Drying battery electrodes at high rates leads to binder migration and has shown to affect the
mechanical as well as the electrochemical properties of Li-ion battery electrodes. Up to now …

Most cathode materials for lithium-ion batteries exhibit a low electronic conductivity. Hence,
a significant amount of conductive graphitic additives are introduced during electrode …

Despite the important role of carboxymethyl cellulose (CMC) and styrene–butadiene rubber
(SBR) binders in graphite electrodes for Li-ion batteries, the direct analysis of these binders …

A so-called electrochemical dilatometer can be used to record the macroscopic expansion
(dilatation) and contraction of samples which undergo insertion/deinsertion reactions. Such …

Heterogeneity of porous electrodes can cause battery failure and performance deficiencies.
On the other hand, some types of heterogeneity can improve performance. This study uses a …

The property determining micro-structure of battery electrodes essentially evolves during
drying, appointing it a paramount, yet insufficiently understood processing step in cell …

Carbon graphite has received much attention over the last decades as the best candidate for
negative Li-ion battery electrodes due to its thermal stability and optimal cycling capability …

Despite numerous studies presenting advances in tomographic imaging and analysis of
lithium ion batteries, graphite-based anodes have received little attention. Weak X-ray …

The electrochemical performance of porous graphite anodes in lithium ion battery
applications is limited by the lithium ion concentration gradients in the liquid electrolyte …

Electrochemical impedance spectroscopy (EIS) was applied to porous negative graphite
electrodes for lithium-ion batteries in the EC: DMC, 1M LiPF6 electrolyte. The effect of …