Powertrain modularity

Total results returned: 2

Welcome to the Powertrain Modularity and Integration page, your central resource for exploring the latest advancements in electric vehicle powertrain systems. This page houses a curated collection of reports, scientific papers, and other key materials that delve into modular powertrain architectures, their benefits for EV performance, and streamlined integration processes. Whether you're researching flexible design approaches or seeking insights into how modularity can improve efficiency and reduce costs, these resources provide valuable information to support your work in advancing electric mobility.

Powertrain Modularity & Integration

Influence Of Slot/Pole Combinations on the Performance of Dual-Rotor Axial-Flux Surface-Mounted Permanent Magnet Electric Motor for Automotive Applications

A comparison between different slot/pole combinations of axial flux electric machines is presented in this poster. The main objective is to classify these structures according to torque density and electromagnetic performance, based on the specifications of a medium-sized electric car. The study is carried out using 3D-FEA calculations.

Audience:
Automotive Engineers, Electric Vehicle Manufacturers, Electrical Engineering Researchers, Mechanical Engineering Researchers, Motor Design Engineers
Powertrain Modularity & Integration

Modular, high-efficient and cost-oriented 800V powertrain architecture

Climate change has created an increased need for innovation in various sectors, including the automotive industry. Many corporations are striving to fulfil this need by developing and producing electric cars. However, the production process remains inefficient and environmentally harmful. The EU-funded HEFT project will reverse this trend by introducing a revolutionary synchronous motor for electric cars, which will be recyclable, cost-efficient and require fewer materials while producing fewer emissions and creating novel European circular economies. 

HEFT Project proposes a set of innovation challenges on electric synchronous motor configuration based on SiC inverters (direct cooling of rotor and stator, advance insulation for high voltage, multibarrier rotor topology, wave windings) and advanced materials (advanced GBD magnets, epoxy for magnet fixation, composite for motor housing, insulation resin). These innovations will result in a high-efficient and low-cost solution that will be validated on 2 motor topologies.

Audience:
Automotive Engineers, Battery Technology Developers, Electric Vehicle Manufacturers, Electric Vehicle Powertrain Designers, Renewable Energy Advocates, Thermal Management Researchers, Transportation Regulators