Electrochemistry simulations from battery modules to ship hulls
With STAR-CCM+, comprehensive simulations involving electrochemistry are possible, opening up applications such as Li-Ion battery modeling and corrosion modeling.
  • A 6 cells module was analyzed in STAR-CCM+. Prismatic wound cells were used and the ohmic heating was solved in the cells connectors. This image shows the temperature distribution on the pack and on the air flow streamlines.
  • Temperature distribution analysis of a module of 84 cells: 42 cells connected in series, and each row is connected in parallel. Liquid cooled plate are lateraly postionned on those rows (Image courtesy of ASCS, Stuttgart and Behr)

Li-Ion Battery Modeling

STAR-CCM+ offers simulation tools that help you to understand the properties and behavior of Li-ion electrode materials. Since the electrode active materials—especially the cathode active materials—are usually the most expensive components in a Li-ion battery cell, understanding their properties and behavior is crucial for cell manufacturers.

The ability to model the micro-structure of an electrode and predict its electrochemical reactions helps to determine the quality and performance of a cell design. For example, it is possible to determine how tortuous a porous electrode can be, and analyze or parameterize particle size and distribution, both key factors for an electrode.

Corrosion Modeling

Corrosion modeling in STAR-CCM+ is possible with the Electrodynamic Potential model, typical applications are modeling cathodic protection on structures such as ship hulls, oil platforms and gas pipes, bridges, and reinforced concrete structures. Using STAR-CCM+, you can optimize the location and size of the sacrificial anodes that prevent corrosion. This process ensures that the level of cathodic protection that a structure receives is most effective in prolonging the life of the structure.

Subscribe to RSS - Electrochemistry
  • Presentations
  • Videos
  • Papers
  • Case studies