Machine learning assisted classification of staphylococcal biofilm maturity

An increasing incidence of device-related, biofilm-associated infections has been observed in clinical practice worldwide. In vitro biofilm models are essential to study these burdensome infections and to design and test potential new treatment approaches. However, there is considerable variation in...

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Published inBiofilm Vol. 9; p. 100283
Main Authors van Dun, S.C.J., Knol, R., Silva-Herdade, A.S., Veiga, A.S., Castanho, M.A.R.B., Nibbering, P.H., Pijls, B.G.C.W., van der Does, A.M., Dijkstra, J., de Boer, M.G.J.
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Published Netherlands Elsevier B.V 01.06.2025
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Abstract An increasing incidence of device-related, biofilm-associated infections has been observed in clinical practice worldwide. In vitro biofilm models are essential to study these burdensome infections and to design and test potential new treatment approaches. However, there is considerable variation in in vitro biofilm models, and a generally accepted systematic description of biofilm maturity – apart from incubation time – is lacking. Therefore, we proposed a scheme comprised of 6 different classes based on common topographic characteristics, i.e., the substrate, bacterial cells and extracellular matrix, identified by atomic force microscopy (AFM), to describe biofilm maturity independent of incubation time. Evaluation of a test set of staphylococcal biofilm images by a group of independent researchers showed that human observers were capable of classifying images with a mean accuracy of 0.77 ± 0.18. However, manual evaluation of AFM biofilm images is time-consuming, and subject to observer bias. To circumvent these disadvantages, a machine learning algorithm was designed and developed to aid in classification of biofilm images. The designed algorithm was capable of identifying pre-set characteristics of biofilms and able to discriminate between the six different classes in the proposed framework. Compared to the established ground truth, the mean accuracy of the developed algorithm amounted to 0.66 ± 0.06 with comparable recall, and off-by-one accuracy of 0.91 ± 0.05. This algorithm, which classifies AFM images of biofilms, has been made available as an open access desktop tool. •Staphylococcal biofilm classification possible based on specific characteristics.•Classification scheme applicable for (in)experienced human researchers.•Deep learning algorithm developed for automated biofilm classification.•The algorithm classifies biofilm with similar accuracy to human researchers.•Open access tool designed from algorithm available for research.
AbstractList An increasing incidence of device-related, biofilm-associated infections has been observed in clinical practice worldwide. In vitro biofilm models are essential to study these burdensome infections and to design and test potential new treatment approaches. However, there is considerable variation in in vitro biofilm models, and a generally accepted systematic description of biofilm maturity – apart from incubation time – is lacking.Therefore, we proposed a scheme comprised of 6 different classes based on common topographic characteristics, i.e., the substrate, bacterial cells and extracellular matrix, identified by atomic force microscopy (AFM), to describe biofilm maturity independent of incubation time. Evaluation of a test set of staphylococcal biofilm images by a group of independent researchers showed that human observers were capable of classifying images with a mean accuracy of 0.77 ± 0.18. However, manual evaluation of AFM biofilm images is time-consuming, and subject to observer bias. To circumvent these disadvantages, a machine learning algorithm was designed and developed to aid in classification of biofilm images.The designed algorithm was capable of identifying pre-set characteristics of biofilms and able to discriminate between the six different classes in the proposed framework. Compared to the established ground truth, the mean accuracy of the developed algorithm amounted to 0.66 ± 0.06 with comparable recall, and off-by-one accuracy of 0.91 ± 0.05. This algorithm, which classifies AFM images of biofilms, has been made available as an open access desktop tool.
An increasing incidence of device-related, biofilm-associated infections has been observed in clinical practice worldwide. biofilm models are essential to study these burdensome infections and to design and test potential new treatment approaches. However, there is considerable variation in biofilm models, and a generally accepted systematic description of biofilm maturity - apart from incubation time - is lacking. Therefore, we proposed a scheme comprised of 6 different classes based on common topographic characteristics, , the substrate, bacterial cells and extracellular matrix, identified by atomic force microscopy (AFM), to describe biofilm maturity independent of incubation time. Evaluation of a test set of staphylococcal biofilm images by a group of independent researchers showed that human observers were capable of classifying images with a mean accuracy of 0.77 ± 0.18. However, manual evaluation of AFM biofilm images is time-consuming, and subject to observer bias. To circumvent these disadvantages, a machine learning algorithm was designed and developed to aid in classification of biofilm images. The designed algorithm was capable of identifying pre-set characteristics of biofilms and able to discriminate between the six different classes in the proposed framework. Compared to the established ground truth, the mean accuracy of the developed algorithm amounted to 0.66 ± 0.06 with comparable recall, and off-by-one accuracy of 0.91 ± 0.05. This algorithm, which classifies AFM images of biofilms, has been made available as an open access desktop tool.
An increasing incidence of device-related, biofilm-associated infections has been observed in clinical practice worldwide. In vitro biofilm models are essential to study these burdensome infections and to design and test potential new treatment approaches. However, there is considerable variation in in vitro biofilm models, and a generally accepted systematic description of biofilm maturity – apart from incubation time – is lacking. Therefore, we proposed a scheme comprised of 6 different classes based on common topographic characteristics, i.e. , the substrate, bacterial cells and extracellular matrix, identified by atomic force microscopy (AFM), to describe biofilm maturity independent of incubation time. Evaluation of a test set of staphylococcal biofilm images by a group of independent researchers showed that human observers were capable of classifying images with a mean accuracy of 0.77 ± 0.18. However, manual evaluation of AFM biofilm images is time-consuming, and subject to observer bias. To circumvent these disadvantages, a machine learning algorithm was designed and developed to aid in classification of biofilm images. The designed algorithm was capable of identifying pre-set characteristics of biofilms and able to discriminate between the six different classes in the proposed framework. Compared to the established ground truth, the mean accuracy of the developed algorithm amounted to 0.66 ± 0.06 with comparable recall, and off-by-one accuracy of 0.91 ± 0.05. This algorithm, which classifies AFM images of biofilms, has been made available as an open access desktop tool. • Staphylococcal biofilm classification possible based on specific characteristics. • Classification scheme applicable for (in)experienced human researchers. • Deep learning algorithm developed for automated biofilm classification. • The algorithm classifies biofilm with similar accuracy to human researchers. • Open access tool designed from algorithm available for research.
An increasing incidence of device-related, biofilm-associated infections has been observed in clinical practice worldwide. In vitro biofilm models are essential to study these burdensome infections and to design and test potential new treatment approaches. However, there is considerable variation in in vitro biofilm models, and a generally accepted systematic description of biofilm maturity – apart from incubation time – is lacking. Therefore, we proposed a scheme comprised of 6 different classes based on common topographic characteristics, i.e., the substrate, bacterial cells and extracellular matrix, identified by atomic force microscopy (AFM), to describe biofilm maturity independent of incubation time. Evaluation of a test set of staphylococcal biofilm images by a group of independent researchers showed that human observers were capable of classifying images with a mean accuracy of 0.77 ± 0.18. However, manual evaluation of AFM biofilm images is time-consuming, and subject to observer bias. To circumvent these disadvantages, a machine learning algorithm was designed and developed to aid in classification of biofilm images. The designed algorithm was capable of identifying pre-set characteristics of biofilms and able to discriminate between the six different classes in the proposed framework. Compared to the established ground truth, the mean accuracy of the developed algorithm amounted to 0.66 ± 0.06 with comparable recall, and off-by-one accuracy of 0.91 ± 0.05. This algorithm, which classifies AFM images of biofilms, has been made available as an open access desktop tool. •Staphylococcal biofilm classification possible based on specific characteristics.•Classification scheme applicable for (in)experienced human researchers.•Deep learning algorithm developed for automated biofilm classification.•The algorithm classifies biofilm with similar accuracy to human researchers.•Open access tool designed from algorithm available for research.
An increasing incidence of device-related, biofilm-associated infections has been observed in clinical practice worldwide. In vitro biofilm models are essential to study these burdensome infections and to design and test potential new treatment approaches. However, there is considerable variation in in vitro biofilm models, and a generally accepted systematic description of biofilm maturity - apart from incubation time - is lacking. Therefore, we proposed a scheme comprised of 6 different classes based on common topographic characteristics, i.e., the substrate, bacterial cells and extracellular matrix, identified by atomic force microscopy (AFM), to describe biofilm maturity independent of incubation time. Evaluation of a test set of staphylococcal biofilm images by a group of independent researchers showed that human observers were capable of classifying images with a mean accuracy of 0.77 ± 0.18. However, manual evaluation of AFM biofilm images is time-consuming, and subject to observer bias. To circumvent these disadvantages, a machine learning algorithm was designed and developed to aid in classification of biofilm images. The designed algorithm was capable of identifying pre-set characteristics of biofilms and able to discriminate between the six different classes in the proposed framework. Compared to the established ground truth, the mean accuracy of the developed algorithm amounted to 0.66 ± 0.06 with comparable recall, and off-by-one accuracy of 0.91 ± 0.05. This algorithm, which classifies AFM images of biofilms, has been made available as an open access desktop tool.An increasing incidence of device-related, biofilm-associated infections has been observed in clinical practice worldwide. In vitro biofilm models are essential to study these burdensome infections and to design and test potential new treatment approaches. However, there is considerable variation in in vitro biofilm models, and a generally accepted systematic description of biofilm maturity - apart from incubation time - is lacking. Therefore, we proposed a scheme comprised of 6 different classes based on common topographic characteristics, i.e., the substrate, bacterial cells and extracellular matrix, identified by atomic force microscopy (AFM), to describe biofilm maturity independent of incubation time. Evaluation of a test set of staphylococcal biofilm images by a group of independent researchers showed that human observers were capable of classifying images with a mean accuracy of 0.77 ± 0.18. However, manual evaluation of AFM biofilm images is time-consuming, and subject to observer bias. To circumvent these disadvantages, a machine learning algorithm was designed and developed to aid in classification of biofilm images. The designed algorithm was capable of identifying pre-set characteristics of biofilms and able to discriminate between the six different classes in the proposed framework. Compared to the established ground truth, the mean accuracy of the developed algorithm amounted to 0.66 ± 0.06 with comparable recall, and off-by-one accuracy of 0.91 ± 0.05. This algorithm, which classifies AFM images of biofilms, has been made available as an open access desktop tool.
ArticleNumber 100283
Author Dijkstra, J.
de Boer, M.G.J.
Pijls, B.G.C.W.
Silva-Herdade, A.S.
van der Does, A.M.
van Dun, S.C.J.
Knol, R.
Castanho, M.A.R.B.
Veiga, A.S.
Nibbering, P.H.
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Keywords Biofilm
Atomic force microscopy
Staphylococcus aureus
Classification
Machine learning algorithm
Language English
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Snippet An increasing incidence of device-related, biofilm-associated infections has been observed in clinical practice worldwide. In vitro biofilm models are...
An increasing incidence of device-related, biofilm-associated infections has been observed in clinical practice worldwide. biofilm models are essential to...
An increasing incidence of device-related, biofilm-associated infections has been observed in clinical practice worldwide. In vitro biofilm models are...
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StartPage 100283
SubjectTerms Atomic force microscopy
Biofilm
Classification
Machine learning algorithm
Staphylococcus aureus
Title Machine learning assisted classification of staphylococcal biofilm maturity
URI https://dx.doi.org/10.1016/j.bioflm.2025.100283
https://www.ncbi.nlm.nih.gov/pubmed/40458267
https://www.proquest.com/docview/3215238030
https://pubmed.ncbi.nlm.nih.gov/PMC12127609
https://doaj.org/article/44deceafa7194219ae836eadf59ae489
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