<p>Lithium-ion batteries (LIB) are
at the forefront of energy storage. However, the performance of the LIB is
hampered by several degradation mechanisms in the cell. Lithium plating is a
competing process occurring at the anode during intercalation at high rates and
high states of charge leading to reduced cycle life, capacity loss, and safety
concerns. The process of deposition of metallic lithium is limited to the anode
and can be identified by monitoring the anode potential in a full cell. </p><p></p><p>A three-electrode pouch cell was
used as an in-operando tool for monitoring lithium plating and an approach to
quantify lithium plating as a function of anode parameters was proposed. The
electrode kinetics at various states of lithiation at different ambient
temperatures were determined to identify the limiting electrode and the
electrochemical process with higher activation energy at every operational
parameter.</p><p>A novel anode potential controlled
charging strategy for lithium-ion cells which eliminates lithium plating under
most aggressive conditions was developed and studied under various
temperatures. The effect of cathode degradation upon eliminating lithium
plating is discussed to understand the futuristic design of fast charging
protocols.</p><br><p></p>