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Everything you need for smarter electrification — in one product

ePOP Concept

Build electrification cases in hours with ePOP’s physics-based platform.

ePOP Pro

Find the best fit through detailed models and real-time insights.

Benchmarking

Turn complex simulations into clear visuals that align results with KPIs.

Unified value proposition

We’re all about optimizing system losses component  to system integration

The concept phase

Use ePOP in engineering - from concept exploration to component specification

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ePOP can display data from benchmark measurements side-by-side with the concepts being explored, allowing teams to easily compare performance metrics.

ePOP has frequently used system level architectures built-in to allow rapid investigations without the need to build models from scratch.

ePOP enables creating, importing, and viewing components in isolation — and combining many into system-level solutions for design exploration.

In its component models, ePOP allows higher fidelity to include detailed design choices (such as material selection) very early in the concepting phase.

Concept exploration

Acceptance test

Product maintenance

System verification

Component integration

Product suite

All-in-one product - three ways  to power your work

ePOP Concept

ePOP Pro

Benchmarking

Overview

Get to application answers at surprising speed

Build credible electrification cases in under a day with ePOP’s intuitive, physics-based platform. Explore all power generation, transfer, and delivery options.

Fast setup - under a day
Physics-based accuracy
Exploring all power options

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Workflow

How it works - key steps

Individual Function Cycle

Load in different functional cycles (with millisecond resolution)
Tag each segment as Electrical direct, Hydraulic direct, or Mechanical
Combine cycles into a single consolidated duty profile
Browse power delivery scenarios
Import cycles from a spreadsheet

Library

Use a baseline component library (inverters, motors, ICEs, fuel systems, batteries, chargers, transmissions, hydraulic pumps/motors)
Define and load your own custom components (beyond the built-in ones)

Configuration

Select components from the library
Build and compare two powertrain scenarios
Choose the architecture (parallel, series, etc.) and power sources
Perform sweeps to find optimal architecture
Set operation parameters: number of cycles, years, cost assumptions

Results

Determine the optimal level of electrification based on the cycle, budget, and horizon
Detailed KPI breakdowns by component (cost, mass, etc.)
Compare lifetime fuel usage (ICE vs hybrid vs fully electric)
Export a “shopping list” specification for the optimal powertrain setup

Key capabilities

Behind the solution - main functions

High-fidelity cycle modelling

Comprehensive component and architecture library

Architecture comparison & optimization

Insightful output and decision support

Case studies

Practical examples and proven results

Defense

Assessing Hybridisation Pathways for Legacy Fleet of General Service 4x4 vehicles

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Aerospace

Double the flight duration of a battery powered eVTOL

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ePOP Pro

Automotive

Proving the SMC Value Proposition for a High-Volume eMotor

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Overview

Consider the full solution space

ePOP maps the entire power system end-to-end with modular tools, helping identify the best fit through detailed models and real-time insights.

Power architecture analysis
Motor and power technology comparison
Intelligent component sizing

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Workflow

How it works - key steps

Setup component library

Import or select components: motors, engines, transmissions, inverters, batteries
Add or generate custom component definitions

Requirements analysis

Define system-level requirements: torque, speed, vehicle specs
Input duty cycles, speed profiles, power & packaging constraints
Include attributes such as emissions, sustainability goals

Powertrain configuration

Select powertrain architecture: BEV, HEV (parallel/series), ICE hybrid
Choose drivetrain layouts: RWD, AWD, FWD, dual/single motor
Configure component combinations

Design space exploration

Generate many candidate configurations
Vary parameters, combine architectures & components
Evaluate across metrics and KPIs

Shortlisting & decision

Rank and compare configurations
Identify the optimal design(s) that best meet performance, cost, sustainability
Select the winner(s) for further development

Key capabilities

Behind the solution - main functions

Component generation library

System-level loss & efficiency modelling

Trade-off exploration

Custom powertrain configuration

Case studies

Practical examples and proven results

Defense

Serial Hybrid for a Tracked Vehicle

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Defense

ICE / BEV / Hybrid Scenarios for 8×8 Vehicle

Read case study

Aerospace

Double the flight duration of a battery powered eVTOL

Read case study

View all case studies

Overview

Deliver decision-ready insights for every stakeholder

Turn complex simulations into clear visuals with ePOP. Results align with KPIs and connect design teams with decision-makers.

Visual clarity across outputs
KPI-aligned results
Shared understanding for all teams

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Workflow

How it works - key steps

Access powertrain & component database

Leverage the xEV component library: motors, inverters, transmissions, batteries & EDUs drawn from ~150+ vehicles
Upload your own component data if needed

Simulate & benchmark virtually

Use the ZeBeyond simulation engine to model performance & efficiency of powertrain(s) in a virtual environment
Compare your design against competitor data side-by-side