Introduction to Electrochemistry
The concepts a researcher must know before starting a measurement, even without any prior course in electrochemistry: cell, electrode, potential, current, equilibrium and kinetics.
A literature-based curriculum that starts from zero: 12 modules, 28 lessons, 43 peer-reviewed sources. Every lesson follows the same layout: textbook-level theory first, then application in measurement with the equations, then where the method applies and where it is limited, what the application notes concretely found and — only where the measurement depends directly on an instrument — the related instruments; with verifiable references (DOI) below.
Start from Module 0 or go directly to the question you are looking for. "Related notes in the library" at the end of each lesson gives the practical steps, "References" the literature.
Every lesson rests on at least two peer-reviewed sources or standards; open-access sources are marked. The content was prepared by the Entek technical team and cross-checked against manufacturer documents.
The instruments named in the lessons are in the Entek and Bio-Logic portfolio; contact our technical team for hands-on training and demos.
The concepts a researcher must know before starting a measurement, even without any prior course in electrochemistry: cell, electrode, potential, current, equilibrium and kinetics.
Data acquired without knowing how the instrument works and which errors the set-up produces is not reliable.
From cyclic voltammetry to pulsed techniques, from chronoamperometry to rotating electrodes: the everyday tools of electrochemistry.
The most searched electrochemistry topic: the principle of EIS, its representation, modelling and validation of data quality.
From cell types to test protocols, from ageing analysis to high-precision coulometry: the measurement backbone of battery research.
Correct calculation of capacitance, ESR, energy and power density: the source of the most common errors in the literature.
From corrosion rate to coating life: standards-compliant electrochemical corrosion measurements.
From catalyst to stack: polarisation, EIS, ECSA and high-current measurements.
Conductivity, dielectric and sheet-resistance measurement on ceramics, polymers, thin films and solid electrolytes.
Position-resolved information instead of an average: SECM, SKP, SVET, LEIS and SDS techniques.
Electrochemical characterisation of solar cells: I–V, Mott-Schottky, EIS and IMVS.
Electrochemical sensor development, the quartz crystal microbalance and simultaneous spectroscopy.
Ask our technical team for training and a demo to set up the measurements in this curriculum in your laboratory.