Abstract:
BACKGROUND : This article examines a T-shaped lithium-ion battery pack (BPC) consisting of six prismatic cells
using the finite element method (FEM). An optimal model is introduced for batteries’ thermal management
(THMT) by changing the position of the inlets and outlets.
METHODS : The outlet is where the fully developed airflow leaves, and the walls use the no-slip boundary condition.
The batteries are placed in an enclosure filled with phase change material (PCM) to create temperature uniformity
on the batteries. The hydrodynamic and thermal modeling of airflow and the melting and freezing of
PCM are performed in this study using the COMSOL program.
SIGNIFICANT FINDINGS : The results demonstrate that the batteries’ maximum temperature (TMX) changes by
changing the location of the inlets. Changing the position of inlets also affects the melting and freezing of the
PCM, and better temperature uniformity on the batteries may be achieved using some models. The M4 model, in
which the inlet and outlet are on the left and right sides, and an outlet is in the center, is the most appropriate
model for industrial applications.
