Diagnostics and Systems Integration

Research Area 5

Diagnostics and Systems Integration

Battery degradation affects performance, cost, safety, and sustainability while systems integration ensures batteries work efficiently, safely, and at scale with other technologies.

Batteries degrade on the shelf and during use through several complex and interconnected ageing mechanisms on materials, cell, and systems level. We will focus on:

  • understanding these factors for contemporary and emerging battery technologies through experiments and modeling
  • developing and integrating new methodologies to track and estimate the changes of most relevance for the performance, as key aspects of correct materials choices and battery lifetime extension. 

Projects

Projects

PhD projects

Investigation of Reciprocal Degradation Effects between Battery System and Cell by Experimental and Numerical Methods, Belfun Arsland

Development and implementation of electrochemical methods for degradation, Kaan Kizmaz

Affiliated project

DREAMS – Design Re-Engineering and Automation for Marine Systems (forskningsradet.no)

Recent publications

Recent publications

Journal articles

Jelena Popovic-Neuber (2026). Why electrodics is essential for future energy technologies. Nature Nanotechnology. https://doi.org/10.1038/s41565-026-02166-5

Jonas Grill, Marianne Herveland, Kaan Kizmaz, & Jelena Popovic‐Neuber (2026). Revisiting the electrochemical response of alkali metals in contact with liquid battery electrolytes. Advanced Energy Materials. https://doi.org/10.1002/aenm.202506747

Conference papers/seminars

Jelena Popovic-Neuber (2026). Understanding battery ionics and electrodics: From electrolytes to interphases. https://www.uik.eus/sites/default/files/programa/2621-en-abstract-a4-def.pdf