• Title of article

    Design and simulation of a lithium-ion battery with a phase change material thermal management system for an electric scooter

  • Author/Authors

    Siddique A. Khateeb، نويسنده , , Mohammed M. Farid، نويسنده , , J. Robert Selman، نويسنده , , Said Al-Hallaj، نويسنده ,

  • Issue Information
    روزنامه با شماره پیاپی سال 2004
  • Pages
    16
  • From page
    292
  • To page
    307
  • Abstract
    A lithium-ion battery employing a novel phase change material (PCM) thermal management system was designed for an electric scooter. Passive thermal management systems using PCM can control the temperature excursions and maintain temperature uniformity in Li-ion batteries without the use of active cooling components such as a fan, a blower or a pump found in air/liquid-cooling systems. Hence, the advantages of a compact, lightweight, and energy efficient system can be achieved with this novel form of thermal management system. Simulation results are shown for a Li-ion battery sub-module consisting of nine 18650 Li-ion cells surrounded by PCM with a melting point between 41 and 44 °C. The use of aluminum foam within the PCM and fins attached to the battery module were studied to overcome the low thermal conductivity of the PCM and the low natural convection heat transfer coefficient. The comparative results of the PCM performance in the presence of Al-foam and Al-fins are shown. The battery module is also simulated for summer and winter conditions. The effect of air-cooling on the Li-ion battery was also studied. These simulation results demonstrate the successful use of the PCM as a potential candidate for thermal management solution in electric scooter applications and therefore for other electric vehicle applications.
  • Keywords
    Phase change materials , Electric scooter , Thermal modeling/simulation , Air-cooling , Lithium-ion battery , Thermal management
  • Journal title
    Journal of Power Sources
  • Serial Year
    2004
  • Journal title
    Journal of Power Sources
  • Record number

    444737