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This application note shows the various relationships and methods needed to extract the diffusion coefficient of an inserted species into a host electrodes using Electrochemical Impedance Spectroscopy (EIS), Potentiostatic Intermittent Titermittent Technique (PITT) and Galvanostatic Intermittent Titration technique (GITT). The main results are that when the system is composed of several charge transfer resistances and double layer capacitances, only EIS can simply lead to the diffusion time constants and hence diffusion coefficients.

Electrochemical Noise Measurements Part I: ASTM assessment and validation of instrumental noise Corrosion – Application Note 39-1

AN 39-1. Electrochemical noise measurement ENA ASTM #1 .Electrochemistry

Simultaneous impedance measurements elements of a running cell stack in EC-Lab^® Express (EIS pack) Battery – Application Note 16

AN16. EIS pack - Electrochemistry & Battery. Electrochemistry

Electrochemical Noise Measurements Part III: Determination of the noise resistance R_n Corrosion – Application Note 39-3

AN 39-3. Electrochemical noise measurement ENA ASTM #3. Electrochemistry

Precautions for good impedance measurements (EIS) Battery & Electrochemistry – Application Note 5

AN5. EIS precautions - Electrochemistry & Battery. Electrochemistry

Sensor pulsed techniques: SWV, DPV & NPV Electroanalysis & Electrochemistry Sensor – Application Note 67

AN67. Sensor pulsed techniques: SWV, DPV & NPV Electrochemistry.

Inaccuracy of corrosion current determination in presence of ohmic drop Corrosion – Application Note 48

AN48. Ohmic drop - Electrochemistry & Corrosion. Electrochemistry

UFS-SEC: SpectroElectrochemical Cell for UV-Vis, NIR and IR measurement Spectroelectrochemistry – Application Note 52

AN52. Spectroelectrochemistry. Electrochemistry

Electronic conductivity measurement – DC/AC methods Material Science – Application Note 3

AN 3. Electronic conductivity measurement using DC and AC method. Materials Science

Enhanced rate capabilities in a glass-ceramic-derived sodium all-solid-state battery

CITATION: Hideo Yamauchi, Junichi Ikejiri, Kei Tsunoda, Ayumu Tanaka, Fumio Sato, Tsuyoshi Honma & Takayuki Komatsu

Benchmarking the performance of all-solid-state lithium batteries

CITATION: Simon Randau, Dominik A. Weber, Olaf Kötz, Raimund Koerver, Philipp Braun, André Weber, Ellen Ivers-Tiffée, Torben Adermann, Jörn Kulisch, Wolfgang G. Zeier, Felix H. Richter & Jürgen Janek

Impact of the Solid Electrolyte Particle Size Distribution in Sulfide-Based Solid-State Battery Composites

CITATION: Eva Schlautmann, Alexander Weiß, Oliver Maus, Lukas Ketter, Moumita Rana, Sebastian Puls, Vera Nickel, Christine Gabbey, Christoph Hartnig, Anja Bielefeld, Wolfgang G. Zeier

Cold-Starting All-Solid-State Batteries from Room Temperature by Thermally Modulated Current Collector in Sub-Minute

CITATION: Yusheng Ye, Wenxiao Huang, Rong Xu, Xin Xiao, Wenbo Zhang, Hao Chen, Jiayu Wan, Fang Liu, Hiang Kwee Lee, Jinwei Xu, Zewen Zhang, Yucan Peng, Hansen Wang, Xin Gao, Yecun Wu, Guangmin Zhou, Yi Cui

Influence of Microstructure on the Material Properties of LLZO Ceramics Derived by Impedance Spectroscopy and Brick Layer Model Analysis

CITATION: Janis K. Eckhardt*, Sascha Kremer*, Till Fuchs, Philip Minnmann, Johannes Schubert, Simon Burkhardt, Matthias T. Elm, Peter J. Klar, Christian Heiliger*, and Jürgen Janek*

Proton-Conducting Graphene Membrane Electrode Assembly for High Performance Hydrogen Fuel Cells

CITATION: Ravikumar Thimmappa, Manu Gautam, Mruthyunjayachari Chattanahalli Devendrachari, Alagar Raja Kottaichamy, Zahid Manzoor Bhat, Ahmed Umar, and Musthafa Ottakam Thotiyl*

Ag-Cu Nanoparticles as Cathodic Catalysts for an Anion Exchange Membrane Fuel Cell

CITATION: Mara Beltrán-Gastélum, Samantha Goretti Portillo-Fuentes, José Roberto Flores-Hernández, Moisés Israel Salazar-Gastélum, Balter Trujillo-Navarrete, Tatiana Romero-Castañón, Carolina Silva-Carrillo, Edgar Alonso Reynoso-Soto and Rosa María Félix-Navarro*

Protocols for studying intercalation electrodes materials- I: Galvanostatic cycling/potential limitations (GCPL) GITT Battery – Application Note 1

AN 1. GITT - Electrochemistry & Battery Application. Electrochemistry

Protocols for intercalation electrodes materials-2, Potentiodynamic Cycling/Galvanostatic Acceleration (PCGA) PITT Battery – Application Note 2

AN 2. PITT - Electrochemistry & Battery. Electrochemistry

Galvanostatic Cycling with Potential limitation 4: Low Earth Orbit (LEO) battery satellite protocol (GITT#2) Battery – Application Note 3

AN3. GCPL 4 protocol in the field of battery testing. Electrochemistry

ZFit and equivalent electrical circuits (EIS Equivalent Circuit) Battery – Application Note 14

AN14. EIS Equivalent Circuit – Electrochemistry & Battery Application. Electrochemistry

EIS measurements on Li-ion batteries EC-Lab® software parameters adjustment (EIS optimizations) Battery – Application Note 23

AN 23, EIS optimizations, Electrochemistry

Ohmic Drop Part I: Effect on measurements (Ohmic drop effect on measurements) Battery & Corrosion – Application Note 27

AN27 Ohmic drop effect on measurements, Electrochemistry