3D Cellular Automata-Based Model of Bacterial Biofilm Formation with Developed Surface Spreading Mechanism

Cellular automata, being an apparatus for the implementation of discrete dynamic models, play a special role in mathematical biology and in silico studies of microorganisms. The study was undertaken to design 3D hybrid cellular automata-based model of bacterial biofilm taking into account the surface spreading mechanism. The model formalization is based on the cellular automaton algorithm of biofilm evolution, a discrete analogy for the diffusion model of nutrient consumption, and an additional inoculation mechanism. The proposed computational procedure allows to conduct simulations under variations of key model parameters: the initial nutrient level, the probability of additional inoculation, and the radius of random inoculation transfer. A series of in silico experiments was conducted to investigate biofilm formation with a focus on ensuring two key factors: maximum space occupation with minimal resource consumption.

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Publication Details

Journal
EPiC series in computing
Published
2024-12-11
DOI
https://doi.org/10.29007/m864
Primary Topic
Cellular Automata and Applications
Type
article
Field-Weighted Citation Impact
0.00

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article

3D Cellular Automata-Based Model of Bacterial Biofilm Formation with Developed Surface Spreading Mechanism

Anna Gennadievna Maslovskaya, Christina Kuttler, Samvel Sarukhanian
EPiC series in computing
Cellular Automata and Applications
article

3D Cellular Automata-Based Model of Bacterial Biofilm Formation with Developed Surface Spreading Mechanism

Anna Gennadievna Maslovskaya, Christina Kuttler, Samvel Sarukhanian
article en

Abstract

Cellular automata, being an apparatus for the implementation of discrete dynamic models, play a special role in mathematical biology and in silico studies of microorganisms. The study was undertaken to design 3D hybrid cellular automata-based model of bacterial biofilm taking into account the surface spreading mechanism. The model formalization is based on the cellular automaton algorithm of biofilm evolution, a discrete analogy for the diffusion model of nutrient consumption, and an additional inoculation mechanism. The proposed computational procedure allows to conduct simulations under variations of key model parameters: the initial nutrient level, the probability of additional inoculation, and the radius of random inoculation transfer. A series of in silico experiments was conducted to investigate biofilm formation with a focus on ensuring two key factors: maximum space occupation with minimal resource consumption.

EPiC series in computingVol. 104
Kazan Federal University
Decent work and economic growth
Openalex Percentile: Top 73%
Cellular Automata and Applications
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3D Cellular Automata-Based Model of Bacterial Biofilm Formation with Developed Surface Spreading Mechanism — Anna Gennadievna Maslovskaya, Christina Kuttler, et al. · EPiC series in computing (2024) | TGRS Research Map | TGRS