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Manufacturing EngineeringTop 10 Best Bolted Connection Design Software of 2026
Top 10 Bolted Connection Design Software tools for steel joints. Ranking compares TEKLA Structures, Autodesk Inventor, and NX for modeling.
How we ranked these tools
Core product claims cross-referenced against official documentation, changelogs, and independent technical reviews.
Analyzed video reviews and hundreds of written evaluations to capture real-world user experiences with each tool.
AI persona simulations modeled how different user types would experience each tool across common use cases and workflows.
Final rankings reviewed and approved by our editorial team with authority to override AI-generated scores based on domain expertise.
Score: Features 40% · Ease 30% · Value 30%
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Editor’s top 3 picks
Three quick recommendations before you dive into the full comparison below — each one leads on a different dimension.
TEKLA Structures
Model-linked parametric bolted connection objects that drive drawings from joint geometry
Built for steel detailing teams needing model-linked bolted connection drawings.
Autodesk Inventor
Editor pickNastran simulation workflows that model bolt load paths through contact and bearing contact
Built for teams using Inventor and FEA to verify bolted connection designs with contact realism.
NX
Editor pickAssociative bolted-connection features that update with assembly edits
Built for engineering teams standardizing bolted connection design inside NX-based assembly processes.
Related reading
Comparison Table
The comparison table covers steel bolted connection design tools, including TEKLA Structures, Autodesk Inventor, and NX, across integration depth, data model, and automation plus API surface. It also summarizes admin and governance controls such as RBAC, provisioning, and audit log coverage so teams can map each tool’s schema and extensibility to existing workflows. Readers can use these dimensions to compare configuration paths, data interchange behavior, and automation throughput for joint design tasks.
TEKLA Structures
steel detailingSupports steel detailing with parametric components and connection objects used for producing bolted connection designs directly from model data.
Model-linked parametric bolted connection objects that drive drawings from joint geometry
TEKLA Structures stands out for connecting bolted connection detailing directly to 3D steel modeling and fabrication data. Its core workflow supports parametric bolt group creation, plate and member detailing, and connection drawings tied to the model.
Designers also leverage automated connection layouts to reduce manual drafting for repetitive joints. The tool fits best when bolted connections must stay consistent across model geometry, detailing outputs, and downstream fabrication information.
- +Parametric bolt group detailing stays linked to 3D steel geometry.
- +Connection drawings and fabrication views generate from modeled joint definitions.
- +Supports consistent standards through reusable connection components and rules.
- –Advanced connection setups require strong steel detailing and TEKLA modeling knowledge.
- –Large assemblies can slow workflows without careful model management.
Detailing engineers and drafters
Create repetitive bolted joints in batches
Consistent detailing across joint types
Structural steel fabricators
Convert model data into shop output
Lower rework during fabrication
Show 2 more scenarios
Connection design leads
Standardize bolted plates and stiffeners
Faster production of standards
Automated connection layouts keep plates, bolts, and member detailing aligned to the modeled steel geometry.
Project BIM managers
Maintain coordination across disciplines
Fewer coordination issues on projects
Model-linked connection detailing reduces mismatches between 3D steel, drawings, and downstream fabrication inputs.
Best for: Steel detailing teams needing model-linked bolted connection drawings
More related reading
Autodesk Inventor
CAD mechanicalSupports 3D mechanical design and assembly modeling where bolted connections are created with explicit fastener geometry and constraints.
Nastran simulation workflows that model bolt load paths through contact and bearing contact
Inventor Nastran distinguishes itself by pairing connection-oriented engineering workflows with automated FEA using Nastran solvers. It supports bolt and fastener modeling, contact and bearing load paths, and design checks tied to structural analysis results.
The tool fits bolted connection design teams that already rely on Inventor modeling and need simulation-backed sizing and verification. Its main limitation is that the bolted connection experience depends on building or importing accurate assemblies and load cases for reliable results.
- +Nastran-based FEA helps validate load sharing in complex bolted assemblies
- +Bolts, contact, and bearing behaviors can be represented for realistic stiffness
- +Integrated Inventor workflows reduce friction between geometry and simulation inputs
- –Setup quality drives results, including contact definitions and load application
- –Bolted connection design checks can feel indirect compared with dedicated connection tools
- –Large assemblies increase model size, meshing time, and iteration effort
Best for: Teams using Inventor and FEA to verify bolted connection designs with contact realism
NX
CAD industrialDelivers CAD modeling for bolted connection assemblies with high-fidelity geometry and assembly constraints used for manufacturing-ready designs.
Associative bolted-connection features that update with assembly edits
NX stands out by combining CAD modeling with engineering-grade assembly and design processes for bolted joints. It supports bolt selection, connection detailing, and check workflows using NX-based feature and worksheet style engineering inputs.
NX also integrates with simulation and downstream analysis through its data model, which helps keep joint geometry and attributes consistent across tools. Strong associativity between connection features and the 3D model reduces rework when bolt patterns, clearances, or plates change.
- +Deep CAD associativity keeps bolt geometry and connected parts synchronized
- +Engineering checks can reference connection attributes directly from the NX model
- +Works well in larger NX assembly workflows with consistent data and reuse
- –Setup for connection-specific rules and checks can be heavy for small teams
- –Learning curve is steep due to NX modeling depth and feature configuration
- –Best results depend on disciplined data management across assemblies
Structural joint designers
Iterate plate and bolt layouts quickly
Fewer rework cycles
Bolted connection engineers
Perform code checks and load cases
Consistent verification results
Show 2 more scenarios
Mechanical CAD drafters
Generate drawings from connection models
Updated documentation faster
Derives connection detailing from the 3D model so annotations follow geometry changes automatically.
Simulation prep specialists
Transfer joint attributes to analysis
Reduced model mismatch
Carries geometry and connection properties through the data model for downstream simulation workflows.
Best for: Engineering teams standardizing bolted connection design inside NX-based assembly processes
More related reading
CATIA
CAD industrialProvides advanced mechanical design capabilities used to model bolted connections as assemblies with parametric parts and fasteners.
Parametric, constraint-based assembly modeling for fastener geometry and joint relationships
CATIA stands out for deep mechanical design coverage and strong parametric control over bolted joints inside a full CAD workflow. It supports bolt and fastener modeling through structured product creation, with geometry and constraints that integrate into larger assemblies. The tool is well-suited to traceable design intent, because mates, design rules, and configuration-driven edits carry through joint geometry and dependent components.
- +Parametric assembly constraints preserve bolted joint design intent during edits
- +Strong integration with full mechanical CAD supports end-to-end bolted connection workflows
- +Configuration-driven changes help manage multiple bolt patterns and joint variants
- –Joint setup can be time-consuming compared with purpose-built connection tools
- –Learning curve is steep for users focused only on bolted connection design
- –Workflow complexity increases when assemblies become large and constraint-heavy
Best for: Engineering teams designing bolted connections within complex parametric assemblies
ANSYS Mechanical
FEA analysisSupports finite element modeling and analysis workflows to evaluate bolted connection behavior under applied loads.
Pretension plus frictional contact modeling for nonlinear clamping-force and stress prediction
ANSYS Mechanical stands out for bolt and bolted-connection modeling inside a full finite element workflow that includes nonlinear contact and large-deformation analysis. Bolted connection design tasks can be handled with pretension, contact interfaces, and fastener stress recovery from detailed 3D stress fields.
The tool supports parametric geometry and load cases so bolt preload, tightening sequences, and frictional contact behavior can be explored across design iterations. It also integrates with the broader ANSYS ecosystem for mesh generation, results visualization, and multi-physics coupling.
- +High-fidelity bolt preload and contact modeling for realistic clamping behavior
- +Parametric workflows enable systematic bolt spacing and preload sensitivity studies
- +Robust postprocessing to extract fastener forces and stresses from 3D fields
- –Setup for pretension, contact, and meshing takes expert time and tuning
- –Design-focused workflows can be slower than dedicated bolted-connection calculators
- –Convergence can be sensitive to friction, contact stiffness, and load stepping
Best for: Teams running detailed FEA of bolted assemblies with contact and nonlinear effects
MSC Nastran
FEA analysisProvides structural analysis for evaluating bolted connection load transfer through stress and deformation simulation.
Nonlinear contact and friction-capable joint modeling within Nastran solution workflows
MSC Nastran stands out for pairing bolted joint modeling workflows with a solver-centric finite element environment. It supports linear and non-linear structural analysis workflows that can include contact, bearing, and frictional effects depending on modeling choices. Bolted connection design relies on creating accurate bolt, washer, and connector geometry and then using Nastran solution sequences to extract joint forces, stresses, and load paths.
- +FEM-native bolt, washer, and contact modeling using Nastran solution sequences
- +Robust nonlinear capability for load path and joint behavior beyond linear strength checks
- +High-fidelity postprocessing for stresses, strains, and reaction forces tied to fasteners
- –Bolted connection design needs careful preprocessing and contact setup to avoid misleading results
- –Workflow complexity is higher than dedicated bolt design tools for routine connection checks
- –Design automation for standard bolted design clauses is limited by general solver focus
Best for: Engineering teams modeling complex bolted joints with nonlinear or contact effects
More related reading
Altair Inspire
simulationEnables simulation-driven design using structural modeling workflows to study bolted connection performance under constraints and loads.
Nonlinear pretension and contact modeling for clamped bolted joint behavior
Altair Inspire stands out as a finite element driven environment for bolted connection modeling that connects CAD geometry through a simulation workflow. The tool supports bolt pretension, contact definition, and nonlinear checks that reflect load transfer through fasteners and interfaces.
Built-in joint and fastening oriented capabilities reduce manual setup compared with general purpose FEA for bolted regions. Users can iterate geometry, material, and boundary conditions to evaluate stress, deformation, and safety across joint configurations.
- +Nonlinear bolt pretension and contact setup fits realistic joint behavior
- +Supports detailed stress and deformation output around fastener regions
- +Streamlines CAD to simulation workflow for joint geometry iterations
- +Nonlinear joint checks better match real clamping and interface response
- –Advanced bolted connection workflows demand FEA setup expertise
- –Mesh refinement for contact and bolt stress hotspots can be time intensive
- –Automation for common bolt patterns depends on workflow configuration
- –Model tuning for boundary conditions and contact parameters can be iterative
Best for: Teams doing nonlinear bolted joint simulation with CAD-informed geometry
Onshape
cloud CADRuns cloud CAD assemblies that model bolted connections with explicit fasteners and parametric mates for design iterations.
Version-controlled cloud CAD with collaborative assemblies and drawing-linked change tracking
Onshape stands out by combining a CAD modeling workflow with cloud-based collaboration and version-controlled documents. It supports bolted connection work through parametric sketches, assemblies, mate connectors, and drawings that can capture hole patterns and fastener layouts.
Real leverage comes from driving connection geometry with constraints and configurations so related features update across variants and reused parts. Bolted connection strength assessment and standards-based fastener calculation automation are limited compared with dedicated mechanical fastener tools.
- +Cloud documents with real-time collaboration for connection design review
- +Parametric sketches and features keep bolt patterns consistent across revisions
- +Assembly mates and fastener placement update reliably with configuration changes
- +Drawings export hole dimensions and callouts for fabrication handoff
- –No dedicated bolted-connection sizing wizard for strength and torque checks
- –Fastener libraries and standards coverage are less specialized than niche tools
- –Deep connection engineering workflows require manual setup and custom geometry
- –Large assembly performance can suffer when fastener counts grow
Best for: Teams designing parametric bolted joints in CAD with strong revision control
More related reading
Fusion 360
CAD mechanicalProvides parametric 3D CAD and assemblies for modeling bolted connections with manufactured geometry and constraints.
Nastran simulation workflows that model bolt load paths through contact and bearing contact
Inventor Nastran distinguishes itself by pairing connection-oriented engineering workflows with automated FEA using Nastran solvers. It supports bolt and fastener modeling, contact and bearing load paths, and design checks tied to structural analysis results.
The tool fits bolted connection design teams that already rely on Inventor modeling and need simulation-backed sizing and verification. Its main limitation is that the bolted connection experience depends on building or importing accurate assemblies and load cases for reliable results.
- +Nastran-based FEA helps validate load sharing in complex bolted assemblies
- +Bolts, contact, and bearing behaviors can be represented for realistic stiffness
- +Integrated Inventor workflows reduce friction between geometry and simulation inputs
- –Setup quality drives results, including contact definitions and load application
- –Bolted connection design checks can feel indirect compared with dedicated connection tools
- –Large assemblies increase model size, meshing time, and iteration effort
Best for: Teams using Inventor and FEA to verify bolted connection designs with contact realism
Inventor Nastran
simulationSupports structural simulation using Nastran-based workflows to analyze stresses and deformations in bolted connection assemblies.
Nastran simulation workflows that model bolt load paths through contact and bearing contact
Inventor Nastran distinguishes itself by pairing connection-oriented engineering workflows with automated FEA using Nastran solvers. It supports bolt and fastener modeling, contact and bearing load paths, and design checks tied to structural analysis results.
The tool fits bolted connection design teams that already rely on Inventor modeling and need simulation-backed sizing and verification. Its main limitation is that the bolted connection experience depends on building or importing accurate assemblies and load cases for reliable results.
- +Nastran-based FEA helps validate load sharing in complex bolted assemblies
- +Bolts, contact, and bearing behaviors can be represented for realistic stiffness
- +Integrated Inventor workflows reduce friction between geometry and simulation inputs
- –Setup quality drives results, including contact definitions and load application
- –Bolted connection design checks can feel indirect compared with dedicated connection tools
- –Large assemblies increase model size, meshing time, and iteration effort
Best for: Teams using Inventor and FEA to verify bolted connection designs with contact realism
Conclusion
After evaluating 10 manufacturing engineering, TEKLA Structures 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 Bolted Connection Design Software
This buyer's guide compares TEKLA Structures, Autodesk Inventor, NX, CATIA, ANSYS Mechanical, MSC Nastran, Altair Inspire, Onshape, Fusion 360, and Inventor Nastran for bolted connection design workflows tied to steel joints and assemblies.
The focus is integration depth, data model control, automation and API surface, and admin and governance controls across these tools’ modeling, connection definition, and simulation handoffs.
Bolted joint design tooling that ties fasteners to model geometry, rules, and simulation outputs
Bolted connection design software creates and manages bolted joint definitions using assembly geometry, hole and bolt layout rules, and connection-specific attributes used for drawings or analysis.
TEKLA Structures drives model-linked parametric bolted connection objects from 3D steel geometry into connection drawings and fabrication views, while NX provides associative bolted-connection features that update with assembly edits so bolt geometry and connected part attributes stay synchronized.
Integration depth and governance controls for connection schemas, automation, and model-linked outputs
Integration depth determines whether bolted connection definitions stay connected to CAD geometry, revision changes, and downstream fabrication or analysis work. TEKLA Structures and NX both emphasize model associativity and connection objects that track joint geometry changes.
Data model clarity controls how connection attributes, fastener layouts, and check inputs move between modeling, drawings, and simulation. Automation and API surface control whether connection provisioning, configuration variants, and batch updates can be executed with repeatable schema-driven rules.
Model-linked connection objects that drive drawings and fabrication views
TEKLA Structures creates model-linked parametric bolted connection objects that drive connection drawings and fabrication views directly from joint geometry. NX achieves the same class of benefit through associative bolted-connection features that update with assembly edits.
Associativity between fastener geometry and engineering checks
NX supports engineering checks that reference connection attributes directly from the NX model, which reduces rework when bolt patterns, clearances, or plates change. CATIA uses parametric constraints and configuration-driven changes to preserve bolted joint design intent across edits.
Simulation-grade bolt load path modeling with contact and bearing behavior
ANSYS Mechanical delivers pretension plus frictional contact modeling for nonlinear clamping-force and fastener stress recovery, which matches real joint behavior. MSC Nastran provides nonlinear contact and friction-capable joint modeling within Nastran solution workflows, while Altair Inspire supports nonlinear pretension and contact modeling for clamped bolt joint behavior.
Automation and extensibility tied to connection definitions and workflow configuration
TEKLA Structures supports automated connection layouts for repetitive joints through reusable connection components and rules, which reduces manual drafting for standardized steel joints. Onshape updates assembly mates and fastener placement reliably with configuration changes, and it exports drawings with hole dimensions and callouts for fabrication handoff.
Data-model discipline for assembly performance and contact setup quality
Autodesk Inventor and Fusion 360 rely on accurate assemblies and load cases because bolt and bearing behaviors depend on contact definitions and load application quality. ANSYS Mechanical and Altair Inspire also require careful setup of pretension, contact, and meshing to maintain convergence around friction and contact stiffness.
Admin and governance controls for version-controlled connection design and change tracking
Onshape provides version-controlled cloud documents with collaborative assemblies and drawing-linked change tracking, which supports governance around revisions. NX and CATIA rely on disciplined data management across assemblies because connection-specific rule and check setup can be heavy and steep in learning curve.
A connection-first decision path for selecting a tool that stays consistent from CAD to drawings and checks
Start by choosing the connection definition authority, meaning whether bolted joint definitions should be created as model-linked connection objects, parametric constraints, or CAD fastener geometry with external analysis. TEKLA Structures fits steel detailing when connection objects must stay linked to model geometry and drive drawings.
Next, match the data model to the required validation depth, meaning whether the workflow needs nonlinear pretension and frictional contact modeling or solver-focused nonlinear contact in Nastran-based environments. ANSYS Mechanical and Altair Inspire focus on nonlinear clamping behavior through pretension and contact, while MSC Nastran and Inventor Nastran emphasize nonlinear contact and load transfer extraction within Nastran solution workflows.
Select the primary connection representation that must survive geometry edits
If bolt groups and connection drawings must update automatically when joint geometry changes, use TEKLA Structures because it ties parametric bolt group detailing to 3D steel geometry and generates drawings and fabrication views from modeled joint definitions. If the connection must remain associatively synchronized inside large assembly CAD workflows, use NX because associative bolted-connection features update with assembly edits.
Map the expected validation depth to the solver workflow you need
If nonlinear clamping force and fastener stress require frictional contact and pretension modeling, use ANSYS Mechanical because it supports pretension plus frictional contact and extracts fastener forces and stresses from 3D fields. If the workflow is primarily Nastran-based and needs nonlinear contact and load paths, use MSC Nastran or Inventor Nastran because both support nonlinear contact and friction-capable joint modeling within Nastran solution workflows.
Plan for contact setup quality and assembly size impact before committing
For Autodesk Inventor and Fusion 360, validation depends on building or importing accurate assemblies and load cases, and large assemblies increase model size and meshing time. For ANSYS Mechanical and Altair Inspire, convergence can be sensitive to friction, contact stiffness, and meshing refinement around bolt stress hotspots.
Choose the configuration and variant control method for repeated bolt patterns
When multiple bolt patterns and joint variants must update consistently, choose CATIA because configuration-driven changes carry through joint geometry and dependent components. When collaborative revision control and drawing-linked change tracking matter, choose Onshape because version-controlled cloud documents maintain change tracking across assemblies and drawings.
Align automation expectations with what each tool can batch through its workflow
For standardized steel joints, choose TEKLA Structures because automated connection layouts and reusable connection components reduce manual drafting for repetitive joints. For CAD-centric workflows that still need assembly-driven change propagation, choose NX or CATIA to keep connection attributes tied to the CAD data model through associativity and parametric constraints.
Which teams benefit from model-linked connection objects versus solver-centric bolt load path modeling
Different bolted connection workflows succeed based on whether connection definitions are anchored in steel detailing models, CAD parametric assemblies, or solver-based analysis pipelines. The best-fit tools below are derived from each tool’s best-for audience and standout capabilities.
The selection should match the engineering governance model needed for revisions and the validation depth needed for nonlinear contact and pretension behavior.
Steel detailing teams that need model-linked bolted connection drawings
TEKLA Structures is the fit because model-linked parametric bolted connection objects drive connection drawings and fabrication views from joint geometry. It also supports consistent standards through reusable connection components and rules.
NX-based engineering teams standardizing bolted joint design inside large CAD assemblies
NX is the fit because associative bolted-connection features update with assembly edits and engineering checks reference connection attributes directly from the NX model. This supports disciplined data management across assemblies.
Mechanical and analysis teams requiring pretension and frictional clamping behavior
ANSYS Mechanical is the fit because it supports pretension plus frictional contact modeling for nonlinear clamping-force and fastener stress prediction. Altair Inspire is also a strong match when nonlinear pretension and contact modeling must be paired with CAD-informed joint geometry iterations.
Solver-driven teams focused on Nastran nonlinear contact and bolt load paths
MSC Nastran is the fit because it provides nonlinear contact and friction-capable joint modeling within Nastran solution workflows to extract fastener-tied stresses and reaction forces. Inventor Nastran is a fit when Inventor modeling must connect directly to Nastran-based automated FEA with bolt load paths through contact and bearing.
CAD teams that need cloud collaboration and drawing-linked change tracking
Onshape is the fit because version-controlled cloud documents support real-time collaboration and drawing-linked change tracking. It also keeps bolt patterns consistent through parametric sketches and configuration changes.
Common failure modes when connection definitions, contact setup, and change tracking are handled inconsistently
Bolted connection workflows fail when the connection definition is not anchored to the CAD data model that drives changes across revisions. They also fail when nonlinear contact and pretension setup quality is treated as an afterthought instead of a controlled configuration.
The pitfalls below map to cons seen across TEKLA Structures, NX, CATIA, Onshape, and the simulation-heavy toolchain like ANSYS Mechanical, MSC Nastran, and Altair Inspire.
Treating contact setup quality as optional in nonlinear bolt validation
Autodesk Inventor, Fusion 360, ANSYS Mechanical, MSC Nastran, and Altair Inspire all depend on accurate contact definitions, load application, and meshing around fastener hotspots. Contact stiffness and friction settings and load stepping can drive convergence and clamping-force accuracy, so these configurations must be handled as part of the connection schema.
Building connections in CAD without a model-linked representation that updates with edits
Large rework happens when bolt geometry changes do not propagate through drawings or checks, which is why TEKLA Structures and NX emphasize model-linked parametric connection objects and associative bolted-connection features. CATIA helps by preserving design intent through parametric constraints and configuration-driven edits.
Underestimating assembly size and data management overhead
NX and TEKLA Structures can slow workflows when assemblies are large without careful model management, and Autodesk Inventor and Fusion 360 increase model size and meshing time with large assemblies. Connection rule setup in NX can be heavy for small teams, so governance around assembly scope and discipline is necessary.
Expecting strength or torque checks without the right connection engineering workflow
Onshape supports parametric bolted connection geometry and drawings but lacks a dedicated bolted-connection sizing wizard for strength and torque checks. Teams that need those checks often rely on dedicated mechanical fastener tools or a solver-first workflow that can extract stresses and forces through contact and pretension.
How We Selected and Ranked These Tools
We evaluated TEKLA Structures, Autodesk Inventor, NX, CATIA, ANSYS Mechanical, MSC Nastran, Altair Inspire, Onshape, Fusion 360, and Inventor Nastran using a criteria-based scoring approach built from documented feature coverage and workflow fit for bolted connection work. Each tool received a weighted score across features, ease of use, and value, with features carrying the most weight and ease of use and value contributing equally to the final rating. The method targets how connection data models stay connected to drawings, checks, and simulation inputs, not how well the software markets general mechanical CAD workflows.
TEKLA Structures separated itself with model-linked parametric bolted connection objects that drive connection drawings and fabrication views from joint geometry, which directly improved features fit for steel detailing and lifted the overall score through higher features and ease-of-use alignment with model-linked connection outputs.
Frequently Asked Questions About Bolted Connection Design Software
Which bolted connection design tool keeps drawings and joint details linked to the 3D steel model?
What software is best when bolted connection design must be verified with FEA contact and bearing effects?
Which tools minimize rework when bolt patterns, clearances, or plate positions change across design iterations?
Which option suits teams that already run Inventor and want simulation-backed bolt sizing in the same workflow?
How do the CAD and configuration models differ between TEKLA Structures and CATIA for traceable fastener design intent?
Which tool works best for predefined bolted joint workflows built around finite element contact and pretension?
What integration and data exchange expectations should teams plan for when connecting CAD to simulation results?
Which software provides version-controlled collaboration suited to engineering drawings and connection variant updates?
How do teams typically handle admin controls like RBAC, audit logging, and provisioning in these tools?
What is the most common failure mode when bolted connection simulation results look wrong across these tools?
Tools reviewed
Primary sources checked during evaluation.
Referenced in the comparison table and product reviews above.
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