tag workflows. Engineers must define member properties, restraints, connection behavior, tie arrangements, and load cases themselves. That approach fits firms analyzing unusual temporary structures or integrating scaffold studies into wider building models, but it requires disciplined model setup and independent compliance documentation.

Pros
  • +Open API supports automated model creation and result extraction
  • +Nonlinear and staged analysis handles changing temporary support conditions
  • +Multi-material design modules support broader engineering workflows
  • +IFC and CAD interoperability connects analysis with coordination models
Cons
  • –No dedicated scaffold component library or scaffold tagging workflow
  • –Manual definition is required for ties, joints, restraints, and bay geometry
  • –Specialist compliance documentation remains outside the analytical model
  • –The interface requires structural analysis experience for efficient setup
Use scenarios
  • Temporary works engineers

    Analyze irregular access structures

    Documented member utilization results

  • Scaffold design consultancies

    Check complex cantilever arrangements

    Verified critical reactions

Show 2 more scenarios
  • Structural engineering firms

    Coordinate temporary works models

    Coordinated design information

    Teams exchange analytical geometry with project coordination models and combine scaffold studies with permanent works analysis.

  • Engineering software teams

    Automate repeated analysis tasks

    Repeatable calculation workflows

    Developers use the Open API to generate models, run calculations, and extract selected engineering results.

Best for: Fits when structural teams need configurable analysis for unusual scaffold assemblies and temporary works.

#4

PERI CAD

vertical specialist

PERI's 2D and 3D planning software for scaffolding and formwork design.

8.5/10
Overall
Features8.5/10
Ease of Use8.5/10
Value8.5/10
Standout feature

PERI catalog-driven component environment links approved system parts to layout documentation.

PERI CAD gives designers a catalog-driven environment for arranging standards, ledgers, platforms, braces, and access components from PERI systems. Projects can use CAD import and produce coordinated plans, elevations, sections, and schedules from the same layout. The workflow suits engineering offices that repeat PERI configurations across industrial, commercial, and temporary works.

Pros
  • +PERI-specific component libraries reduce manual selection of system parts
  • +2D and 3D views support coordinated scaffold documentation
  • +CAD import supports reuse of existing project geometry
  • +Material schedules connect design output with equipment planning
Cons
  • –Vendor focus limits neutral modeling across non-PERI systems
  • –Structural analysis coverage is lighter than dedicated engineering solvers
  • –Complex projects may require specialist training for efficient setup
  • –Custom automation has limited documented extension points
Use scenarios
  • PERI scaffolding contractors

    Industrial shutdown scaffold planning

    Faster coordinated revisions

  • Scaffolding engineering offices

    Repeatable PERI project packages

    Consistent equipment documentation

Show 1 more scenario
  • Temporary works coordinators

    Imported building geometry

    Less manual redrawing

    CAD import provides starting geometry for fitting PERI components around existing structures.

Best for: Fits when scaffolding teams standardize on PERI systems and need coordinated layouts, drawings, and equipment schedules.

#5

CADS Smart Scaffolder

vertical specialist

Scaffolding design and calculation software developed by UK-based CADS for scaffold engineering.

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

Documentation-ready calculation packs that translate configured design inputs into scaffold tag compliance outputs.

CADS Smart Scaffolder targets scaffolding design calculation and approval workflows with a rules-based configuration approach. The product focuses on generating calculation outputs for common tube and fitting scaffold arrangements, including checks that feed scaffold tag compliance documentation.

Pros
  • +Rules-led configuration keeps calculation assumptions consistent across projects
  • +Repeatable project input sets reduce manual recalculation when dimensions change
  • +Calculation outputs map directly into documentation suitable for site issue packs
  • +Drawing-focused deliverables support faster turnaround to fabrication drawings
Cons
  • –Finite element style workflows are not the primary engine for advanced structural modeling
  • –Setup discipline is needed to keep load case assumptions aligned across variants
  • –Export formats and integration depth depend on what each workflow requires
  • –3D scaffold model edits are more calculation-driven than geometry-first
Use scenarios
  • Scaffolding design engineers

    Generate calculations for tube fitting arrangements

    Faster calculation runs

  • Tag compliance coordinators

    Produce outputs tied to scaffold tag checks

    Submission-ready compliance outputs

Show 1 more scenario
  • Fabrication and site pack teams

    Create drawing-oriented fabrication and issue packs

    Reduced rework between stages

    Drawing-oriented deliverables help package sizing, checks, and annotations into site issue documentation.

Best for: Fits when engineering teams need repeatable scaffold checks and documentation from consistent input sets.

#6

TG20 Calculator

vertical specialist

Compliance calculation tool for tube-and-fitting scaffolding conforming to NASC TG20 guidelines.

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

TG20 compliance calculation pages are structured around scaffold design result packaging for review, rather than generic structural analysis tooling.

TG20 Calculator from nasc.org.uk focuses on TG20 scaffold design calculation workflows that map directly to common tube and fitting checks. It provides spreadsheet-style inputs and outputs for load and component verification while staying oriented around TG20 compliance review rather than general-purpose structural analysis.

Pros
  • +TG20-focused calculation outputs align with scaffold compliance workflows
  • +Input-to-result worksheets reduce time spent translating assumptions
  • +Clear separation of loading inputs and component checks
  • +Works well for repeatable bay dimensioning scenarios with standard parameters
Cons
  • –Limited support for 3D scaffold model generation and downstream checks
  • –Automation is mostly confined to spreadsheet calculations without API access
  • –Restricted integration with CAD or BIM workflows for 3D scaffold model reuse
  • –May require manual handling for non-standard tie patterns or atypical geometries
Use scenarios
  • Scaffold designers

    Compute TG20 load and component verifications

    TG20 verification results

  • Compliance reviewers

    Review typical scaffold use case assumptions

    Consistent reviewer outputs

Show 1 more scenario
  • Design documentation teams

    Export check results for design packages

    More organized design packages

    Input-to-output calculations produce results suitable for assembling TG20-oriented design documentation.

Best for: Fits when engineers need TG20 compliance calculations for tube and fitting scaffolds without building a full analysis model.

#7

SAFEX Scaffolding Software

SMB

Scaffold design and estimating application with material scheduling and drawing production.

7.5/10
Overall
Features7.5/10
Ease of Use7.6/10
Value7.4/10
Standout feature

Calculation runs driven by reusable project templates that keep assumptions consistent across design revisions.

SAFEX Scaffolding Software performs scaffolding design calculations by turning loading inputs into checkable results tied to scaffold configuration choices. The workflow emphasizes structured project inputs, calculation runs, and output artifacts intended for submission workflows.

Pros
  • +Template-driven calculation runs for consistent bay and loading assumptions
  • +Structured inputs reduce omissions in load effects and stability checks
  • +Outputs are formatted for handover packages and internal review
  • +Scenario reuse supports rapid iteration across design options
Cons
  • –Limited integration depth with CAD or BIM compared with calculation-first tools
  • –Automation is strongest for repeatable templates, not custom engineering workflows
  • –Advanced structural modeling depth is not built around finite element modeling
  • –Requires disciplined input governance to keep tag and configuration data aligned
Use scenarios
  • Scaffold design offices

    Run stability and load effect capacity checks

    Checkable capacity results

  • Project submission teams

    Generate artifacts for scaffold submission packages

    Submission-ready calculation artifacts

Show 1 more scenario
  • Design quality controllers

    Apply repeatable calculation templates to configurations

    More repeatable calculations

    Templates standardize calculation behavior across scaffold configuration choices, reducing variance between design runs.

Best for: Fits when design teams need repeatable scaffold load and stability checks without heavy modeling.

#8

RISA-3D

enterprise

RISA-3D analyzes three-dimensional structural models with user-defined loads and combinations.

7.1/10
Overall
Features7.1/10
Ease of Use7.2/10
Value7.0/10
Standout feature

Direct 3D frame model analysis with scaffold-oriented load combination application and design output reporting.

RISA-3D is a structural analysis workflow built around a 3D frame model that supports scaffold-specific engineering checks. The core calculation path ties geometry, member properties, and load combinations into analysis outputs that engineers can use for design verification.

Pros
  • +3D frame analysis foundation supports bending, shear, and deflection checks
  • +Load combination controls support realistic design scenarios for scaffold cases
  • +CAD import helps move scaffold geometry into the analysis model faster
  • +Exportable geometry supports fabrication drawing and coordination workflows
Cons
  • –Scaffold standard checks need careful modeling of component types and connections
  • –Workflow around tag compliance depends on disciplined setup of parameters
Use scenarios
  • Timber structural engineers

    Verify timber members within a scaffold-enabled model

    Repeatable timber member verification

  • Masonry and building engineers

    Assess masonry response for in-plane loads

    Section-level masonry results

Show 2 more scenarios
  • Structural design review teams

    Turn analysis diagrams into review packages

    More consistent review packages

    Analysis diagrams and tabular results convert into engineering coordination material for review and documentation.

  • Storage rack design engineers

    Connect rack geometry to structural checks

    Coherent rack check outputs

    Rack geometry stays connected to structural calculations that produce engineering checks and plan or elevation documentation.

Best for: Fits when teams need a frame-solver workflow for scaffold design verification and coordination exports.

#9

SkyCiv Scaffold Design Software

vertical specialist

Cloud software for scaffold analysis, member design, and code-based structural calculations.

6.9/10
Overall
Features6.9/10
Ease of Use6.9/10
Value6.9/10
Standout feature

End-to-end modeling to structural verification with fabrication drawing export inside one workflow.

SkyCiv Scaffold Design Software targets engineering teams that need repeatable scaffolding load capacity analysis and calculation traceability across multiple design cases. Core workflows include building a 3D scaffold model, running structural checks like bending moment and deflection limits, and producing documentation outputs used for review and fabrication coordination.

Pros
  • +3D scaffold modeling links geometry directly to structural checks.
  • +Structural checks include bending moment and deflection limit verification.
  • +CAD import helps align scaffolds with existing drawings for consistency.
  • +Exports fabrication drawing outputs to reduce manual transcription work.
Cons
  • –Model setup requires careful member and support definition discipline.
  • –Automation depth is limited for batch design runs across large projects.
Use scenarios
  • Scaffold engineering teams

    Build 3D scaffold models for capacity analysis

    Repeatable capacity analysis

  • Structural reviewers

    Trace bending moment and deflection limits

    Traceable limit-check outputs

Show 1 more scenario
  • Fabrication coordination teams

    Align geometry and export fabrication deliverables

    Lower manual rework

    CAD import supports geometry alignment and exports documentation outputs for fabrication coordination.

Best for: Fits when teams need 3D-to-calculation workflow for scaffold loading checks and fabrication drawing outputs.

#10

Autodesk Robot Structural Analysis Professional

enterprise

Structural analysis software used to model scaffold frames and verify loads, stability, and code compliance.

6.7/10
Overall
Features6.7/10
Ease of Use6.7/10
Value6.7/10
Standout feature

Robot structural analysis solver for scaffold frame behavior with FE-level results that feed design checks and serviceability verification.

Autodesk Robot Structural Analysis Professional differentiates itself by tying scaffold support design checks to a general-purpose finite element modeling and structural analysis solver used for engineered frame behavior. It supports bay and member-level verification workflows that map applied loads through analysis results into checks such as member forces, support reactions, and serviceability limits.

Pros
  • +Finite element modeling gives detailed frame and member force results
  • +Load combination handling supports partial safety factors in structural workflows
  • +CAD import helps bring geometry into an analysis-ready 3D model
  • +Automation workflows reduce repetition across multiple scaffold configurations
Cons
  • –Scaffold-specific code checks may require extra setup versus scaffold-first tools
  • –Modeling large tube and fitting assemblies can be time-consuming
  • –Deflection and stability checks depend on correctly defined boundary and support conditions
  • –Reporting for scaffold tag compliance can require manual formatting work
Use scenarios
  • Structural analysis engineers

    Compute member forces and reactions for scaffold checks

    Analysis-backed scaffold verification

  • Scaffold design teams

    Import CAD geometry and coordinate 3D scaffold models

    Coordinated scaffold documentation

Show 1 more scenario
  • Engineering automation specialists

    Standardize repeated load cases and combinations

    More consistent calculation runs

    Automation surfaces and scripting-style workflows standardize load cases and load combinations for repeatable analysis.

Best for: Fits when engineered scaffold structures need FE-grade analysis, repeatable load cases, and CAD-to-model integration.

Conclusion

After evaluating 10 scaffolding design calculation software, ScaffPlan 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
ScaffPlan

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 Scaffolding Design Calculation Software

How does ScaffPlan keep scaffold geometry, loading inputs, and drawing outputs aligned during revisions?
ScaffPlan links parametric 3D scaffold geometry to engineering calculations, material outputs, and drawing production inside one workflow. That reduces manual rework when tie patterns, member selections, or load inputs change, because drawing updates follow the same model-linked inputs.
Which tool is best for automation that calls scaffold analysis runs through an API?
SCIA Engineer supports Open API automation that connects custom scaffold model generation, analysis runs, and result extraction to external engineering workflows. That approach suits teams that already maintain their own data model and want repeatable execution beyond interactive design sessions.
When a scaffold design needs finite element modeling rather than scaffold-specific checks, which option fits?
Autodesk Robot Structural Analysis Professional fits when engineered scaffold behavior must be derived from FE-grade structural analysis results. It supports CAD import and repeated load-case standardization through automation and scripting-style workflows.
What breaks if a team relies on PERI CAD for calculations beyond its PERI-focused component environment?
PERI CAD aligns its planning and documentation to PERI equipment conventions, so coverage outside PERI system assumptions can become narrower than general-purpose analysis tools. Teams needing unusual assemblies typically find SCIA Engineer or Robot Structural Analysis Professional more flexible.
How does CADS Smart Scaffolder produce calculation outputs that map to scaffold tag compliance documentation?
CADS Smart Scaffolder uses a rules-based configuration approach for common tube and fitting scaffold arrangements. Its calculation outputs are packaged into documentation-ready calculation packs intended to feed scaffold tag compliance review without rebuilding the checks from scratch.
Where does SkyCiv Scaffold Design Software fit when documentation must include traceable load checks and fabrication drawings?
SkyCiv Scaffold Design Software combines a 3D scaffold model workflow with structural checks such as bending moment and deflection limits. It then exports fabrication drawing deliverables from the same modeling-to-output process, which reduces disconnects between analysis results and drawing content.
How does Allplan handle model-linked scaffold calculations and associative drawing generation for project deliverables?
Allplan carries scaffold calculations inside its integrated BIM and CAD authoring environment rather than treating results as a detached spreadsheet. It uses repeatable templates and associative model-to-document links so scaffold checks flow into reports and drawing packs from the same workspace.
When should a team choose TG20 Calculator over general analysis solvers for scaffold design calculations?
TG20 Calculator fits when the workflow must map directly to TG20 compliance calculations for typical tube and fitting scaffold use cases. It focuses on input-to-output calculation packaging for review, and it does not target model-based extensibility like SCIA Engineer.
Which tool supports audit-friendly evidence by keeping assumptions and calculation templates consistent across design revisions?
SAFEX Scaffolding Software drives calculation runs from reusable project templates to keep assumptions consistent across revisions. CADS Smart Scaffolder also supports repeatable input sets, but SAFEX is oriented toward calculation templates that keep input discipline for load and stability checks.
How does RISA-3D structure load combination application and design output reporting for scaffold frame verification?
RISA-3D ties geometry, member properties, and load combinations to its 3D frame model analysis path. Scaffold-oriented outputs follow from the same frame and load analysis engine, which helps align support reactions and design checks to the model rather than to a spreadsheet-only workflow.

Tools reviewed

Primary sources checked during evaluation.

Referenced in the comparison table and product reviews above.

How to Choose the Right Scaffolding Design Calculation Software

We separate options by how they turn scaffold calculations into usable outputs. The biggest differences show up in how well a tool handles Load combination factors, report traceability, and automation for repeat projects.

Calculation method coverage

Why it matters

Scaffolding design workflows vary by the checks you must run and the way results are organized. Better coverage reduces rework when the job needs more than one common check set.

How to check

In the demo, pick a sample project and run the full workflow end-to-end, not just a single output. Ask whether it includes the checks you expect to document in your typical design packages.

Load combination factors handling

Why it matters

Load combination factors change final pass/fail and sizing decisions. If the software’s combinations don’t match your working method, you will not trust the results.

How to check

Load an example with multiple actions and compare the listed combination setup to the factors in the output. Then edit one assumption (for example, change action levels) and confirm the results update coherently.

Report traceability and audit trail

Why it matters

When reviewers ask “why this value,” traceability matters more than the final number. A clear audit trail speeds corrections and reduces the risk of undocumented changes.

How to check

Generate a report and look for input-to-result links for key checks. Change a single input, rerun, and verify the report highlights what changed and which steps recomputed.

CAD and BIM working roundtrip

Why it matters

Many teams start in CAD and must coordinate scaffold layouts. If the tool can’t exchange geometry cleanly, you lose time aligning models and drawings.

How to check

Use a provided sample scaffold geometry and test import, then generate the related drawing/report output. If the tool offers exports, confirm file content is understandable and preserves key placements.

Repeat project automation

Why it matters

Repeated jobs benefit from configuration over manual re-entry of inputs. Strong automation and templates reduce mistakes in tight timelines.

How to check

Create a template from one project, then switch to a second similar case. Confirm you can reuse settings, rerun calculations quickly, and keep outputs organized by case.

Document pack output formats

Why it matters

Design offices need calculation outputs that fit their document pack process. Consistent formatting reduces the time spent reformatting and consolidating evidence.

How to check

Export results in at least two formats offered by the tool and inspect whether tables, assumptions, and calculations are readable. Ask whether outputs can be combined into a single package without manual cleanup.

Red flags

  • Results change after reruns without a clear record of what recomputed.
  • You can’t align load combination factors settings with your documented working method.
  • Exports force heavy manual redraws or break key placements.

Fit by situation

  • If you often rerun similar jobs with the same workflow, prioritize Repeat project automation.
  • If your reviews demand “show your inputs,” prioritize Report traceability and audit trail.
  • If your team coordinates layouts in CAD, prioritize CAD and BIM working roundtrip.
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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