Your browser doesn't support javascript. This means that the content or functionality of our website will be limited or unavailable. If you need more information about Vinnova, please contact us.

Our e-services for applications, projects and assessments close on Thursday 25 April at 4:30pm because of system upgrades. We expect to open them again on Friday 26 April at 8am the latest.

EVE: Extending life of Vehicles within Electromobility era

Reference number
Coordinator Volvo Technology AB
Funding from Vinnova SEK 15 000 000
Project duration May 2019 - April 2023
Status Completed
Venture Transport Efficiency
End-of-project report 2018-05008engelska.pdf (pdf, 605 kB)

Purpose and goal

The EVE project pioneered electromobility insights via operational data. The project was aimed at leveraging machine learning for predictive maintenance and providing services related to electromobility. In particular, the project developed general lifetime models for vital components in the electrical drivetrain of buses. Utilizing transfer learning improved prediction accuracy compensating for data diversity. The project also explored energy efficiency and charging patterns applications.

Expected results and effects

Project outcomes were shared through reports with engineering and management, guiding longer-lasting product and service development. Electric component status models has been integrated into Volvo Monitoring Systems to improve detection of wear. High-quality publications in domain adaptation and evolutionary methods for health estimation of electric components emerged. This led to two upcoming Ph.D. defenses, a disseminated licentiate thesis, and presentations at national and international conferences.

Planned approach and implementation

EVE monitored the behavior of the vehicle using on-board signals. The analyses are as follows: Survival analysis to analyze battery replacement strategy. Classification and regression methods to model the end of life and remaining useful life of the components. Evolutionary algorithms to select domain invariant features. Domain Adversarial Neural Networks for estimating the health status of the batteries in the presence of multiple different domains. Clustering to find energy consumption patterns.

The project description has been provided by the project members themselves and the text has not been looked at by our editors.

Last updated 8 December 2023

Reference number 2018-05008

Page statistics