Electrification

Simulating electric vehicle propulsion technology

Reducing emissions and the carbon footprint of our society have become imperatives, requiring the mobility industry to adapt and develop innovative technologies to strive for a cleaner sustainable transport system. With stricter global emissions restrictions and target deadlines looming, manufacturers are facing ever increasing challenges to create vehicles that meet the new environmental and legal requirements.

Electric vehicles (EV) provide low to zero emission powertrains across several technology options including battery electric vehicle (BEV), plug in hybrid electric vehicle (PHEV), self-charging hybrid electric vehicle (HEV) and fuel cell hydrogen electric (FCEV).

Battery electric vehicles are perfect for urban applications offering a balance between charging time, range and performance.

Hybrids which include a combination of electric and internal combustion (using either traditional or e-fuels) offer increased flexibility by extending the range whilst reducing overall emissions compared to traditional engines.

Fuel cell technology is moving at tremendous pace with governments around the world offering funding for many hydrogen economy related activities. For industries including heavy duty, marine and aerospace, fuel cell technology is showing promise as an alternative to plug in electrification where range or remote usage is a major factor.

With so many options in play, this leaves Original Equipment Manufacturers (OEMs) and manufacturers with the challenge of simultaneously developing smaller Internal Combustion (IC) engines for hybrid systems, designing battery and motor units and investing in fuel cell research - all with less resources and tighter budgets.

In the initial stages of development, physical prototype modelling is expensive, requiring virtual simulation tools to answer many of the 'What ifs' before committing to a chosen design path. Complete vehicle system models are vital in the selection of the correct balance of components to meet performance, emissions, cost and drivability requirements for all types of electric vehicles under different duty cycles allowing the right technology to be chosen for the right application.

Our insights

Highly efficient development of powertrain systems using 1D Real-Time Engine Model

Highly efficient development of powertrain systems using 1D Real-Time Engine Model

Technical Paper
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Optimisation of a modular battery cooling system efficiency through CFD and thermal simulation

Optimisation of a modular battery cooling system efficiency through CFD and thermal simulation

Conference
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A workflow to analyse a battery-supercapacitor hybrid energy storage system

A workflow to analyse a battery-supercapacitor hybrid energy storage system

Conference
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Drive cycle efficiency of a novel EV motor - Dynamic Torque Switching

Drive cycle efficiency of a novel EV motor - Dynamic Torque Switching

Conference
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Electrification in road vehicles

Electrification in road vehicles

Conference
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Ricardo’s future truck electric drive unit

Ricardo’s future truck electric drive unit

Conference
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Simulation – The future of public bus system electrification

Simulation – The future of public bus system electrification

Conference
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Why is motorsport relevant in a sustainable future?

Why is motorsport relevant in a sustainable future?

Conference
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A workflow to analyse a battery-supercapacitor hybrid energy storage system

A workflow to analyse a battery-supercapacitor hybrid energy storage system

Conference
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