Automated Analysis of Nano-Impact Single-Entity Electrochemistry Signals using Unsupervised Machine Learning and Template Matching

23 June 2023, Version 1
This content is a preprint and has not undergone peer review at the time of posting.

Abstract

Nano-impact single-entity electrochemistry (NIE) is an emerging technique that enables electrochemical investigation of individual entities, ranging from metal nanoparticles to single cells and biomolecules. To extract meaningful information from NIE experiments, statistical analysis of large datasets is necessary. In this study, we developed a method for the automated analysis of NIE data based on unsupervised machine learning and template matching approaches. Template matching not only facilitates downstream processing of the NIE data but also provides a more accurate analysis of the NIE signal characteristics and variations that are difficult to discern with conventional data analysis techniques, such as the height threshold method. The developed algorithm enables fast automated processing of large experimental datasets recorded with different systems, requiring minimal human intervention and thereby eliminating human bias in data analysis. As a result, it improves the standardization of data processing and NIE signal interpretation across various experiments and applications.

Keywords

nano-impact electrochemistry
single-entity electrochemistry
unsupervised machine learning
template matching

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This document serves as supporting information for the article titled "Automated Analysis of Nano-Impact Single-Entity Electrochemistry Signals using Unsupervised Machine Learning and Template Matching." It provides detailed explanations for certain algorithmic steps and includes results that were not presented in the main manuscript due to space constraints.
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Comment number 1, Slava SHKIRSKIY: Nov 20, 2023, 14:52

A good and timely example of how unsupervised machine learning can be utilized in nano-impact electrochemistry