Foods · 2021 · 17 citations · 67 references
Life SciencesMaterials ScienceMicrobiologyBacteriologyBiomaterialsFood MicrobiologyBacterial BiofilmsBacterial MorphologyBiofilm FormationBiomaterial Surface PropertiesLactic Acid BacteriaMicrobial BiofilmsAmorphous Matrix FormationBiofilm Formation On Food Contact SurfacesBiofilm GrowthBiofilm Matrix StructureBiofilm Surface PropertiesExtracellular Polymeric SubstancesSurface CoverageSurface Roughness Parameters
Biofilm characteristics of Microbacterium lacticum D84 (M. lacticum) and Staphylococcus capitis subsp. capitis (S. capitis) on polytetrafluoroethylene and AISI-304 stainless steel at early- (24, 48 h) and late-stage (144, 192 h) biofilm formation were investigated. M. lacticum biofilm structure was more developed compared to S. capitis, representing vastly mature biofilms with a strongly developed amorphous matrix, possibly extracellular polymeric substances (EPSs), at late-stage biofilm formation. S. capitis showed faster growth behavior but still resulted in a relatively flat biofilm structure. Strong correlations were found between several roughness parameters and S. capitis surface coverage (r ≥ 0.98), and between total surface free energy (γs) and S. capitis surface coverage (r = 0.89), while M. lacticum remained mostly unaffected. The pronounced ubiquitous biofilm characteristics make M. lacticum D84 a suitable model for biofilm research. Studying biofilm formation of these bacteria may help one understand bacterial adhesion on interfaces and hence reduce biofilm formation in the food industry.
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