In our increasingly electrified society, lithium–ion batteries are a key element. To design,
monitor or optimise these systems, data play a central role and are gaining increasing …

Differentiation of a Li-ion battery cycling profile (galvanostatic voltage vs charge) yields a
pair of complementary measures: differential capacity (d Q/d V vs voltage, also called …

SiO x negative electrodes for Li-ion batteries enable high energy density while providing
better structural integrity compared to pure Si electrodes. The oxygen content has a critical …

Solid‐state batteries promise higher energy densities and better safety than Li‐ion batteries
with liquid electrolytes. However, the interface between solid electrolyte and cathode is …

Lithium-ion (Li-ion) batteries are the primary power source in various applications due to
their high energy and power density. Their market was estimated to be up to 48 billion US …

Sodium and aluminum are a natural combination of inexpensive, abundant elements as a
redox pair for battery energy storage. Recent explorations pairing a sodium anode and …

The galvanostatic charge–discharge (GCD) behaviour of silicon (Si) is known to depend
strongly on morphology, cycling conditions and electrochemical environment. One common …

Adding silicon (Si) to graphite (Gr) anodes is an effective approach for boosting the energy
density of lithium‐ion batteries, but it also triggers mechanical instability due to Si volume …

Mathematical models of electrochemical systems are useful to refine our understanding of
systems containing complex, coupled phenomena, to design and control electrochemical …