GITNUXSOFTWARE REVIEW
Science ResearchTop 10 Best Magnetic Field Simulation Software of 2026
Top 10 magnetic field simulation software ranking for engineers, with tool comparisons and tradeoffs for FEMM, JMAG, and Elmer.
How we ranked these tools
Vendors set the topic, but our editors set the inclusion criteria and the evaluation framework before research starts.
Agents extract product evidence with provenance, then collect written reviews and transcribe video reviews and podcasts.
Framework: Features 40% · Ease 30% · Value 30%
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FEMM is the best choice for engineers doing repeatable 2D magnetic field studies because its nonlinear B‑H curve handling and FEMM scripting make it easy to run the same geometry and excitation across parametric sweeps. JMAG is a strong alternative for motor teams since it couples nonlinear magnetics setup with torque-focused outputs in a repeatable workflow.
Editor’s top 3 picks
Three quick recommendations before you dive into the full comparison below — each one leads on a different dimension.
FEMM
Nonlinear B-H curve handling combined with automated parametric studies via FEMM scripting for repeated geometry and excitation runs.
Best for: Fits when engineers need repeatable 2D magnetics studies with nonlinear materials and fast field inspection.
JMAG
Editor pickMachine-focused setup that ties geometry, material nonlinearity, and torque calculation into a repeatable study workflow.
Best for: Fits when motor teams need repeatable electromagnetic studies with torque outputs and nonlinear materials.
Elmer
Editor pickElmer’s magnetics workflow uses finite element configurations that integrate nonlinear ferromagnetic material behavior with derived force and torque outputs.
Best for: Fits when engineering teams need script-driven FEM magnetics with nonlinear material control.
Comparison Table
FEMM
desktop freewareFree finite element package for two-dimensional electrostatics, heat flow, current flow, and low-frequency magnetics.
Nonlinear B-H curve handling combined with automated parametric studies via FEMM scripting for repeated geometry and excitation runs.
FEMM is a magnetic field simulation tool that focuses on 2D magnetics with a compact workflow around solving, post-processing, and editing models. Its core strengths are magnetostatic and related low-frequency use cases using built-in material curves and standard boundary condition setups.
FEMM also supports parametric sweeps and batch runs through its scripting interface, which helps automate repeated geometry and excitation variations. Compared with heavier multiphysics solvers, FEMM stays lighter for quick field mapping tasks but covers less breadth for advanced 3D and coupled physics.
- +Fast 2D magnetics workflow with direct geometry edits and immediate field plots
- +Built-in support for nonlinear B-H curves and common magnet material definitions
- +Scripted parametric sweeps enable repeatable studies without manual model recreation
- +Clear separation of solution setup and post-processing outputs for field inspection
- –Limited modeling depth for 3D geometries and volumetric magnetics
- –Coupled physics coverage is narrower than general multiphysics electromagnetic suites
- –Solver performance depends on mesh quality and geometry cleanup rather than automation
- –Automation requires scripting familiarity and careful project file management
Best for: Fits when engineers need repeatable 2D magnetics studies with nonlinear materials and fast field inspection.
JMAG
vertical specialistSimulation software specialized in electromagnetic design and analysis for motors, actuators, transformers, and magnetic materials.
Machine-focused setup that ties geometry, material nonlinearity, and torque calculation into a repeatable study workflow.
JMAG is a magnetic field simulation suite that couples geometry-driven modeling with solvers aimed at electromechanical machines. It covers magnetostatic, eddy current, and transient electromagnetic workflows for component and machine-level analysis.
The workflow emphasizes motor-centric outputs like torque and force derived from magnetic field results, supported by materials that include nonlinear B-H behavior. JMAG is distinct for its integration of CAD import and electromagnetic study setup tuned to typical motor and actuator design cycles.
- +Strong magnetics-to-motion workflow for torque and force postprocessing
- +Nonlinear B-H curve support for ferromagnetic material behavior
- +CAD import and study automation reduce setup time for repeated geometries
- +Workflow coverage across magnetostatic and eddy current use cases
- –More detailed solver setup is needed for tightly controlled mesh convergence
- –Less flexible multiphysics coupling depth than general-purpose multiphysics stacks
- –Large parametric sweeps can hit throughput limits without careful compute planning
- –STEP import edge cases can require manual cleanup before meshing
Best for: Fits when motor teams need repeatable electromagnetic studies with torque outputs and nonlinear materials.
Elmer
open-sourceOpen-source multiphysics finite element software that includes magnetodynamics and related electromagnetic solvers.
Elmer’s magnetics workflow uses finite element configurations that integrate nonlinear ferromagnetic material behavior with derived force and torque outputs.
Elmer’s core value comes from a finite element simulation workflow that reads geometry, generates tetrahedral meshes, and runs configurable magnetics solvers with explicit boundary condition control. Nonlinear B-H curve modeling and ferromagnetic material definitions support realistic demagnetization and hysteresis-adjacent behavior workflows when the material library is defined accordingly. Derived quantities such as force density and torque calculation enable actuator and magnetic coupling studies without exporting to a separate post-processing system for basic mechanical outputs.
A tradeoff is that Elmer’s power depends on configuration discipline, since solver settings and nonlinear convergence controls are managed through input files rather than guided wizards. Elmer fits best when teams run repeatable studies like parametric sweeps and mesh convergence checks, such as optimizing pole shapes for flux leakage reduction under defined boundary conditions.
- +Nonlinear ferromagnetic B-H curve modeling supports realistic magnet behavior
- +Configurable solver inputs enable repeatable parametric sweeps and convergence runs
- +Multi-physics coupling supports magnetics with thermal and mechanical calculations
- +Direct torque and force density derivations reduce post-processing handoffs
- –Solver tuning and nonlinear convergence require careful setup and iteration
- –Graphical workflow tooling is lighter than commercial electromagnetics suites
- –Transient electromagnetic studies need more manual model configuration than defaults
Electromagnetic analysis engineers
Actuator optimization with nonlinear pole materials
Reduced tuning cycles
Finite element simulation teams
Mesh convergence on flux linkage
Stabilized results
Show 2 more scenarios
Multi-physics modeling groups
Magnetics coupled to thermal effects
Coupled predictions
Elmer coordinates multi-physics coupling so magnetic fields drive thermal or mechanical response fields.
Automation-focused simulation owners
Batch runs across geometry variants
Higher throughput
Elmer supports parametric study automation through controllable input configurations across model variants.
Best for: Fits when engineering teams need script-driven FEM magnetics with nonlinear material control.
QuickField
SMB2D finite element analysis software for magnetostatics, AC magnetics, heat transfer, and coupled engineering problems.
Parameterized design study workflows that keep magnetic field results comparable across geometry and condition variations.
QuickField simulates magnetic fields by solving magnetostatic and related electromagnetic problems from uploaded CAD geometry. Its core workflow centers on mesh generation, boundary condition setup, and post-processing of fields and derived quantities like flux density maps.
- +CAD-to-mesh workflow supports fast iteration on magnetic field setups
- +Field and derived result visualizations reduce manual post-processing steps
- +Parameter-driven study runs support repeatable comparisons across design variants
- +Geometry import and result export fit common electromagnetic reporting needs
- –Advanced multiphysics workflows can require external setup beyond core magnetic solving
- –Nonlinear ferromagnetic material modeling depth may not match specialist solvers
- –Tight control of meshing strategy can be limiting for difficult convergence cases
- –API automation surface is narrower than full engineering suites for large-scale orchestration
Best for: Fits when teams need repeatable magnetic field simulations from CAD without building custom solver pipelines.
openEMS
open-sourceOpen-source electromagnetic field solver that supports time-domain simulation and can be used for selected magnetic field modeling tasks.
Grid-based time-domain magnetic simulation with programmable sources and reusable model scripts for automated parametric studies.
openEMS is an open-source electromagnetic simulation tool used for magnetics and transients, with a workflow built around scripted models instead of GUI-first setups. It provides magnetostatic and time-domain solvers with field outputs designed for measurement-like post-processing such as flux and coupling extraction.
- +Script-driven setup supports repeatable sweeps and variant models
- +Field outputs support flux and coupling style post-processing
- +Broad open-source extensibility via custom workflows
- +Time-domain analysis fits eddy current and transient magnetic studies
- –GUI tooling is limited compared with commercial CAD-centric solvers
- –Mesh quality control takes manual attention for stable convergence
- –Material nonlinearities can be harder to wire into workflows
- –Large models require more setup effort for HPC throughput
Best for: Fits when teams need scriptable magnetic simulation repeatability and integration into custom engineering workflows.
FlexPDE
SMBGeneral PDE solver that supports custom electromagnetic and magnetic field models through equation-based setup.
Script-controlled PDE setup that ties meshing, solver settings, and field output requests to one versioned model file.
FlexPDE is a PDE-focused magnetics solver that targets engineer workflows where defining geometry, materials, and boundary conditions through a text model matters. It supports magnetostatic analysis with options that map cleanly to vector potential and scalar potential formulations, plus ferromagnetic material behavior inputs for nonlinear B-H curves.
- +Text-driven PDE model keeps boundary conditions and outputs versionable
- +Magnetics workflows fit scalar and vector potential formulations
- +Nonlinear ferromagnetic inputs support B-H curve parameterization
- +Repeatable parameter sweeps are practical for design iterations
- –Geometry and setup are less click-driven than GUI EM tools
- –Coupled EM plus thermal plus circuit workflows require extra work
- –Large multiphysics assemblies can be slower to iterate
- –Team adoption depends on maintaining model conventions
Best for: Fits when magnetics engineers need scriptable magnetostatic studies with repeatable parameter sweeps and controlled outputs.
Agros2D
open-sourceOpen-source 2D finite element platform for electromagnetic and other coupled field simulations.
Built-in force and torque computation from 2D magnetostatic solutions using the same field solve.
Agros2D supports magnetostatic analysis and common magnetics workflows such as setting boundary conditions, applying excitation sources, and modeling ferromagnetic behavior through nonlinear B-H curve input. Geometry import and exchange fit common engineering pipelines that rely on CAD-derived shapes, and the solver workflow stays focused on electromagnetic fields rather than broad multi-physics coupling. The package includes utilities for mesh generation, export for downstream inspection, and solver runs that align with parametric sweeps for design iteration.
- +Focused 2D magnetostatic workflow with clear boundary condition setup
- +Nonlinear B-H curve material modeling supports ferromagnetic saturation behavior
- +Iterative mesh refinement helps reach stable flux density field maps
- +Force and torque post-processing supports actuator and cogging checks
- –2D modeling restricts accuracy for end effects and out-of-plane flux
- –Limited integration surface for external automation compared with solver ecosystems
- –Fewer advanced coupled physics workflows than general-purpose electromagnetic suites
- –Large parameter sweeps can become time-heavy without parallel run tooling
Best for: Fits when 2D magnetic field studies need repeatable geometry, material, and field-map iteration.
EMWorks EMS
vertical specialistElectromagnetic simulation software for SolidWorks focused on motors, actuators, transformers, and sensors.
EMS study automation that runs many magnetic field cases from a shared project configuration.
EMWorks EMS is built for end-to-end analysis runs that start from geometry and finish with exportable results for field evaluation, rather than treating simulation as a one-off GUI session. Geometry handling and mesh generation controls support repeatable runs, which matters for projects that iterate on coil layouts or ferromagnetic component shapes. Automation features are oriented around running multiple cases with controlled changes to input parameters and settings.
- +Batch-ready study execution for parametric magnetic field variants
- +Geometry to mesh to results workflow reduces manual case overhead
- +Configurable analysis runs support consistent field mapping outputs
- +Project organization supports re-running the same study structure
- –Solver-level control can be less granular than toolkit-first competitors
- –Advanced material modeling depth may require extra setup effort
- –Complex multi-physics coupling workflows can feel constrained
- –HPC-scale parallel tuning is not a primary workflow focus
Best for: Fits when teams need repeatable magnetic field studies with controlled parameter sweeps and batch runs.
GetDP
API-firstGetDP is an open-source finite-element solver for electromagnetic and coupled physical problems.
Weak-form, equation-driven setup that lets users implement custom magnetostatic and time-harmonic formulations directly.
GetDP is a field-simulation suite that focuses on equation-based electromagnetic modeling, where users define physics through weak forms. It covers magnetostatic and time-harmonic electromagnetic use cases and supports nonlinear ferromagnetic behavior via material laws that map to the underlying formulation.
- +Equation-first weak-form modeling for magnetics workflows
- +Nonlinear ferromagnetic material laws connect directly to the solver formulation
- +Scriptable parametric runs support repeatable sweeps without manual GUI steps
- +Good fit for custom boundary-condition and formulation control
- –Less turnkey for magnetostatic device setup than GUI-first suites
- –Complex physics definitions increase modeling effort for new users
- –Limited out-of-the-box CAD workflow coverage versus top commercial tools
- –Fewer prebuilt magnetics study templates than integrated multiphysics packages
Best for: Fits when custom magnetics formulations and automated parameter sweeps matter more than turnkey device wizards.
Simcenter MAGNET
enterpriseSimcenter MAGNET models static, transient, and frequency-dependent electromagnetic devices with finite-element methods.
Nonlinear B-H curve handling inside magnet-focused machine studies tied to Siemens project automation and repeatable model variants.
Simcenter MAGNET performs magnetostatic and transient electromagnetic field simulation for machines and magnet systems, with a workflow built around electromagnetic solvers and geometry-driven setup. The software supports ferromagnetic material modeling using nonlinear B-H data and enables loss-related postprocessing for electromechanical analysis. It also integrates with broader Siemens engineering tooling for meshing handoff, parametric studies, and project-based automation across design iterations.
- +Nonlinear ferromagnetic modeling with B-H curve support for magnet and machine analysis
- +Magnet-and-machine workflows centered on geometry edits and repeatable studies
- +Project-based automation for parametric sweeps across design variables
- +Loss-oriented postprocessing that fits electromechanical engineering deliverables
- –More setup effort for tightly controlled boundary conditions and flux leakage controls
- –Automation depth is tied to Siemens-centric workflows and ecosystem integration
- –Mesh tuning can dominate runtimes for complex 3D coil and pole geometries
- –API surface is narrower than general-purpose simulation stacks for custom pipelines
Best for: Fits when electromechanical teams need nonlinear magnet modeling with repeatable parametric studies inside a Siemens workflow.
Conclusion
After evaluating 10 magnetic field 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 Magnetic Field Simulation Software
Engineers use magnetic field simulation software to calculate magnetic flux density, magnetic forces, and machine-relevant torque by running magnetostatic, time-harmonic, or time-domain formulations on meshed geometries. This buyer’s guide covers COMSOL, ANSYS Maxwell, CST Studio Suite, Elmer, Agros2D, EMWorks EMS, FEMM, FlexPDE, GetDP, JMAG, openEMS, QuickField, and Simcenter MAGNET.
The tools covered here differ in how they represent nonlinear ferromagnetic behavior through B-H curve data, how they automate repeated sweeps across geometry and excitations, and how they move results into field maps and derived force or torque outputs. Teams also face tradeoffs between GUI-driven electromagnetics workflows and equation-first or script-first modeling approaches that keep boundary conditions, outputs, and study variants under versioned control.
Magnetic Field Simulation Software for magnetostatic and electromagnetic engineering studies
Magnetic field simulation software models electromagnetic behavior using numerical solvers such as finite element or finite difference time domain approaches, then computes field quantities like magnetic flux density and derived mechanical results like force density and torque. Nonlinear ferromagnetic modeling through nonlinear B-H curve input is a key capability across many packages, especially when magnetic saturation and hysteresis-linked curve effects change the operating point.
ANSYS Maxwell is commonly used for guided electromagnetic workflows that connect geometry, materials, and excitation settings to magnetics analysis and postprocessing, including machine-oriented force and torque views. COMSOL is often selected when teams need a broader multiphysics environment that ties nonlinear magnetics to other physics and supports repeatable study automation through scripting and parameterization.
Magnetic field simulation evaluation criteria that affect results and automation
Teams need simulation controls that keep boundary conditions, nonlinear B-H curve inputs, and derived outputs consistent across mesh changes and repeated study variants. COMSOL and Elmer both support nonlinear ferromagnetic behavior through B-H curve modeling, but they differ in how equation setup versus GUI configuration affects repeatability.
Nonlinear ferromagnetic behavior via B-H curve inputs
COMSOL supports nonlinear B-H curve material modeling for magnetics and multiphysics coupling, while Simcenter MAGNET centers magnetics-to-machine studies around repeatable variants using B-H curve support.
Forces and torque computed from the same field solve
Agros2D computes force and torque directly from 2D magnetostatic solutions using the same field solve, while JMAG ties magnetics setup to torque calculation and postprocessing inside a repeatable motor study workflow.
Automation for batch runs across geometry and excitations
EMWorks EMS runs many magnetic field cases from a shared project configuration for batch-ready parametric magnetic field variants, while FEMM uses FEMM scripting to drive automated parametric studies with repeated geometry and excitation runs.
Scripted, versionable modeling workflow for controlled outputs
FlexPDE ties meshing, solver settings, and field output requests to one versioned model file, while openEMS uses script-driven, grid-based time-domain models with programmable sources for repeatable parametric studies.
Custom formulation control for magnetostatic and time-harmonic physics
GetDP uses weak-form, equation-driven setup that lets teams implement custom magnetostatic and time-harmonic formulations directly, while openEMS supports programmable source definitions and model scripting for time-domain magnetic studies.
Choose by workflow style: GUI device studies, equation-first formulations, or script-controlled time-domain grids
A magnetics tool choice usually comes down to whether study variants remain tied to interactive electromagnetics configuration or to versioned scripts and equation definitions. ANSYS Maxwell and QuickField emphasize guided workflows that map inputs to field results and derived visuals, while GetDP and FlexPDE emphasize equation or script control for repeatable magnetostatic studies.
Start with the physics scope that matches the study type
Select ANSYS Maxwell for guided electromagnetic workflows that connect geometry, materials, and excitation settings to magnetics postprocessing, including machine-oriented force and torque views. Select openEMS when time-domain magnetic simulation with programmable sources and grid-based models matters more than GUI-centered device setup.
Decide whether the workflow is GUI-driven CAD iteration or script-driven model control
Choose QuickField when CAD-to-mesh iteration and comparable field results across geometry and condition variations drive the workflow, with field and derived result visualization reducing manual post-processing. Choose FEMM when fast 2D magnetics inspection and FEMM scripting for automated parametric studies are the main productivity gains.
Pick the nonlinear material workflow that fits the team’s tolerance for solver iteration
Choose COMSOL when nonlinear magnetics and broader multiphysics needs must share the same study automation and scripting environment for parametric control. Choose Elmer when engineering teams want script-driven FEM magnetics with nonlinear ferromagnetic B-H curve modeling and derived force and torque outputs, even if nonlinear convergence tuning takes setup iteration.
Match derived mechanical outputs to the dimension your model actually supports
Choose Agros2D when 2D magnetostatic solutions must produce repeatable force and torque from the same field solve, with nonlinear B-H curve modeling included for ferromagnetic saturation behavior. Choose JMAG when motor teams need magnetics-to-motion workflows centered on torque outputs, but accept that tightly controlled mesh convergence needs more detailed solver setup.
Use automation depth to reduce manual case overhead
Choose EMWorks EMS for batch-ready execution where many magnetic field cases run from shared project configuration and a geometry-to-mesh-to-results workflow reduces manual case steps. Choose openEMS or FlexPDE when the automation requirement is model scripting tied to controlled meshing and solver settings that remain versioned.
Who Magnetic Field Simulation Software fits best
Magnetic field simulation software fits engineering teams that must connect nonlinear material behavior and excitation settings to magnetic flux density and derived forces or torque. The main differentiator is whether the work centers on repeating device studies with guided configuration or on maintaining a scripted, versioned model for large parametric sweeps.
Motor and machine design teams focused on torque and force postprocessing
JMAG supports magnetics-to-motion workflows that include torque calculation using nonlinear B-H curve behavior, while Simcenter MAGNET ties nonlinear magnet modeling to Siemens-centered repeatable study variants for machine work.
Teams building large parametric studies with batch execution
EMWorks EMS supports batch-ready study execution for parametric magnetic field variants from shared project configuration, while FEMM uses scripting for automated parametric studies that repeatedly run geometry and excitation runs.
Researchers who need custom magnetostatic or time-harmonic formulations
GetDP enables weak-form, equation-driven setup where custom magnetostatic and time-harmonic formulations are implemented directly, while openEMS uses programmable sources in script-driven time-domain magnetic simulations.
Teams that need repeatable 2D magnetostatic force and torque from the same field solve
Agros2D computes force and torque directly from 2D magnetostatic solutions with nonlinear B-H curve support, while FEMM offers nonlinear B-H curve handling for fast 2D field inspection and scripted parametric studies.
Electromechanical groups working inside CAD-to-mesh iteration loops
QuickField keeps results comparable across geometry and condition variations using CAD-to-mesh workflows, while JMAG and COMSOL support nonlinear magnetics setups that often sit inside broader engineering workflows for study iteration.
Common mistakes that break magnetic field simulation credibility
Teams frequently lose time when the chosen workflow cannot reproduce the required dimension, output type, or nonlinear behavior. The most common failures come from mismatched automation expectations, weak configuration discipline for nonlinear convergence, or incorrect assumptions about what derived force and torque outputs are computed from.
Choosing a 3D requirement while relying on a 2D magnetostatic workflow that cannot represent end effects
Agros2D restricts accuracy for end effects and out-of-plane flux due to 2D modeling, while JMAG and COMSOL are set up for higher-fidelity magnetics work where end effects and full geometry representation matter.
Underestimating nonlinear solver tuning when nonlinear B-H curve modeling drives saturation behavior
Elmer’s nonlinear convergence requires careful setup and iteration, while COMSOL’s scripting and parameterization can support repeatable runs but still demands solver settings that stay consistent across sweeps.
Assuming automation exists without matching it to the tool’s project model
EMWorks EMS batch runs depend on a shared project configuration that drives case execution, while openEMS automation depends on reusable model scripts and programmable sources rather than GUI-only study steps.
Building a workflow that demands equation-level customization on a GUI-first setup
GetDP is designed for weak-form, equation-driven implementation of custom magnetostatic and time-harmonic formulations, while QuickField and ANSYS Maxwell emphasize guided workflows rather than equation-first modeling control.
Expecting coupled multiphysics coverage without planning extra work for additional physics definitions
FlexPDE can tie meshing, solver settings, and outputs to versioned model files but needs extra work for coupled EM plus thermal plus circuit workflows, while EMWorks EMS reduces overhead for magnetic studies but may require additional effort for deep solver-level material modeling.
How analysts built this list of magnetic field simulation tools
Analysts gathered documentation and product material that describe how each tool runs magnetic field studies and produces field and derived mechanical outputs. Analysts then compared each reported capability with official documentation and the changelog, and they kept specific claims only when the wording and figures aligned with those sources.
When an independent review cited performance or behavior details, analysts used that benchmark as the source for the included claim. Analysts focused on how teams handle nonlinear ferromagnetic behavior, repeatable parametric automation, and the workflow path from geometry to mesh to outputs.
Frequently Asked Questions About Magnetic Field Simulation Software
How do COMSOL, ANSYS Maxwell, and CST Studio Suite handle magnetostatic versus transient electromagnetic analysis workflows?
Which toolchains best support parameter sweeps for design iteration in 2D workflows?
What breaks if a team needs 3D end effects or out-of-plane flux behavior?
How do nonlinear B-H curve and ferromagnetic modeling differ across COMSOL, JMAG, and Elmer?
Which tools offer scriptable or API-driven automation for repeatable runs and geometry parameter updates?
How do STEP import workflows and mesh handoff affect magnetics studies in COMSOL and JMAG?
When teams need audit trails and role-based access for simulation projects, how do SSO and admin controls usually show up?
What data migration problems appear when switching between EMWorks EMS and GUI-first magnetics tools?
Where do users trade solver control for productivity when choosing between FlexPDE and GUI-first suites like CST Studio Suite?
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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