At the Battery Research and Innovation Hub, our team of academics and research engineers work with industry to translate research into outcomes. We recently caught up with Jack Nguyen to learn more about his work as a Battery Research Engineer specialising in battery failure and analysis.
What is your current research focus?
My current research is centred of the development of a 30Ah, 12V battery pack utilising Lithium Iron Phosphate (LFP) pouch cells. This battery pack is designed for versatile applications, including power stations and USB charging. It is equipped with a Battery Management System (BMS) to precisely control the state of charge of the cells and thermal management to protect the cells during charge and discharge.
What makes you passionate about this area?
Analysing failures provides insights that drive improvements in battery design, materials and manufacturing processes. Engaging in failure analysis sharpens analytical thinking and the ability to systematically investigate problems, question assumptions leading to more effective solutions and well-reasoned conclusions.
What are your biggest career highlights?
One of the most notable highlights of my career has been the implementation of cell failure and analysis for a CATL 166V 280Ah battery pack. The analysis required developing innovative solutions to detect and diagnose failures at both the cell and pack levels. The project’s success demonstrates the practical application of advanced scientific principles to solve real-world problems.
What inspired you to start a career as a battery research engineer?
From an early age, I was fascinated by how things work, particularly in the realm of electronics and energy systems. This curiosity naturally led me to explore the principles of physics, chemistry, and engineering, ultimately focusing on the critical role that batteries play in powering modern technology.
The growing urgency of addressing climate change and reducing our reliance on fossil fuels inspired me to contribute to sustainable energy solutions. Batteries are a cornerstone of renewable energy systems, enabling the storage and efficient use of energy from intermittent sources. This alignment with environmental goals was a strong motivating factor for me.
Why did you decide to join IFM?
IFM is renowned for its focus on advanced materials and innovative research. Being part of IFM allows me to engage in pioneering studies that contribute to groundbreaking work in material science, advanced materials, addressing critical global challenges such as energy storage, environmental sustainability, and resource efficiency.