In this age of clean and green energy initiatives, the global demand for batteries has been increasing at a significant rate. Batteries possessing greater energy and power are rapidly becoming indispensable, and this demand has accelerated the search for new materials and chemistries to power the next generation. While scientists and researchers enhance the performance of state-of-the-art lithium-ion batteries, they’re also looking to the future—towards groundbreaking technologies that will give rise to new kinds of batteries beyond lithium-ion.
The demand for advancements has brought renewed attention to the challenges underlying the quality and safety of batteries that people currently use. An uptick in lithium-ion battery safety incidents has not only increased scrutiny from regulators, it has also pointed out the urgent need for better safety regulations and testing standards. Understanding the science behind batteries will be critical in ensuring their safe performance and usage. In-depth research and testing can provide a holistic understanding into behavior in specific configurations and under relevant environmental conditions, which in turn can mitigate risk and provide a framework for developing reliable and safe batteries.
To facilitate collaboration and awareness, the Underwriters Laboratories’ electrochemical safety research team is hosting a series of Battery Safety Science webinars. These sessions provide a forum for knowledge sharing and contribute to the development of safer energy solutions. Subject matter experts, researchers and battery and energy storage professionals come together to share battery safety research and testing insights and exchange ideas.
Lithium-ion technology has widespread use in consumer products such as phones, laptops and medical devices, and now, highly sophisticated battery systems are transforming electric vehicles, spacecraft and marine transportation, as well as leading to the creation of stationary renewable energy storage systems. Correspondingly, universities, research institutions, government agencies and industries throughout the world are leading efforts to produce batteries both rich in quality and performance and with significantly reduced levels of risk.
The Battery Safety Science webinars enable individuals from a wide variety of organizations and institutions to discuss their findings and expertise. This is an exciting time to share scientific knowledge that advances society’s increased energy needs and makes the world a safer place.
Visit the Initiative Updates tab to view recordings and presentations from the Battery Safety Science webinar series.
Battery Safety Science Webinar Series: How Analysis Helps Guide Battery Recycling R&D at the ReCell Center
The ReCell Center was established by the US Department of Energy’s Vehicle Technologies Office to develop a practical process for the recycling of lithium-ion batteries. But if a recycling process is going to be adopted by industry, it must be economical. And since a main motivation for electric...
Battery Safety Science Webinar Series: Multiphysics and Multiscale Modeling of Lithium-ion Battery Safety Issues
Internal short circuit and thermal runaways are typical battery safety issues where electrochemistry, thermal, and mechanics are strongly coupled. Interdisciplinary endeavors are in pressing need to address these safety issues, enabling wider application and further improvement for lithium-ion...
Battery Safety Science Webinar Series: Fire Service Considerations – Investigation of AZ Li-ion ESS Incident
On April 19, 2019, one male career Fire Captain, one male career Fire Engineer, and two male career Firefighters received serious injuries as a result of cascading thermal runaway within a 2.16 MWh lithium-ion battery energy storage system (ESS) that led to a deflagration event.
Battery Safety Science Webinar Series - Sodium-ion Battery: From Materials to Cell Development
Dr. Palani Balaya, Associate Professor, Department of Mechanical Engineering for the National University of Singapore presented examples of commercial type Na-ion cells using polyanion and O3 type cathodes against hard carbon anode and non-flammable glyme-based electrolyte.