Future Microbiology · 2020 · 85 citations · 31 references
Life SciencesBiomedical EngineeringMicrobiologyBacteriologyDiagnostic MicrobiologyMedical MicrobiologyBacterial BiofilmsFluorescence ImagingFluorescence MicroscopyMicrobial BiofilmsPathogen DetectionWound InfectionBacterial DetectionBacterial MicroscopyBiofilm Detection ImagingBiofilm ImagingFluorescence QuantificationFluorescence SensingMicroscopy-based DetectionPolymicrobial Interactions
Aim: Fluorescence imaging can visualize polymicrobial populations in chronic and acute wounds based on porphyrin fluorescence. We investigated the fluorescent properties of specific wound pathogens and the fluorescence detected from bacteria in biofilm. Methods: Utilizing Remel Porphyrin Test Agar, 32 bacterial and four yeast species were examined for red fluorescence under 405 nm violet light illumination. Polymicrobial biofilms, supplemented with δ-aminolevulinic acid, were investigated similarly. Results: A total of 28/32 bacteria, 1/4 yeast species and polymicrobial biofilms produced red fluorescence, in agreement with their known porphyrin production abilities. Conclusion: These results identify common wound pathogens capable of producing porphyrin-specific fluorescence and support clinical observations using fluorescence imaging to detect pathogenic bacteria in chronic wounds.
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The EPS Matrix: The “House of Biofilm Cells”
Hans‐Curt Flemming, Thomas R. Neu, Daniel J. Wozniak · Journal of Bacteriology · 2007 · 1.8K citations · Full text
Garth A. James, E. Swogger, Randall D. Wolcott et al. · Wound Repair and Regeneration · 2007 · 1.5K citations