APPLICATIONS

Different environments demand different electric machines.

We begin with what the system must do, what it must survive and how it will be used—then build the engineering route around those facts.

Electric propulsion system shown within a vehicle package
01

Automotive

Road-vehicle duty cycles demand efficiency, repeatable performance, packaging discipline, controls integration and credible production decisions.

Traction motorsAuxiliary drivesIntegrated drive units
02

Motorsport

Fast transients, aggressive thermal cycles and tight mass budgets require rapid engineering loops and honest margin management.

High-performance tractionTest and calibration supportPackage optimisation
03

Aerospace

Mass, redundancy, thermal rejection, altitude and fault behaviour must be treated as linked system constraints from the outset.

Propulsion concept studiesHigh-speed machinesElectrified auxiliaries
04

Marine

Continuous loading, corrosion exposure, sealing, cooling-water conditions and low-speed torque define a different optimisation problem.

Propulsion motorsGenerator systemsIntegrated marine drives
05

Industrial

Uptime, controllability, energy use, maintainability and the site operating profile shape the most useful machine architecture.

High-speed systemsCustom servo and process drivesGenerator applications
BEYOND THE LIST

If it converts electrical energy and motion, the conversation can begin.

These sectors reflect common problem types, not the boundaries of the capability. Novel platforms and specialised machinery are assessed against their actual duty cycle, interfaces and evidence requirements.

START A CONVERSATION

Tell us where it must work.

Share the application, operating environment, load profile and package. We will help turn the context into an engineering brief.

Discuss your project