Optimized Thermal Energy Storage Technology for EVs Based on Phase Change Material

Dear Colleagues,

Phase change material (PCM) based thermal energy storage technologies offers great potential for improving the performance and efficiency of electric vehicles (EVs). PCM is a substance capable of absorbing and releasing large amounts of thermal energy during phase transitions. By integrating PCM into the thermal management system of EVs, cheap thermal energy can be stored in the material and then be utilized during cold starts or for heating purposes, reducing the reliance on traditional heating systems and minimizing energy consumption. The development of this technology involves selecting suitable PCMs, designing effective encapsulation techniques, implementing control strategies, and integrating the system with existing vehicle components. Implementing optimized thermal energy storage technology based on PCM in EVs can result in improved battery performance, increased driving range, enhanced cabin comfort, and overall energy efficiency, making EVs more viable and sustainable transportation options for the future.

This Special Issue aims to present and disseminate the most recent advances related to the design, modelling, application, control, and performance monitoring of all types of PCM based energy storage technologies in the application of EVs.

Topics of interest for publication include, but are not limited to:

• PCM selection and characterization for the application in EVs
• Encapsulation techniques for efficient integration of PCMs in EV thermal systems
• Advanced device/component/system design for optimized thermal management in EVs using PCMs
• Control strategies for enhanced utilization of PCMs in EV thermal management systems
• Integration of PCM in battery thermal management systems for improved performance and efficiency
• Modelling and simulation of PCM-Based TES systems in EVs
• Experimental validation of PCM-Based TES systems in EVs
• Performance evaluation and optimization of PCM-Enhanced EV thermal systems under real-world driving conditions
• Life cycle assessment of optimized PCM-based TES Systems for EVs

Dr. Hui Cao
Dr. Faisal Asfand
Guest Editors

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• energy storage 
• phase change materials 
• electric vehicles
• thermal management 
• heat exchanger 
• optimization 
• modelling