Hazards in electric vehicles (EVs) often stem from lithium-ion battery (LIB) packs during
operation, aging, or charging. Robust early fault diagnosis algorithms are essential for …

Understanding the thermal runaway behavior of batteries is essential for designing safe
battery systems. This study investigates thermal runaway behavior of cylindrical nickel-rich …

All-solid-state-battery (ASSB) safety has rarely been studied at the cell scale. The first results
underline that safety is improbable and should be investigated further. To the best of our …

Battery thermal runaway (TR) challenges battery applications due to safety considerations,
potentially endangering consumers. Understanding the process is crucial to defining first …

Understanding internal processes before and during thermal runaway (TR) is essential for
designing safe battery systems. This study aims to experimentally investigate and model the …

Accurate measurement of the variability of thermal runaway behavior of lithium-ion cells is
critical for designing safe battery systems. However, experimentally determining such …

Precise fault identification and evaluation of battery systems are indispensably required to
facilitate safe and durable operation for electric vehicles. With the core objective of …

Prismatic and pouch packaging formats are commonly used in LiNi x Co y Mn z O 2 (NCM)
batteries for electric vehicles, each showing distinct failure dynamics. However, a …

Prevention and mitigation of hazardous battery failure scenarios can be achieved through
the integration of different safety systems. These mechanisms are routinely evaluated post …

The spread of thermal runaway is one of the important reasons restricting the popularity of
electric vehicles. A comprehensive thermal runaway propagation and eruption model of …