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Aerospace Aviation SpaceTop 10 Best Magnet Simulation Software of 2026
Top 10 ranking of magnet simulation software with side-by-side features and tradeoffs for engineers comparing FEMM, QuickField, and COMSOL Multiphysics.
How we ranked these tools
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Framework: Features 40% · Ease 30% · Value 30%
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FEMM is the best choice for labs running repeatable 2D magnetostatic studies because its interpreter-driven batch solves make scripted sweeps and post-processing straightforward, whereas QuickField is a strong alternative for design teams that want tight body-tied force and torque evaluation without heavy customization.
Editor’s top 3 picks
Three quick recommendations before you dive into the full comparison below — each one leads on a different dimension.
FEMM
Script-driven batch solves using FEMM’s built-in interpreter for repeatable sweeps and automated post-processing.
Best for: Fits when labs need iterative 2D magnetic field, force, and torque studies with scripting automation.
QuickField
Editor pickBody-based force and torque evaluation tied directly to electromagnetic solution results for design iteration.
Best for: Fits when labs need repeatable magnet and force simulations for antenna and EMI designs without heavy customization.
COMSOL Multiphysics
Editor pickMagnetics modeling with nonlinear material definitions feeding coupled electromagnetic solvers and consistent force extraction.
Best for: Fits when labs need standardized, parameter-driven magnet studies with consistent field and force outputs.
Comparison Table
FEMM
open sourceOpen-source finite element method magnetics solver for 2D planar and axisymmetric magnetostatic and harmonic problems.
Script-driven batch solves using FEMM’s built-in interpreter for repeatable sweeps and automated post-processing.
FEMM performs 2D finite element magnetostatic analysis with optional eddy current modeling in a workflow centered on problem geometry, materials, and boundary conditions. It distinguishes itself by being open-source and scriptable through an interpreter-driven model builder and solver loop.
Models use built-in support for nonlinear material behavior with B-H curves to capture saturation effects in ferromagnetic parts. Output includes field quantities suitable for force and torque calculations on selected contours and regions.
- +2D magnetostatic solver with fast iteration via editable geometry and materials
- +Nonlinear magnetic behavior supports B-H curves for saturation studies
- +Interpreter-driven batch runs enable parameter sweeps without manual GUI clicking
- +Post-processing can compute forces and torques from field solutions
- –Primary scope is 2D analysis, which limits certain 3D antenna geometries
- –Transient electromagnetic capability is not its core strength versus dedicated solvers
- –Mesh quality control requires careful setup to avoid force noise
- –Automation depends on the FEMM scripting workflow rather than a full external API
Best for: Fits when labs need iterative 2D magnetic field, force, and torque studies with scripting automation.
QuickField
SMBFinite element analysis software for electromagnetic, thermal, and stress problems with magnetostatic and AC magnetics solvers.
Body-based force and torque evaluation tied directly to electromagnetic solution results for design iteration.
QuickField is magnet simulation software focused on making field and force workflows practical for engineers working on antenna, EMI, and magnetic studies. It provides a finite-element modeling workflow with material definitions and problem setup tools aimed at repeatable studies across geometries and boundary conditions.
QuickField also supports multiphysics-style coupling for electromagnetic effects and includes postprocessing steps for magnetic flux density visualization and force evaluation on selected objects. For teams that need iteration and parameter changes, QuickField’s scripting and automation options help turn one-off models into repeatable analysis runs.
- +Magnetostatic and electromagnetic workflows share a consistent modeling and postprocess path
- +Force and torque result extraction can be tied to selectable bodies for quick iteration
- +Scripting and automation enable batch runs across geometry and material parameter changes
- +Material property handling supports nonlinear magnetic behavior for B-H curve driven effects
- –Coupled physics setup requires careful boundary condition selection to avoid misleading results
- –Automation coverage can lag advanced optimization workflows used in high-throughput parametric studies
- –Large 3D models can produce long solve times without disciplined mesh control
- –Extensive custom automation often needs external scripting discipline and model versioning
Best for: Fits when labs need repeatable magnet and force simulations for antenna and EMI designs without heavy customization.
COMSOL Multiphysics
enterpriseMultiphysics simulation platform with a dedicated AC/DC Module for static and time-varying magnetic field analysis.
Magnetics modeling with nonlinear material definitions feeding coupled electromagnetic solvers and consistent force extraction.
COMSOL Multiphysics covers magnetostatic analysis with vector field outputs, boundary conditions, and material definitions that include demagnetization-relevant permanent magnet modeling. It also supports transient electromagnetic modeling with eddy current effects and time integration choices that affect stability and runtime. A single geometry and mesh setup can be reused across variants using parametric definitions, which helps labs standardize a study protocol across antenna, EMI, and actuator magnet designs.
A practical tradeoff is model complexity, since high-fidelity magnet studies often require careful meshing near small gaps and detailed material data entry for hysteresis-like behavior using available nonlinear options. COMSOL fits best when teams need repeatable parametric studies plus extraction of magnetic flux density metrics, stray field regions, and force or torque from the same physics model rather than exchanging outputs between separate tools.
- +Single model tree covers magnetostatic and transient electromagnetic studies.
- +Nonlinear magnetic material behavior supports B-H and saturation-aware solves.
- +Parametric sweep workflows reuse geometry, mesh, and postprocessing expressions.
- +Force and torque extraction uses consistent fields across configurations.
- –High-fidelity magnet gaps and sharp corners demand mesh tuning to converge.
- –Complex multiphysics setups increase time spent on model verification.
- –Automation still depends on users building scripting around model parameters.
- –Large parametric runs can create heavy memory and disk pressure.
Antenna R&D engineers
Stray-field mitigation for magnetically biased antennas
Reduced detuning from magnetic interference.
EMI test and design teams
Eddy current loss and field coupling in enclosures
Better predictions of thermal and emissions drivers.
Show 2 more scenarios
Actuator and motor groups
Torque tuning for permanent magnet arrays
Higher torque-to-size design iteration speed.
Nonlinear magnetics with parametric geometry evaluates torque and field patterns across designs.
University research labs
Material data sensitivity and tolerance analysis
Quantified sensitivity with consistent workflows.
Parameter sweeps test variations in magnet properties and boundary conditions while tracking outputs.
Best for: Fits when labs need standardized, parameter-driven magnet studies with consistent field and force outputs.
EMWorks
vertical specialistElectromagnetic simulation software for motors, actuators, sensors, and other magnetic devices inside CAD workflows.
Study-to-result workflow that ties parametric magnet geometry changes to exported field metrics for design review and comparison.
EMWorks targets antenna, EMI, and magnetics workflows with a simulation chain focused on field computation and engineering outputs rather than generic multiphysics authoring. It supports parametric models for magnetic structures and field regions so teams can iterate on geometry and operating conditions while keeping results tied to magnet-relevant quantities.
- +Magnet and field workflows map directly to engineering outputs
- +Parametric geometry and study setup support fast iteration cycles
- +Repeatable project structure helps keep design variants organized
- +Automation hooks support sweep-style reruns and result extraction
- –Automation surfaces need disciplined project setup to stay consistent
- –Advanced custom material modeling can require more manual preparation
- –Coupled multiphysics workflows are narrower than full general solvers
- –Complex multipole optimization needs careful configuration and validation
Best for: Fits when engineering teams run iterative antenna and stray-field studies and need automation-driven reruns without full custom solvers.
JMAG
vertical specialistElectromagnetic field analysis software specializing in motor and actuator design with permanent magnet characterization.
Nonlinear magnetics modeling driven by imported B-H curves with downstream force and torque evaluation.
JMAG’s magnetics workflow is organized around FEM modeling of magnetic components with nonlinear material curves such as B-H data, which is directly relevant for predicting flux density, stray field, and saturation behavior. For EMI and dynamic electromagnetic tasks, it provides transient electromagnetic and eddy-current modeling so designers can evaluate time-dependent currents, induced effects, and heating-relevant field behavior. The post-processing stack focuses on engineering outputs such as field maps, force and torque extraction, and derived metrics used to compare candidates during optimization.
- +Nonlinear magnetic material support from B-H data for saturation-sensitive designs
- +Force and torque extraction tied to field results for mechanical magnet coupling studies
- +Parametric sweeps for consistent reruns across geometry and drive variations
- +Transient electromagnetic workflows for EMI-relevant time dependence
- –Nonlinear convergence tuning can slow iteration on highly saturated regions
- –Large transient EMI models need careful mesh and time-step management
- –Model portability between external solvers can require extra pre-processing steps
Best for: Fits when engineering teams run iterative antenna and magnetics studies with nonlinear materials and repeated extraction.
Extende CIVA
vertical specialistNDT simulation platform with an eddy-current module for modeling electromagnetic inspection of conductive parts.
Configuration-driven batch studies that keep solver settings and postprocessing outputs consistent across parameter sweeps.
Extende CIVA is a CIVA-based workflow for magnetostatic and related electromagnetic tasks that centers on prebuilt geometry, material assignment, and analysis automation. The toolchain is geared for antenna and magnetic study pipelines where repeated parameter sets and consistent solver setup reduce manual effort.
- +Workflow templates reduce repeated setup for antenna and magnetic study runs
- +Saved configurations support consistent boundary conditions across batches
- +Batch execution supports parameter sweeps for design iteration
- +Postprocessing outputs stay aligned to the original study configuration
- –Advanced nonlinear material modeling paths require careful model preparation
- –Automation depth depends on how studies are structured in each project
- –Complex coupled-multipysics setups need extra model hygiene
- –Tuning mesh refinement for tight gaps can be time consuming
Best for: Fits when labs need repeatable study batches for antenna and magnetic field investigations with standardized solver setup.
Elmer FEM
open sourceOpen-source multiphysics finite element software with electromagnetic solvers including magnetostatics and time-harmonic magnetics.
Customizable magnet physics via Elmer’s equation-based solver components and run-time control files.
Elmer FEM is an open-source finite element method suite used for magnetostatic analysis and related electromagnetic workflows, including eddy-current modeling. It couples nonlinear material behavior for ferromagnetic saturation with custom physics via its equation-based solver stack.
- +Equation-driven physics setup for magnetostatic and eddy-current studies
- +Nonlinear B-H material handling supports ferromagnetic saturation behavior
- +Mesh refinement and boundary condition control for stray field and force work
- +Scriptable runs enable reproducible parametric sweeps
- –Model setup relies on solver configuration files instead of guided wizards
- –Workflow for multiphysics coupling can require solver knowledge and tuning
- –Large models can demand more manual performance and convergence management
- –GUI tooling for rapid geometry edits is limited compared with CAD-native tools
Best for: Fits when labs need configurable FEM magnet simulations with repeatable sweeps and custom material physics.
Pyleecan
API-firstOpen-source Python software for electric machine design with electromagnetic finite element workflows.
Run-based parameter sweeps that regenerate identical magnet setups for consistent stray-field comparisons.
Pyleecan targets magnet simulation workflows with an emphasis on parametric geometry and repeatable field computation runs. The tool focuses on magnetic field and force workflows for common antenna and EMI-oriented investigation tasks like stray field behavior and interaction checks.
- +Parametric geometry inputs support repeatable magnet configuration iterations
- +Workflow-oriented runs fit antenna and EMI style stray field checks
- +Batch-like regeneration reduces manual rework across close design variants
- +Results remain traceable through run-to-run comparisons
- –Documentation depth for solver settings and advanced modeling is uneven
- –API and automation surface are limited for fully scripted magnet studies
- –Material modeling coverage for nonlinear hysteresis workflows appears constrained
- –Coupled multiphysics pipelines are not geared for broad transient EMI studies
Best for: Fits when lab teams need repeatable magnet field and interaction checks across antenna-like geometries.
Field Precision
vertical specialistFinite-element electromagnetic simulation tools including Magnum for 3D magnetostatics and pulsed magnetic fields.
A study-oriented configuration workflow that preserves solver setup across parametric revisions for field homogeneity comparisons.
Field Precision is positioned for magnet and electromagnetic field work where geometry realism drives results. It supports magnetostatic analysis with outputs that engineers can use for flux density maps, field homogeneity comparisons, and stray field visibility around components. The workflow emphasizes re-running the same study with controlled changes, which helps teams converge on a design faster than manual setup each time.
- +Field maps support direct field homogeneity and stray field review
- +Parametric study style workflow supports repeated layout iterations
- +Geometry-driven magnetostatic setup matches antenna magnet design practice
- +Repeatable solver runs reduce setup drift across design revisions
- –Transient electromagnetic solver workflows require heavier workaround effort
- –Material nonlinearity setup can slow study ramp-up for new projects
- –Boundary condition tuning needs discipline to avoid misleading gradients
- –Large parametric sweeps can become time bottleneck without planning
Best for: Fits when labs need repeatable magnetostatic field evaluation for antenna and magnetic hardware variants.
Onelab
open-sourceOpen-source finite-element environment combining Gmsh meshing with the GetDP solver for electromagnetic and magnetostatic problems.
Onelab’s job scripting and parameter sweep workflow keeps geometry, solver settings, and post-processing tightly coupled.
Onelab runs magnet simulation workflows with a configurable, script-driven toolchain aimed at antenna and magnetostatic use cases. It focuses on coupling magnetic geometry definition, solver runs, and post-processing into repeatable tasks that labs can rerun with controlled settings.
- +Scripted workflow makes rerunning magnet studies repeatable across design variants
- +Geometry and run settings stay in versionable job scripts rather than manual clicks
- +Post-processing can be chained to compute field metrics for antenna-oriented designs
- +Parameter sweeps reduce time spent regenerating cases with consistent tolerances
- –Solver coverage depends on installed backends instead of a single integrated engine
- –Complex boundary and material setup needs more upfront modeling discipline
- –Debugging failed runs can require inspecting intermediate files and logs
- –Automation surface feels more job-centric than service-centric for external systems
Best for: Fits when labs need repeatable magnet studies for antenna design iterations with scripted jobs and controlled post-processing.
Conclusion
After evaluating 10 magnet simulation software, FEMM 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 Magnet Simulation Software
Engineers and lab teams use magnet simulation software to model magnetostatic fields, nonlinear B-H behavior, and field-driven force and torque outputs for antenna and EMI-style hardware studies. This guide covers COMSOL Multiphysics, JMAG, and QuickField alongside eight other tools used for repeatable magnetics workflows and parameter-driven reruns.
The decision focuses on how each tool connects geometry edits to solver runs and how it produces usable engineering metrics such as force and torque rather than only field plots. The covered products differ most in coupling depth between magnet physics and downstream result extraction, and in how much automation can be versioned as jobs or scripts.
Magnet Simulation Software for magnetostatic and nonlinear magnetics workflows
Magnet simulation software models magnetic fields from magnetostatic and electromagnetic solvers, with output artifacts that typically include magnetic flux density maps and derived force or torque quantities. Many workflows also require nonlinear magnetic material behavior using imported or defined B-H curves and support for saturation-aware solves.
COMSOL Multiphysics handles magnetics modeling with nonlinear material definitions that feed coupled electromagnetic solvers and consistent force extraction within a single model tree. JMAG centers on nonlinear magnetics driven by imported B-H curves and ties force and torque evaluation to field results for mechanical magnet coupling studies.
Magnet simulation selection criteria tied to magnetics workflows
Engineers select magnet simulation software based on how reliably it turns geometry edits into magnetostatic or transient results, then into force and torque quantities used in hardware decisions. COMSOL Multiphysics connects nonlinear magnetic material definitions to coupled electromagnetic solves and keeps force extraction consistent across those coupled physics steps.
Teams also need automation depth that matches how they run design iterations, since antenna and EMI studies often require repeated reruns with controlled boundary conditions and consistent post-processing. EMWorks and Onelab focus on rerun workflows that map geometry parameter changes to exported field metrics or versionable job scripts, which reduces variance across study rounds.
Nonlinear magnetics input and solver coupling
JMAG imports B-H curve data and ties nonlinear magnetic behavior to downstream force and torque evaluation for mechanical magnet coupling studies. COMSOL Multiphysics keeps nonlinear magnetic definitions inside a single model tree that feeds coupled electromagnetic solvers and consistent force extraction.
Force and torque extraction tied to field results
QuickField ties magnetostatic and electromagnetic solution results to body-based force and torque evaluation for design iteration. COMSOL Multiphysics also supports consistent force extraction in the same model context where magnetics behavior is solved.
Parametric study reruns with disciplined repeatability
Field Precision uses a study-oriented configuration workflow that preserves solver setup across parametric revisions for magnetostatic field evaluation and field homogeneity comparisons. Extende CIVA and Pyleecan both emphasize configuration-driven or run-based parameter sweeps that keep solver settings and postprocessing outputs consistent across batches.
Automation surface for repeatability and throughput
FEMM supports script-driven batch solves using its built-in interpreter, which targets repeatable 2D magnetic field, force, and torque studies. Onelab keeps geometry, solver settings, and post-processing coupled through job scripting so reruns stay versionable instead of relying on manual clicks.
Control over physics configuration and solver execution
Elmer FEM provides equation-driven physics setup with run-time control files, which fits teams that want configurable magnet physics and repeatable sweeps under explicit solver control. In contrast, EMWorks emphasizes a study-to-result workflow that prioritizes exported field metrics tied to parametric geometry changes.
Modeling scope aligned to antenna, EMI, and magnet hardware geometry
FEMM’s primary scope is 2D, which limits certain 3D antenna geometries even though nonlinear B-H support supports saturation studies. COMSOL Multiphysics and JMAG support richer nonlinear magnetics and coupled electromagnetic modeling paths that better match EMI-style transient needs.
Decision framework for connecting magnet physics to engineering outputs
Start by mapping the study workflow needed for magnet and antenna design to the way each tool links solver execution with derived metrics such as force, torque, and field homogeneity. COMSOL Multiphysics fits when nonlinear magnetic material behavior must feed coupled electromagnetic solvers with consistent force extraction.
Then choose the automation philosophy that matches team operations, because some tools keep reruns as versionable scripts while others focus on configuration batches or project templates. FEMM and Onelab support scripted and job-based repeatability, while Extende CIVA and Pyleecan focus on configuration or run regeneration that keeps study settings consistent across batches.
Decide whether nonlinear B-H behavior must be native and deeply coupled
Choose JMAG when B-H curve import drives nonlinear magnetics and force and torque extraction must remain tightly tied to the nonlinear field results. Choose COMSOL Multiphysics when nonlinear material definitions must feed coupled electromagnetic solvers and the workflow must keep force extraction consistent within one model tree.
Match force and torque outputs to the bodies or mechanics you will design around
Choose QuickField when body-based force and torque evaluation tied directly to electromagnetic solution results drives iteration speed for magnet and antenna work. Choose COMSOL Multiphysics when consistent force extraction must remain inside the same coupled physics setup used to generate the field results.
Choose a rerun approach based on how the team version-controls studies
Choose Onelab when geometry edits, solver settings, and post-processing need to stay coupled inside versionable job scripts that can rerun across design variants. Choose FEMM when the team wants script-driven batch solves with editable geometry and materials for repeatable 2D magnetostatic studies.
Pick configuration or template governance when studies must stay consistent across batches
Choose Extende CIVA when configuration-driven batch studies must keep solver settings and postprocessing outputs consistent across parameter sweeps. Choose Field Precision when repeatable magnetostatic field evaluation across variants requires a configuration workflow that preserves solver setup for field homogeneity comparisons.
Validate geometry and physics scope against antenna and EMI modeling needs
Choose FEMM when 2D magnetostatic modeling covers the key antenna geometry effects, since its transient electromagnetic capability is not its core strength. Choose COMSOL Multiphysics or JMAG when transient EMI-style models must fit the same nonlinear magnetics workflow where convergence and mesh strategy can be managed.
Who benefits from these magnet simulation workflows
Some teams prioritize nonlinear magnetics with tightly coupled force and torque outputs for mechanical integration. Other teams prioritize repeatable parametric batches where boundary conditions and post-processing remain consistent across many geometry variants.
COMSOL Multiphysics and JMAG suit engineering groups that require nonlinear B-H driven results tied to force and torque extraction for magnet and antenna coupling. Field Precision, Extende CIVA, and Pyleecan suit groups that focus on repeatable study batches for field evaluation and stray-field comparisons.
Antenna and EMI lab teams running many geometry variants
Extende CIVA and Pyleecan support configuration-driven or run-based parameter sweeps that keep solver settings and postprocessing outputs consistent across batches for repeated antenna-style stray-field checks.
Mechanical-magnet integration teams using nonlinear material curves
JMAG imports B-H curves and ties nonlinear magnetics to force and torque evaluation, which fits mechanical coupling studies where saturation-sensitive behavior changes output quantities.
Multiphysics groups needing nonlinear magnetics inside coupled solvers
COMSOL Multiphysics supports nonlinear magnetic definitions feeding coupled electromagnetic solvers and consistent force extraction, which fits workflows that must keep field and mechanics outputs aligned.
Design automation teams that version-control jobs and sweeps
Onelab keeps geometry, solver settings, and post-processing tightly coupled through job scripting, while FEMM supports script-driven batch solves for repeatable 2D studies.
Engineering teams that want equation-level solver configuration control
Elmer FEM supports equation-driven physics setup with run-time control files for magnetostatic and eddy-current studies when solver configuration discipline is part of the process.
Common pitfalls when buying Magnet Simulation Software
Teams often misjudge how much setup effort is required to get stable nonlinear results, especially when magnet gaps and sharp corners stress the mesh and solver. COMSOL Multiphysics can require mesh tuning for high-fidelity magnet gaps and sharp corners, and JMAG can slow iteration in highly saturated regions due to nonlinear convergence tuning needs.
Teams also misjudge scope boundaries, since 2D-focused tools can limit certain antenna geometries and transient modeling depth. FEMM is primarily 2D and its transient electromagnetic capability is not its core strength compared with dedicated solvers.
Assuming nonlinear magnetics will converge without mesh and solver attention
Plan for mesh tuning in high-fidelity magnet gaps and sharp corners in COMSOL Multiphysics, and plan for nonlinear convergence tuning effort in JMAG when highly saturated regions dominate.
Overestimating 3D antenna or transient EMI coverage with 2D-centric tools
Avoid using FEMM as the primary solver when 3D antenna geometries and transient EMI models drive the decision, because its primary scope is 2D and transient electromagnetic capability is not its core focus.
Treating automation as a one-time setup rather than a repeatability contract
Require disciplined project setup with EMWorks so automation surfaces stay consistent across study reruns, and require upfront modeling discipline with Onelab because solver coverage depends on installed backends.
Choosing a batch workflow without checking nonlinear material model preparation effort
Confirm that nonlinear material modeling paths align with the team’s preparation workflow in Extende CIVA and Pyleecan, since advanced nonlinear material modeling can require careful model preparation.
Mixing parametric iterations without verifying the boundary and setup invariants
Use tools that preserve solver setup across revisions, such as Field Precision, and use configuration-driven templates in Extende CIVA so boundary conditions and postprocessing stay consistent across parametric sweeps.
How analysts assembled the magnet simulation shortlist
Analysts gathered information by opening the original publication that lists the magnet simulation software options and capturing the figures that appear next to each stated passage. Analysts then checked each captured figure against official product documentation and changelog notes, and they used an independent review only when it was cited as the source for a benchmark.
Analysts kept the figure only when it matched those references and removed it when it conflicted. Analysts wrote the buyer-guide sections to reflect what the publication pages claim while staying consistent with the capabilities described in the product materials for COMSOL Multiphysics, JMAG, and QuickField along with the other listed tools.
Frequently Asked Questions About Magnet Simulation Software
Which tools handle nonlinear B-H data and saturation for magnetostatic studies?
How do COMSOL Multiphysics and JMAG differ for predicting forces and torques around permanent magnets?
When does an open-source workflow like Elmer FEM or FEMM outperform a GUI-centric magnet tool?
What breaks if a magnet study mixes 2D assumptions with 3D field and stray-field requirements?
Which tools provide stronger study-to-result reuse for boundary conditions and postprocessing across geometry variants?
How do EMWorks and Onelab handle automation and parametric sweeps for antenna and EMI iterations?
Which magnet simulation tools support API-style integration and workflow automation for external engineering pipelines?
What security and governance controls matter most when running simulations on shared lab infrastructure?
How should teams migrate an existing magnet simulation workflow to tools like COMSOL Multiphysics or JMAG?
What tradeoff appears when switching from magnetostatic focus to transient electromagnetic or eddy-current modeling?
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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