The ion intercalation process is comprised of several distinct steps, each occurring at different time scales. These steps include ion transport through the electrolyte towards the electrochemical interface, ion desolvation, ion surface transport to the insertion site, ion transport through a passivating layer, electron transfer, and solid-state ion diffusion. Deconvoluting the contribution of individual steps to the overall electrochemical kinetics is critical. It allows to elucidate how specific sub-steps of the intercalation process are affected by modifying individual components of the electrochemical system (e.g., electrode material structure, electrode architecture, electrolyte composition, etc.). Such deconvolution efforts are further complicated by the possibility of simultaneously occurring charge storage mechanisms in an electrochemical system. In addition to battery-like intercalation processes characterized by clear redox peaks in the cyclic voltammogram (CV), capacitor-like processes such as double-layer capacitance and/or pseudocapacitance with rectangular CV signatures can be present. Intercalation pseudocapacitance typically arises from solid-solution intercalation reactions in absence of phase transformations and with only minimal volumetric changes of the host material, leading to surface-limited kinetics at elevated charging/discharging rates. They can also be caused by reduced ion-host interaction, especially when ion-solvent cointercalation takes place. Electrode kinetics are often analyzed by voltammetry, leveraging the sweep rate (ν) dependence of redox peak currents (i) according to