EasyPower software output demonstrating single-line diagram analysis connected to a generated high-visibility orange Warning Arc Flash Hazard label with specific safety parameters and boundaries.

EasyPower

Starting at

$1,165.00 USD

Power system analysis software

BENEFITS

Electrical power system analysis made easy

EasyPower simplifies complex electrical power system analysis to improve resilience and support electrical safety
EasyPower software displaying an electrical single-line diagram with calculated arc flash boundary values next to a time-current coordination (TCC) curve graph for protective device setting analysis.
  • Time-saving workflows

    Build models faster and deliver results sooner with an intuitive interface, intelligent defaults, and time-saving tools for engineers. 

  • Advanced studies, trusted results

    Perform advanced power system studies with analysis built on verified calculations aligned with standards and industry best practices.

  • Comprehensive equipment library

    Access an extensive equipment library built from manufacturer data with intuitive organization and search.

Pricing Options

Exclusive pricing options

EasyPower

Foundational software to build electrical models, collect field data, and automate equipment sizing.

Starting at

$1,165.00 USD

12-month Virtuoso subscription

Includes 1 license and 1 Key for training or services

  • Ask us about scalable licensing options and dedicated support.

  • Access Bentley software, training, and resources free for academic use.

Technical capabilities

Analysis

Perform arc flash and shock hazard assessments to determine PPE requirements, generate compliant arc flash labels, and create work permits for electrical safety.

Key features and analysis

  • Full system calculations: Analyze three-phase, single-phase, and DC hazards in a single model.
  • HV open air: Analyze open-air hazards up to 800 kV, producing NESC-aligned results for three-phase, line-to-line, and line-to-ground faults.
  • Scenario comparison: Automatically analyze different modes of operation to report worst-case incident energy.
  • Impact analysis: Visualize the impact of protective device settings adjustments on incident energy and boundaries.
  • Visual hazard indicator: Highlight high-risk equipment and violations based on user-defined limits.
  • Integrated method: Use stepped time-domain simulation to capture AC decay, operation of multiple devices, and accurately solve for multi-sourced and looped networks.
  • Advanced protection modeling: Model Zone Selective Interlocking (ZSI) and Maintenance Mode switches.
  • Current-limiting fuses: Calculate let-through incident energy using IEEE 1584 equations.
  • Comprehensive device library: Leverage manufacturer-specific breakers, fuses, trip units, and relays for precise clearing times.

Reports and deliverables

  • Label generation: Generate and print labels for the system directly from the Arc Flash Report.
  • Custom label designer: Built-in designer for custom layouts, logos, and QR codes.
  • Work permits: Generate editable Energized Electrical Work Permits with task-specific data.
  • Detailed reporting: Create spreadsheets detailing incident energy, boundaries, and PPE levels.

Codes and standards

  • NFPA 70E
  • IEEE 1584
  • OSHA 29 CFR 1910
  • HV Open Air Method – OSHA, NESC
  • Ralph Lee Method
  • ANSI Z535
  • NFPA 70 (NEC)

Calculate system fault currents and compare against equipment short circuit current ratings.

Key features and analysis

  • Comprehensive fault analysis: Calculate three-phase, single line-to-ground, double line-to-ground, line-to-line, and DC faults.
  • Equipment duty verification: Automatically compare calculated fault currents against manufacturer ratings.
  • AC decay and DC offset: Simulate AC decay and DC offset to calculate symmetrical and asymmetrical currents.
  • High X/R duty: Apply rating corrections when system X/R ratios exceed device test limits.
  • Voltage sensitivity: Flag hazardous voltage dips to prevent equipment misoperation and downtime.
  • Remote calculations: Calculate remote bus voltages and current contributions from all remote sources, including generators, motors, and utilities.

Reports and deliverables

  • Customizable technical reports: Generate detailed fault and duty reports exportable to spreadsheet.
  • Annotated system diagrams: Annotate the single-line diagram with fault levels and rating violations.

Codes and standards

  • ANSI/IEEE C37.010, C37.5, C37.13
  • UL 489, 248
  • NEMA AB-1
  • NFPA 70 (NEC)
  • IEEE 141 (Red Book), IEEE 399 (Brown Book), IEEE 242 (Buff Book)
  • IEEE 3002.3
  • Power System Handbook (Beeman)
  • IEC 60909
  • IEC-56, 62271
  • IEC-947-2, 127

Evaluate selective coordination and overcurrent protection, adjust time-current curves (TCCs), or automatically set protective devices.

Key features and analysis

  • Interactive TCC analysis: Drag curves to visually adjust coordination with instant device setting updates.
  • SmartPDC™ automation: Automatically configure and adjust device settings to avoid miscoordination.
  • Comprehensive device library: Leverage verified manufacturer-specific breakers, fuses, trip units, and relays.
  • Phase and ground coordination: Analyze phase and ground fault elements in a single interface.
  • Arc flash integration: Visualize how setting adjustments impact arc flash energy on the TCC single-line diagram.
  • Motor starting and inrush: Verify devices withstand energization transients to prevent nuisance tripping.
  • Equipment damage protection: Verify upstream devices clear faults to prevent equipment damage.
  • Fault integration: Clip TCC curves at maximum fault current and display fault current tick marks.
  • Advanced modeling: Model Zone Selective Interlocking (ZSI) and Maintenance Mode switches.

Reports and deliverables

  • Device setting reports: Create detailed documentation of settings to aid field implementation.
  • Customizable TCC plots: Generate high-quality plots annotated with single-line diagrams, fault current tick marks, and custom text.

Codes and standards

  • IEEE C57.109, IEEE C57.12.59
  • NFPA 70 (NEC)
  • CEC
  • ICEA P-32-382
  • IEEE 141 (Red Book), IEEE 399 (Brown Book), IEEE 242 (Buff Book)
  • IEEE 3004
  • IEC 76-5

Perform steady-state load flow calculations for balanced and unbalanced systems to analyze voltage drop, equipment loading, system losses, and power factor.

Key features and analysis

  • Voltage drop and violation analysis: Calculate system-wide voltage levels and highlight buses exceeding thresholds on the single-line diagram.
  • Equipment loading and overload detection: Instantly detect overloads on electrical equipment to prevent damage.
  • Power factor and system loss calculation: Quantify active and reactive losses, and calculate power factor at every point in the system.
  • Three-phase, single-phase and DC analysis: Model balanced and unbalanced three-phase, single-phase, and DC systems to calculate phase-specific voltage drops, loading, and imbalance.
  • Source modeling and control: Simulate generation schemes with Swing, PV, and PQG control models.
  • Load tap changer (LTC) simulation: Simulate automatic voltage regulation and MVAR flow control with LTC modeling.
  • Impact motor starting: Analyze voltage drops and system-wide impacts of starting large motors.
  • Global load and motor scaling: Model operating scenarios by applying scaling factors to groups of motors and loads.

Reports and deliverables

  • Interactive single-line diagram: Visualize calculated flows, voltage levels, and losses directly on the single-line diagram.
  • Customizable technical reports: Generate detailed reports on violations, overloads, and losses, with the ability to export to spreadsheet.

Codes and standards

  • IEEE 399 (Brown Book)
  • IEEE 3002.2

Analyze power quality by evaluating harmonic distortion, predicting system resonance, and modeling harmonic filters.

Key features and analysis

  • Frequency scan: Conduct impedance scans to identify resonant frequencies and view system response.
  • Harmonic current flow: Trace integer and non-integer harmonic currents to visualize flows and identify impact.
  • Summation and distortion: Calculate critical indices including THD, TIF, K-Factor, system losses, and transformer/conductor derating.
  • IEEE 519 compliance: Verify voltage and current distortion limits, including Total Demand Distortion (TDD), against standard recommendations at the Point of Common Coupling (PCC).
  • Extensive source library: Access a customizable library of harmonic-producing equipment or define equipment-specific properties.
  • Filter simulation: Model harmonic filters, including notch and high-order types, to simulate harmonic mitigation.
  • Accurate impedance modeling: Account for skin effect, long-line correction, and positive, negative, and zero-sequence impedances.

Reports and deliverables

  • Interactive single-line diagram: Visualize harmonic impact with annotated values and highlighted limit violations directly on the single-line.
  • Customizable plots: Generate detailed frequency scan plots and harmonic spectrum bar charts.
  • Comprehensive reports: Produce detailed text summaries to document system behavior and compliance.

Codes and standards

  • IEEE 519
  • IEEE 1547
  • IEEE 2800
  • IEEE 3002.8
  • IEEE C57.110
  • UL 1561

Calculate system reliability and availability to identify key vulnerabilities, evaluate redundant configurations, and analyze the financial impact of downtime.

Key features and analysis

  • Reliability metrics: Calculate failure rates, inherent availability, and average repair times for the total system or critical branches.
  • Financial impact: Quantify the annualized cost of downtime and evaluate equipment repair versus replacement expenses.
  • Automated data mapping: Populate the EasyPower system model automatically with empirical data from the IEEE 493 library.
  • Redundancy analysis: Model complex systems with up to triple redundancy to evaluate how parallel paths improve availability.
  • Scenario evaluation: Compare the cost and reliability impact of different maintenance or design strategies.
  • Unavailability drivers: Identify specific equipment and failure modes driving system unavailability.
  • Custom libraries: Import and manage custom reliability data from spreadsheets or user-defined sources.

Reports and deliverables

  • Pareto charts: Visualize the largest contributors to downtime to prioritize improvement efforts.
  • Comprehensive reports: Produce detailed text summaries of all metrics and financial risks.

Codes and standards

  • IEEE 493 (Gold Book)
  • IEEE 3006

Analyze the transient impact of complex motor starting events on voltage, speed, torque, and current to ensure optimal system performance.

Key features and analysis

  • Dynamic voltage analysis: Calculate voltage dips at terminals and system-wide buses to prevent equipment misoperation and downtime.
  • Motor acceleration analysis: Verify that motors produce sufficient torque to overcome mechanical loads and reach rated speed.
  • Impact loading: Analyze the dynamic system response to sudden mechanical load changes on running motors.
  • Scripted event simulation: Automate time-based scenarios including faults, switching actions, motor starts, and load changes.
  • Protective device response: Simulate the operation of breakers and fuses to verify device operation.
  • Parameter derivation tool: Generate accurate dynamic motor models from manufacturer curves using a built-in digitizer.
  • Advanced motor models: Utilize double-cage induction and synchronous models accounting for sub-transient flux dynamics.
  • Motor model library: Access a library of manufacturer-specific and typical motor data to quickly populate parameters.

Reports and deliverables

  • Interactive single-line diagram: Observe system conditions directly on the single-line diagram, stepping through simulations.
  • Customizable plots: Monitor variables like speed, torque, and voltage over time with multiple traces per plot.
  • Comprehensive logs: Troubleshoot simulations with detailed logs of script actions, trips, and warnings.

Perform transient simulations of system events to analyze the dynamic interactions between generator governor and exciter responses, loads, and other equipment to ensure stability.

Key features and analysis

  • Transient stability: Evaluate recovery and synchronization following faults, generator loss, and switching.
  • Load shedding: Simulate under-frequency or under-voltage shedding schemes to preserve system integrity.
  • ATS behavior: Model automatic transfer switch behavior including time delays and voltage thresholds.
  • Power system stabilizers (PSS): Analyze the impact of PSS models on damping oscillations.
  • Dynamic arc flash: Calculate arc flash energy during complex switching sequences.
  • Scripted event simulation: Automate time-based sequences of faults, breaker operations, and load changes.
  • Exciter and governor models: Access an extensive library of generators, exciters, and governor models.
  • Generator modeling: Employ advanced round-rotor and salient-pole models accounting for flux dynamics.

Reports and deliverables

  • Interactive single-line diagram: Observe system conditions directly on the single-line diagram, stepping through simulations.
  • Customizable plots: Monitor machine speed, voltage, and frequency over time with multiple traces per plot.
  • Comprehensive logs: Troubleshoot simulations with detailed logs of script actions, trips, and warnings.

Codes and standards

  • IEEE 421.5 (exciters)

Core

Model three-phase, single-phase, AC, and DC systems with equipment data and manufacturer-specific device libraries.

Key features

  • Comprehensive AC modeling: Simulate three-phase and single-phase systems.
  • Integrated DC: Model DC topologies and hybrid AC/DC systems, including photovoltaics, batteries, rectifiers, and inverters.
  • Voltage support: Support voltages up to 1,500 kV.
  • Source definition: Configure generators and utility interconnections using impedance data, fault duty ratings, and power flow controls.
  • Comprehensive device library: Leverage verified manufacturer-specific breakers, fuses, trip units, relays, and switches to accurately model device characteristics.
  • Transformers: Configure 2-winding, 3-winding, and zigzag units based on equipment properties, including Load Tap Changer (LTC) options.
  • Cables and transmission lines: Specify conductor size, including insulation and raceway configurations for cables, to automatically calculate impedance and ampacity.
  • Switchgear and bus data: Define equipment ratings, bracing, and enclosure dimensions to capture physical and electrical specifications.
  • Motors and loads: Simulate induction and synchronous motors, lumped loads, and Variable Frequency Drives (VFDs).

Build and analyze your power system model in an integrated single-line diagram, configure which equipment data and analysis results appear, and create drawings for specific areas or complete systems.

Key features

  • Interactive single-line diagram: Build and edit the model by placing equipment, connecting components, and editing equipment data on the single-line diagram.
  • Drawings: Create multiple drawings with custom title blocks and annotations from the power system model.
  • Data text blocks: Display equipment data and analysis results on the single-line diagram with user configurable data text blocks.
  • Auto Layout: Automatically position, arrange, and align components across the single-line diagram using configurable spacing rules.

Compare different configurations, assess alternative designs, and simulate what-if analysis.

Key features

  • Single file management: Store all scenarios in one project file, eliminating version control errors and redundant data entry.
  • Configuration modeling: Simulate main-tie-main transfers, generator switching, and emergency power configurations to validate all system configurations.
  • "What-if" analysis: Evaluate proposed design changes, such as equipment upgrades, load additions, or settings adjustments before implementation.
  • Visual indicators: Automatically highlight equipment and settings that differ from the base case for easy identification.
  • Integrated analysis: Run any analysis on specific scenarios without altering the base model.

Reports & Deliverables

  • Scenario comparison reports: Compare Arc Flash and Equipment Duty results across multiple scenarios in a single interactive spreadsheet.
  • Worst-case identification: Automatically identify and store the worst-case arc flash incident energy and equipment duty violations across all modeled operating modes.

Collect field data on a tablet interface with integrated photo capture, notes, tags, and direct equipment data entry.

Key features

  • Integrated field data capture: Capture equipment data, photos, and notes using a built-in camera or by synchronizing with an external camera, automatically linking the media to specific items on the single-line diagram for streamlined data entry.
  • External camera synchronization: Synchronize images taken with an external camera by matching time stamps to placeholders created in the software, automatically linking photos to equipment without manual association.
  • Media gallery management: View, organize, and filter collected media files using tags and links within a dedicated Media Gallery interface.
  • Built-in image editing: Edit captured photos directly within the software, including rotating, cropping, and adding annotations or drawings to highlight specific equipment details.

Create printable single-line diagrams, drawings, reports, TCCs, charts, arc flash labels, work permits, and panel schedules.

Key features

  • Technical documentation: Create comprehensive technical reports in text and spreadsheet formats, exportable to Microsoft Excel®, Word®, and CSV.
  • Annotated single-lines: Produce detailed single-line drawings with custom page sizes, title blocks, and annotations.
  • TCC plots: Generate Time-Current Characteristic plots that include customized text, title blocks, and company logos.
  • Label designer: Design standards-compliant arc flash labels using a powerful editor that supports custom text, images, and QR codes.
  • Work permit templates: Create fully editable energized electrical work permits populated with analysis data using customizable Microsoft Word® templates.
  • Schedule export: Export Panel and MCC schedules directly to spreadsheet or CAD (DXF) formats.
  • CAD export: Export single-line diagrams to any CAD system using DXF format.

Automatically size cables, transformers, protective devices, panelboards, switchgear, and motor control centers (MCCs).

Key features and analysis

  • Automated sizing: Size low-voltage cables, protective devices, transformers, and distribution equipment (panels, MCCs, switchgear) based on calculated loads.
  • Intelligent rules: Apply specific sizing rules by automatically distinguishing between Motor, Feeder, and Transformer circuits.
  • Voltage drop correction: Calculate voltage drop for steady-state and motor-starting conditions, automatically upsizing conductors to meet defined limits.
  • Selective coordination: Automatically select upstream and downstream low-voltage circuit breakers that coordinate.
  • NEC load calculations: Apply NEC demand factors and methods to determine accurate load requirements.
  • Customizable design library: Enforce specific equipment and design standards using configurable design templates to match project or company preferences.

Reports and deliverables

  • Code-referenced reports: Document equipment sizing decisions with specific NEC code references and rule-based criteria.
  • Bill of materials: Generate itemized material lists with cost estimates based on library values.

Codes and standards

  • NFPA 70 (NEC)

Import and export project data for interoperability with external programs.

Key features

  • Import: Import data from CSV files to build new or update existing models.
  • Export: Export data to CSV files for review and editing.
  • Revit integration: Support bi-directional data exchange with Autodesk® Revit® to synchronize electrical equipment details and analysis results.
  • SKM import: Import system information from SKM data export CSV files to support migration of existing projects into EasyPower.
  • SCADA import: Import load data from SCADA files to improve model accuracy for demand planning and contingency studies.
  • CAD export: Export single-line diagrams and schedules to CAD systems using DXF format.

More details

Processor:

  • Multi-core processor

Operating System:

  • 64-bit versions of Windows® 10 or 11

Memory:

  • 8 GB minimum, 16+ GB recommended

Disk Space:

  • 2 GB of free disk space, 10+ GB recommended

USER STORIES

Real stories. Real results.

Delta Wye upgrades century-old mill with EasyPower

Using EasyPower, Delta Wye upgraded a century-old mill in just over a week, safely securing 120 MW of reliable baseline power.

Aerial view of an active coastal pulp and paper mill featuring processing towers, smokestacks, and large wood chip piles which was reconfigured by Delta Wye Engineering using EasyPower.

FAQS

Find answers

Power system analysis software is used to model electrical power systems, perform studies including Short Circuit, Protection & Coordination, Arc Flash, Power Flow, Harmonics, Transient Motor Starting, Dynamic Stability, and Reliability. These studies support electrical safety, compliance, system design, and resilient operation.

EasyPower offers powerful software tools that simplify complex electrical power system analysis, making it easy to model, analyze, and deliver solutions across all power system lifecycle phases. You can quickly model electrical power systems, perform advanced simulations, and deliver essential project deliverables, reports, and safety documentation. 

You can quickly model electrical power systems including three-phase, single-phase, AC, and DC systems with manufacturer-specific components. The software allows you to build integrated single-line diagrams using a vast library of equipment created from manufacturer data. 

Users can perform advanced simulations such as Short Circuit, Protection Coordination, Arc Flash, Power Flow, Harmonics, Transient Motor Starting, Reliability, and Dynamic Stability to address complex power system challenges. 

Yes, the Auto Design module can automatically size low-voltage cables, transformers, protective devices, panelboards, switchgear, and motor control centers based on calculated loads to enforce design standards and compliance.

EasyPower performs arc flash and shock hazard assessments to determine PPE requirements, generate compliant arc flash labels, and create work permits for electrical safety. 

EasyPower offers expert-led instruction with a variety of training options for different skill levels:

  • Free self-paced online courses
  • Live 5-day Essentials Training
  • Custom one-on-one web training
  • Client-site team training

For more information, visit our training center.

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