The extensive search for high-capacity negative electrodes for sodium-ion batteries had led
to the investigation of various nanomaterials capable of storing sodium ions in their …

Developing new electrode materials and/or electrolytes for lithium‐ion batteries requires
reliable electrochemical testing thereof. For this purpose, in academic research typically …

Replacement of graphite with alloying and conversion materials, having high specific
capacity, has emerged as versatile route to increasing the energy density of Li-ion batteries …

Silicon is a long-standing candidate for replacing graphite as the active material in negative
electrodes for Li-ion batteries, due to its significantly higher specific capacity. However, Si …

The mass loading of Si–graphite electrodes is often considered as a parameter of secondary
importance when testing their electrochemical performance. However, if a sacrificial additive …

Recent results on the intercalation of potassium into graphite suggest that graphite might
become yet again a negative electrode material of choice for an alkali-ion battery system …

Abstract A new SnO 2-Co 3 O 4-C composite was successfully synthesized by a simple
hydrothermal method with two-step ball milling and uniformly anchored SnO 2 and Co 3 O 4 …

Tin oxide is one of the most promising anode materials to replace graphite in the next
generation lithium-ion batteries thanks to its high theoretical specific capacity, low cost and …

The aqueous processing of cathode materials for lithium-ion batteries (LIBs) has both
environmental and cost benefits. However, high-loading, water-based electrodes from the …

The understanding of the electrode-electrolyte interface in general and of the degradation
reaction mechanisms at the surface of the active materials in particular remain crucial topics …