What is the definition of the impedance Z?
How to correctly define the $Z$ impedance
Energy storage and conversionResearch electrochemistryMaterials science
Learning Center.
An ever-growing source of articles to help you with your research
Why waste money on nitrogen for Circular Dichroism?
Why the use of nitrogen for optic flushing is not always necessary for Circular dichroism measurements. So, when & why is it necessary?
Life sciencesRapid kineticsSpectroscopy
Which scanning probe electrochemistry technique?
The scanning probe electrochemistry techniques on the M470 are compared.
Energy storage and conversionResearch electrochemistryLife sciencesMaterials science
Stopped-Flow & Deadtime: Everything you need to know
Everything you need to know about dead time: definition, importance, calculation…and more
Life sciencesRapid kineticsSpectroscopy
Independent stepping motors: 5 reasons why they make sense…
Five reasons why independent stepping motors result in unrivalled quality for stopped flow experiments
Life sciencesRapid kinetics
ZSim and ZFit as learning tools. Part IV – The effect of high frequency inductance.
High frequency inductance can strongly affect the shape of impedance graphs and need to be accounted for during data fitting.
Energy storage and conversionResearch electrochemistryMaterials science
The Faraday Cage: What is it and how does it work?
What is a Faraday Cage. How does it work? The article looks at the use of the Faraday cage in electrochemistry.
Analytical electrochemistryCorrosionResearch electrochemistry
What are stopped-flows and how do they help chemists and biochemists understand high-speed chemical reactions?
A global overview detailing the purpose, functionality and design of stopped flows - important instruments used in rapid kinetics experimentation
Life sciencesRapid kinetics
Which stopped-flow for my lab?
A short guide to help you pick the right Biologic stopped-flow model to suit your needs.
Life sciencesRapid kinetics
CVSim as a learning tool. II Interfacial concentrations
CVSim is used to determine the peak current concentration of electroactive species involved in a reversible redox reaction (E).
Energy storage and conversionAnalytical electrochemistryResearch electrochemistry
