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Aerospace DefenseTop 10 Best Arc Flash Calculation Software of 2026
Ranked roundup of arc flash calculation software for safer electrical design, featuring ETAP, EasyPower, Select Arc Flash and others for engineers.
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%
Gitnux may earn a commission through links on this page — this does not influence rankings. Editorial policy
ArcPro is the best pick for engineering teams that need consistent arc-flash study reruns with incident heat energy and report outputs, whereas Power Analytics EasyPower equivalent (EDSA) fits when electrical engineers want repeatable arc-flash studies from controlled one-line models.
Editor’s top 3 picks
Three quick recommendations before you dive into the full comparison below — each one leads on a different dimension.
ArcPro
Study run parameterization that reuses protective device and model assumptions for consistent multi-project incident energy comparisons.
Built for fits when engineering teams need consistent arc-flash study reruns with coordination and report outputs..
Power Analytics EasyPower equivalent (EDSA)
Editor pickEDSA’s study rerun workflow uses network model revisions to regenerate results and reporting outputs consistently.
Built for fits when electrical engineering teams need repeatable arc-flash studies from controlled one-line models..
Arc Flash Analytic
Editor pickResult-to-label linking that generates equipment labeling outputs directly from the computed incident energy and boundary set.
Built for fits when engineering teams need repeatable arc-flash boundary and labeling outputs from one modeled one-line diagram..
Comparison Table
ArcPro
vertical specialistArc flash analysis software for calculating radiated and convected thermal energy from electric arcs, listed by OSHA for incident heat energy calculation.
Study run parameterization that reuses protective device and model assumptions for consistent multi-project incident energy comparisons.
ArcPro ties together one-line diagram based modeling, protective device settings, and protective device coordination so the analysis uses both electrical network data and device behavior. The output set focuses on arc-flash hazard analysis deliverables such as incident energy values, arc-flash boundary distances, and study report generation. The solution fits teams that must run multiple studies across similar lineups and compare outcomes when utility fault current or device settings change.
A tradeoff is that ArcPro expects consistent and complete protective device data to avoid misleading clearing-time results. ArcPro fits a usage situation where engineers maintain a reusable protective device library and repeatedly analyze motor contributions and transformer impedance impacts across projects.
- +Protective device coordination inputs drive clearing time into results
- +Incident energy and arc-flash boundary outputs match common study deliverables
- +Repeatable study configurations support batch reruns across similar assets
- +Report generation covers study outputs used for field labeling
- –Complete device settings are required to prevent clearing-time distortion
- –Model setup effort increases when lineups lack clean one-line structure
- –Change tracking across multiple revisions needs disciplined study management
- –Automation depth depends on external data preparation for model inputs
Electrical engineering teams
Run coordinated arc-flash studies by feeder
Fewer rework iterations per feeder
Facilities safety engineers
Update warning labels after device changes
Label updates with consistent assumptions
Show 1 more scenario
Industrial asset owners
Assess arc-flash hazard across repeat lineups
Faster hazard analysis rollout
ArcPro supports rerunning studies using shared device libraries across similar motor and transformer configurations.
Best for: Fits when engineering teams need consistent arc-flash study reruns with coordination and report outputs.
Power Analytics EasyPower equivalent (EDSA)
enterpriseElectrical power system analysis suite with arc flash hazard assessment.
EDSA’s study rerun workflow uses network model revisions to regenerate results and reporting outputs consistently.
Power Analytics EasyPower equivalent (EDSA) fits groups that already maintain an electrical network model and need arc-flash hazard analysis results tied to the same one-line representation. The software emphasizes a calculation pipeline that transforms network and device inputs into incident energy outputs and boundary-related results used for labeling workflows. EDSA’s study rerun pattern is strongest when the underlying network model and protective device settings are managed as a controlled source for each revision.
A tradeoff appears in customization depth for nonstandard study workflows that require unusual parameter definitions or bespoke boundary logic beyond common industry formulas. EDSA works best when study inputs can be standardized across sites, and study reports can be generated from that consistent input set for recurring projects.
- +Repeatable network-driven study reruns for model revision control
- +Protective device coordination results tied to available fault current
- +Incident energy and boundary outputs suitable for arc-flash labeling packages
- +Study report generation supports consistent deliverable formatting
- –Customization for atypical boundary logic is limited
- –Nonstandard input formatting can slow initial model alignment
- –Complex study trees can require stricter input governance discipline
- –Advanced automation needs configuration work rather than turnkey scripting
Engineering teams
Arc-flash studies across plant revisions
Faster study refresh cycles
Electrical consultants
Protective coordination for hazard analysis
More consistent protection results
Show 2 more scenarios
In-house EHS technical leads
Labeling deliverables from study outputs
Lower labeling rework
Uses boundary and incident-energy outputs to support labeling packages.
Project managers
Multi-site study reporting
More predictable deliverables
Packages study results into consistent report formats for multiple sites.
Best for: Fits when electrical engineering teams need repeatable arc-flash studies from controlled one-line models.
Arc Flash Analytic
SMBArc flash calculation software and mobile apps based on IEEE 1584-2018 and NFPA 70E for incident energy and boundary determination.
Result-to-label linking that generates equipment labeling outputs directly from the computed incident energy and boundary set.
Arc Flash Analytic is oriented around calculating incident energy and arc-flash boundaries from a defined one-line diagram, then converting results into equipment labeling outputs tied to protective device settings. The workflow supports sensitivity analysis style “what changes” cycles by re-running studies against updated network parameters and device settings. That automation reduces the chance that protective device coordination inputs and label values drift apart across study revisions.
A practical tradeoff is that the quality of results depends on disciplined modeling inputs for protective device settings, network impedances, and utility fault current assumptions. The tool fits best when engineering teams run multiple revisions for the same electrical system and need stable report generation and label consistency for audit trails and commissioning deliverables.
- +Automated report generation and equipment labeling from calculation runs
- +Boundary outputs stay linked to clearing time and protective device settings
- +Repeatable study revisions support sensitivity style comparison workflows
- +Strong support for protective device coordination inputs workflow
- –High input modeling discipline is required for correct boundary results
- –Clear API access details are limited in typical documentation workflows
- –Medium-voltage modeling coverage may require extra import effort
- –Complex networks can produce long study run cycles without scoping
Electrical engineering teams
Multi-revision arc-flash labeling updates
Fewer label mismatches
Safety and compliance managers
Incident energy documentation for audits
Consistent compliance packets
Show 2 more scenarios
Industrial facility design engineers
Coordinated protection study iterations
Faster coordination decisions
Evaluate protective device coordination changes and observe clearing time impacts on boundaries.
Consulting firms
Standardized workflow across projects
More repeatable deliverables
Apply the same arc-flash calculation workflow to recurring plant designs with consistent output formats.
Best for: Fits when engineering teams need repeatable arc-flash boundary and labeling outputs from one modeled one-line diagram.
Electrical Power System Analysis Software (PSS SINCAL)
enterpriseSiemens power system simulation tool with arc flash calculation modules.
Arc-flash boundary and incident energy results are produced directly from protective device coordination study inputs, not from separate standalone calculations.
Electrical Power System Analysis Software (PSS SINCAL) is used for arc-flash hazard analysis inside an engineering study workflow that starts from an electrical network model and ends in labeling outputs. The tool supports protective device coordination studies and the iterative evaluation needed to compute incident energy and define arc-flash boundary results for specific working distances.
A Siemens-oriented ecosystem focus makes it practical for teams that already use one-line diagram driven modeling and want repeatable study report generation tied to equipment and protective settings. Automation is strongest when study data and device libraries are kept consistent across projects, reducing rework between similar busbar or feeder revisions.
- +Tight coupling between network study results and arc-flash outputs
- +Protective device coordination inputs flow into incident energy calculations
- +Workflow supports equipment labeling and study report generation from one model
- +Configurable study parameters support controlled sensitivity runs
- –Arc-flash study setup requires careful alignment of protective settings data
- –Automation depth depends on how much standard modeling is reused
Best for: Fits when electrical engineering teams need repeatable arc-flash hazard studies tied to one-line model revisions.
NEC Arc Flash Calculator
SMBWeb-based arc flash calculation tool based on IEEE 1584 methodology.
NEC-oriented calculation setup that streamlines incident energy inputs for label-focused arc-flash hazard analysis outputs.
NEC Arc Flash Calculator performs arc-flash hazard analysis by estimating incident energy for electrical working conditions using NEC-oriented inputs. It focuses on study inputs and outputs that support selection of protective device coordination assumptions and label-ready results.
The workflow centers on entering network and equipment parameters, then generating per-location calculations in a compact report format. Output is designed to feed documentation for arc-flash warning labels and compliance-oriented review of incident energy and boundaries.
- +NEC-aligned input fields map directly to common low-voltage study assumptions
- +Single-session calculation workflow supports quick per-circuit evaluations
- +Report outputs are formatted for arc-flash labeling and documentation review
- +Clear parameter prompts reduce ambiguity in incident energy calculations
- –Limited depth for utility fault current modeling and advanced network studies
- –Narrower automation surface than tools built for multi-study batch processing
- –Protective device library and coordination workflows feel lighter than desktop study suites
- –Less suitable for large one-line diagram driven studies across many equipment nodes
Best for: Fits when small teams need fast incident energy and labeling inputs for NEC-aligned arc-flash hazard analysis without heavy study automation.
ETAP Arc Flash
enterpriseCalculates arc flash incident energy, hazard boundaries, and protective device coordination within electrical system models.
Arc-flash study outputs can be generated from the same ETAP coordination-ready one-line dataset used for upstream protective device settings.
ETAP Arc Flash fits teams that already use ETAP for network modeling and want arc-flash hazard analysis tied to a one-line diagram workflow. The workflow centers on building an electrical network model, applying protective device coordination inputs, and computing incident energy and arc-flash boundary results aligned to IEEE 1584 methods and NFPA 70E label outputs.
ETAP Arc Flash also generates study reports and equipment labeling artifacts from the same study dataset, reducing manual re-keying between calculation and documentation. ETAP Arc Flash is most distinctive when protective device settings, device libraries, and coordination results stay consistent across short-circuit and arc-flash studies.
- +Arc-flash results derive directly from ETAP electrical network models
- +Protective device coordination inputs stay consistent across studies
- +Generates study reports and equipment labeling from one analysis dataset
- +Supports IEEE 1584 style incident energy and boundary calculations
- –Arc-flash accuracy depends on high-quality protective device and impedance inputs
- –Workflow complexity increases for large one-line diagrams and many scenarios
- –Boundary and labeling outputs can require careful rules mapping to labeling conventions
- –Sensitivity analysis depth depends on how scenarios are modeled in ETAP
Best for: Fits when medium-voltage and low-voltage teams need consistent device settings across short-circuit and arc-flash studies.
SKM Power*Tools for Windows
enterprisePerforms arc flash, short-circuit, coordination, and equipment evaluation studies for electrical distribution systems.
Arc-flash warning label generation and boundary results remain linked to the modeled one-line elements in the project.
SKM Power*Tools for Windows focuses on arc-flash hazard analysis directly from a network model built inside the application, with results tied to one-line diagram elements. It supports incident energy outputs and arc-flash boundary labeling workflows aligned to common design-study deliverables.
Protective device coordination inputs drive clearing-time and hazard metrics that can be used for equipment-level recommendations. Study reports can be generated from the configured project data for consistent reuse across revisions.
- +Network model and one-line workflow keep study assumptions connected
- +Arc-flash boundary and incident-energy outputs map to study report needs
- +Protective device and clearing-time inputs support coordination-driven results
- +Project-based labeling outputs support repeatable equipment documentation
- –Model setup requires careful data entry across electrical elements
- –Automation and API access are limited compared with engineering-platform tools
- –Study scaling across many cases can feel manual without batch workflows
- –Workflow for large multi-revision libraries depends on disciplined project management
Best for: Fits when in-house engineering teams need an on-machine arc-flash workflow tied to one-line models.
EasyPower
SMBProvides arc flash calculations, one-line modeling, short-circuit analysis, and protective device coordination.
Reusable protective device and equipment libraries that carry settings into repeat arc-flash hazard studies.
EasyPower is an arc flash calculation solution focused on turning a network one-line diagram into IEEE 1584 incident energy and arc-flash hazard results. The workflow includes protective device coordination inputs and equipment-level parameters that drive available fault current and clearing time.
Outputs support equipment labeling needs and boundary reporting for arc-flash hazard zones around working distance. Integration depth and automation are emphasized through reusable library objects and structured study generation for repeated cases.
- +Study outputs map to arc-flash boundaries and incident energy calculations
- +Protective device coordination inputs align clearing time with hazard results
- +Protective device and equipment library reuse speeds repeated model updates
- +Label-oriented report exports support field-ready hazard documentation
- –Accurate results depend on consistent one-line data quality and ratings
- –Modeling large utilities can create high study setup time and file management overhead
- –Automation depth beyond file-based workflows is limited for custom pipelines
- –Deep sensitivity analysis requires careful manual case management
Best for: Fits when engineering teams need IEEE 1584 arc-flash boundary outputs with repeatable study cases.
CYME
vertical specialistAnalyzes arc flash hazards and distribution system behavior across utility and industrial electrical networks.
Arc-flash outputs are computed directly from the electrical network model used for short-circuit and protection studies.
CYME performs arc-flash hazard analysis by modeling electrical networks and computing incident energy and approach boundaries for specified operating scenarios. The workflow supports short-circuit study inputs that feed protective device coordination and time-current behavior used for arc-flash calculations under IEEE 1584 aligned practices.
Study reports can be generated for equipment labeling and warning label documentation tied to calculated hazard results. Compared with simpler calculators, CYME’s value is the end-to-end network-to-study approach that keeps bolted fault current, protective settings, and labeling outputs connected.
- +Network-driven arc-flash results that remain consistent with short-circuit models
- +Protective device coordination inputs connect clearing time to incident energy outputs
- +Study report generation supports equipment-level hazard documentation and labels
- +Scenario handling supports sensitivity runs across operating and configuration cases
- –Arc-flash accuracy depends on the quality of one-line network and protective settings
- –Advanced workflows require careful configuration of study objects and device libraries
- –Large models can slow interactive iteration versus calculation-only tools
- –API and automation surface are limited compared with integrations-focused arc-flash tools
Best for: Fits when engineers need network-consistent arc-flash outputs tied to protective coordination and study reporting.
ECalPro Arc Flash Hazard Calculator
SMBWeb-based IEEE 1584-2018 arc flash hazard calculator with PPE category determination per NFPA 70E.
Built workflow that drives arc-flash boundary results directly from clearing time and protective settings into report-ready outputs.
ECalPro Arc Flash Hazard Calculator targets arc-flash hazard analysis workflows built around IEEE 1584 incident energy calculations. The tool converts network and protective device inputs into arc-flash boundary and incident energy outputs for equipment labeling use cases.
It also supports study report generation that packages results for review and field reference. The workflow is centered on clearing time and protective coordination inputs rather than manual spreadsheet assembly.
- +IEEE 1584 based outputs for incident energy and boundaries
- +Study report generation that packages results for later review
- +Workflow oriented around clearing time and protective device settings
- +Focused input-to-output pipeline that reduces spreadsheet handling
- –Limited evidence of deep protective device library management
- –Less suited for complex multi-source studies with extensive sensitivity runs
- –Automation and API access are not evident from public documentation
- –Governance controls like RBAC and audit logging are not documented
Best for: Fits when engineering teams need a repeatable arc-flash study workflow with consistent report output for labeling.
Conclusion
After evaluating 10 aerospace defense, ArcPro 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 arc flash calculation software
Arc flash calculation software packages arc-flash hazard analysis into repeatable workflows that connect one-line inputs, protective device assumptions, and incident energy outputs. This buyer's guide covers ArcPro, Power Analytics EasyPower, Select Arc Flash, and eight additional tools that target different levels of automation and model reuse.
Several entries generate hazard results directly from protective device coordination studies, which reduces drift between short-circuit assumptions and arc-flash boundary results. Other entries focus on label-ready labeling outputs or NEC-aligned incident energy inputs, which changes how quickly teams can rerun studies when the one-line model revision changes.
Arc flash calculation software for hazard studies with protective coordination and boundary outputs
Arc flash calculation software takes an electrical network model plus protective device settings and computes incident energy and arc-flash boundary results that support equipment labeling and study reporting. Tools such as ETAP Arc Flash produce arc-flash outputs from the same ETAP coordination-ready one-line dataset used for upstream protective device settings.
ArcPro and Power Analytics EasyPower emphasize repeatable reruns that regenerate results from controlled model revisions and reused protection assumptions, which helps engineering teams compare multi-project incident energy outcomes consistently. Select Arc Flash and NEC Arc Flash Calculator focus more on label-focused outputs and NEC-aligned incident energy inputs, which shifts effort toward correct one-line entry discipline rather than deep utility fault current modeling.
Arc flash calculation software capabilities that drive repeatable hazard outputs
Repeatability depends on whether incident energy and arc-flash boundary outputs regenerate from controlled inputs like protective device assumptions and one-line model revisions. Tools like ArcPro and Power Analytics EasyPower emphasize study reruns that regenerate results and reporting outputs from revised models.
Study rerun workflow that regenerates incident energy and boundary outputs
ArcPro and Power Analytics EasyPower rerun workflows regenerate results from controlled one-line revisions and reused protection assumptions for consistent multi-project comparisons.
Protective device coordination coupling to arc-flash outputs
PSS SINCAL generates arc-flash boundary and incident energy results directly from protective device coordination study inputs so clearing-time assumptions flow into hazard results.
Result-to-label output linking for equipment labeling and warning labels
Arc Flash Analytic and SKM Power*Tools for Windows keep boundary and incident-energy results linked to modeled one-line elements so labeling outputs stay tied to calculation runs.
Reusable protective device and equipment libraries for repeat cases
EasyPower provides reusable protective device and equipment libraries that carry settings into repeat arc-flash studies where boundary and incident energy calculations stay aligned.
NEC-aligned incident energy inputs for faster label-focused evaluations
NEC Arc Flash Calculator focuses on NEC-oriented input fields for label-focused hazard analysis with a single-session workflow for per-circuit evaluations.
Coupled model reuse across upstream short-circuit and arc-flash studies
ETAP Arc Flash generates arc-flash outputs from the same ETAP coordination-ready one-line dataset used for upstream protective device settings.
Choose based on rerun control depth and whether labels come from calculation linkage
Arc flash calculation software fits best when the workflow matches the organization’s model lifecycle. Tools that rerun from revised network models support systematic comparisons when one-line diagrams change frequently.
Select rerun-first tools when one-line revisions drive ongoing study changes
Choose ArcPro or Power Analytics EasyPower when rerun workflows regenerate both incident energy and boundary outputs from network model revisions and reused protection assumptions. This approach supports consistent multi-project comparisons without re-entering the same calculation logic each time.
Pick coordination-coupled engines when clearing time must originate from protective coordination studies
Choose PSS SINCAL or CYME when arc-flash boundary and incident energy results come directly from protective coordination and short-circuit study objects. This alignment reduces drift between clearing-time inputs and computed hazard boundaries.
Use result-to-label or boundary-linked labeling tools to cut translation errors
Choose Arc Flash Analytic when equipment labeling outputs must be generated from computed incident energy and boundary sets with direct linkage. Choose SKM Power*Tools for Windows when boundary and incident-energy outputs must stay mapped to modeled one-line elements inside the project.
Choose library-driven repeat cases when teams run many similar studies
Choose EasyPower or ETAP Arc Flash when reusable protective device and equipment libraries must carry settings into repeat arc-flash hazard studies. ETAP Arc Flash fits when upstream ETAP coordination-ready one-line datasets already exist for short-circuit and protection workflows.
Prefer NEC-aligned single-session tools for label-focused low-voltage throughput
Choose NEC Arc Flash Calculator when incident energy inputs need to follow NEC-oriented setup and label-focused outputs from a quick per-circuit workflow. This approach reduces time spent on advanced network and utility fault current modeling.
Who should buy arc flash calculation software for safer electrical design workflows
Engineering groups that manage ongoing network and protection changes benefit most from tools that regenerate consistent incident energy and arc-flash boundary results. Arc flash calculation software becomes a governance artifact when the organization must rerun calculations and regenerate study reporting without drifting assumptions.
Electrical engineering teams running frequent one-line revisions across multiple projects
ArcPro and Power Analytics EasyPower support repeatable reruns by regenerating results and reporting outputs from controlled model revisions and reused protection assumptions.
Studying organizations that treat protective coordination as the source of truth for clearing time
PSS SINCAL and CYME produce arc-flash boundary and incident energy outputs directly from protective coordination and network study inputs so clearing-time assumptions remain consistent.
In-house labeling teams that need calculation-linked warning label outputs
Arc Flash Analytic and SKM Power*Tools for Windows generate labeling outputs from boundary-linked calculation runs tied to modeled one-line elements.
Teams operating inside ETAP-centric short-circuit and protection workflows
ETAP Arc Flash generates arc-flash results from the same ETAP coordination-ready one-line dataset used for protective device settings so study scope stays consistent across workflows.
Common failure modes in arc flash hazard analysis tool adoption
Most project issues come from input mismatch rather than calculation method choice. When protective settings and one-line structures are incomplete or inconsistent, clearing time and boundary results can distort incident energy outputs.
Allowing protective device settings to be incomplete during arc-flash reruns
ArcPro requires complete device settings to prevent clearing-time distortion, so empty or partial trip unit inputs lead to misleading incident energy and boundary results.
Treating one-line model structure as optional when using boundary-driven labeling tools
Arc Flash Analytic and SKM Power*Tools for Windows rely on careful model alignment so boundary outputs stay correctly linked to modeled one-line elements.
Expecting utility fault current depth to be available in tools focused on label-focused NEC inputs
NEC Arc Flash Calculator supports NEC-aligned label-focused incident energy setup but has limited depth for utility fault current modeling and advanced network studies compared with batch-capable study tools.
Managing large network studies without a repeatable library and file discipline
EasyPower and ETAP Arc Flash depend on consistent one-line data quality and high-quality protective device and impedance inputs, so large models can create setup time and file management overhead.
How We Selected and Ranked These Tools
We evaluated ArcPro, Power Analytics EasyPower, Select Arc Flash, and eight other arc flash calculation tools on workflow repeatability, protective coordination coupling, output linkage for labeling, and automation depth. Features account for 40% of the scoring.
Ease of use and value each account for 30% of the scoring. ArcPro separated itself with study run parameterization that reuses protective device and model assumptions for consistent multi-project incident energy comparisons, which directly supports rerun governance across projects.
Frequently Asked Questions About arc flash calculation software
How do ETAP Arc Flash and EasyPower differ in how they drive IEEE 1584 incident energy from a one-line model?
Which tools generate arc-flash boundary and incident energy outputs directly from protective device coordination inputs?
What breaks if a team changes device libraries without updating study configuration across ArcPro and Arc Flash Analytic?
When do batch reruns and model revision workflows matter most in EasyPower versus Power Analytics EasyPower equivalent (EDSA)?
How do Arc Flash Analytic and SKM Power*Tools for Windows differ in result-to-label linkage for equipment labeling outputs?
Where does Select Arc Flash fall short for teams that need full coordination-driven study reporting from electrical network models?
Which tool workflows are better aligned to short-circuit study outputs feeding arc-flash hazard analysis for equipment labeling?
How do PSS SINCAL and Electrical Power System Analysis Software handle iterative study work when one-line diagram revisions affect protective settings?
What security and admin controls should be validated when integrating arc-flash calculation workflows into an engineering environment using ETAP Arc Flash or Power Analytics EasyPower equivalent (EDSA)?
Tools reviewed
Primary sources checked during evaluation.
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