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Sim Library

Electrochemical Simulation is highly useful for many applications. For pedagogy, use of AfterMath Live teaches the lost art of comparative simulation. For research, comparative simulation leads to extracting useful mechanistic parameters. Here, we present the Sim Library, which is an open access library of real electrochemical data (some of which have been obtained using Pine Research potentiostats).

Members of the electrochemical community have graciously contributed to these datasets. The Sim Library entries make comparative simulation accessible and possible for many users.

When teaching a course that includes electrochemistry, instructors should use electrochemical simulation. Instructors might assign homework to students, where they learn how to couple electrochemical simulation with real experimental data. In this comparative simulation approach, students are presented with a cyclic voltammogram of an electrochemically active species. They are not provided with mechanistic details. Through comparative simulation, students design and propose a mechanism by qualitatively fitting their simulation model with real electrochemical data.

If you are a student, you are in the right place! You can fire up AfterMath Live in a browser tab and download any of these datasets from the Sim Library. Then, upload them to your AfterMath Live session to begin comparative simulation.

If you are an instructor, you should contact us so we can assign the proper credentials to your account so you can download the “answer key,” which is the simulation node and experimental data in one AfterMath Live archive.

Want to Contribute?
We are always happy to add more datasets to this growing Sim Library.
IDTypeMechanismTitleTagsProviderViewhf:tax:sl-dataset-typehf:tax:sl-mechanism-tagshf:tax:sim-library-tags
2047experimentalCECECAcetaminophen on Screen-Printed Electrode (1)complicated, screen-printed electrode, tylenolPine ResearchViewexperimentalcececcomplicated screen-printed-electrode tylenol
1914experimentalEHexaammineruthenium(III) chloride on Screen-Printed Electrode (1)common species, screen-printed electrode, simplePine ResearchViewexperimentalecommon-species screen-printed-electrode simple
1908simulationECEElectrochemical Methods (3rd Edition) Figure 13.3.25Electrochemical Methods, recreationPine ResearchViewsimulationeceelectrochemical-methods recreation
1900simulationEEElectrochemical Methods (3rd Edition) Figure 13.3.23Electrochemical Methods, recreationPine ResearchViewsimulationeeelectrochemical-methods recreation
1894simulationEEElectrochemical Methods (3rd Edition) Figure 13.3.22Electrochemical Methods, recreationPine ResearchViewsimulationeeelectrochemical-methods recreation
1889simulationEEElectrochemical Methods (3rd Edition) Figure 13.3.21Electrochemical Methods, recreationPine ResearchViewsimulationeeelectrochemical-methods recreation
1884simulationEEElectrochemical Methods (3rd Edition) Figure 13.3.20Electrochemical Methods, recreationPine ResearchViewsimulationeeelectrochemical-methods recreation
1855simulationEEElectrochemical Methods (3rd Edition) Figure 13.3.16Electrochemical Methods, recreationPine ResearchViewsimulationeeelectrochemical-methods recreation
1207simulationCEElectrochemical Methods (3rd Edition) Figure 13.3.13Electrochemical Methods, recreationPine ResearchViewsimulationceelectrochemical-methods recreation
1205simulationECElectrochemical Methods (3rd Edition) Figure 13.3.9Electrochemical Methods, recreationPine ResearchViewsimulationecelectrochemical-methods recreation
1203simulationECEElectrochemical Methods (3rd Edition) Figure 13.3.4Electrochemical Methods, recreationPine ResearchViewsimulationeceelectrochemical-methods recreation
795simulationECElectrochemical Methods (3rd Edition) Figure 13.3.1Electrochemical Methods, recreationPine ResearchViewsimulationecelectrochemical-methods recreation