An important and critical challenge associated with the application of Lithium-ion batteries (LIBs) is the potential occurrence of thermal runaway. This hazardous phenomenon can be triggered when the batteries are subjected to abusive conditions, posing significant risks to both human life and property. Thermal runaway stands as a primary cause of fires and explosions in the battery energy storage industry.
This project aims to address the issue of thermal runaway by developing a numerical model capable of explaining the evolution of the thermal runaway trigger point across various cathodic chemistries and different ambient temperatures. To achieve this, the test will employ the nail penetration aided thermal abuse method.
The foundation of the model lies in the conservation of energy equation, complemented by empirical correlations of thermal abuse equations. These correlations play a vital role in simulating the source term and facilitating a comprehensive understanding of thermal runaway behavior. By gaining insights into these factors, we can take significant strides toward safer and more reliable Lithium-ion battery applications.
How to Apply
Express your interest by emailing Dr Maryam Ghodrat at m.ghodrat@unsw.edu.au. Include a copy of your CV and your academic transcript(s).
School / Research Area
Engineering and Technology, UNSW Canberra
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