• Title of article

    Evaluation of the role of substrate and albumin on Pseudomonas aeruginosa biofilm morphology through FESEM and FTIR studies on polymeric biomaterials

  • Author/Authors

    Dutta Sinha, S. Department of Physics - Jadavpur University, Kolkata, India , Chatterjee, Susmita Department of Microbiology - SSKM Hospital-Institute of Postgraduate Medical Education and Research,India , Maiti, P. K. Department of Microbiology - SSKM Hospital-Institute of Postgraduate Medical Education and Research,India , Tarafdar, S. Department of Physics - Jadavpur University, Kolkata, India , Moulik, S. P. Centre for Surface Science - Department of Chemistry - Jadavpur University, India

  • Pages
    12
  • From page
    27
  • To page
    38
  • Abstract
    Bacterial biofilms pose the greatest challenge to implant surgeries leading to device-related infections and implant failure. Our present study aims at monitoring the variation in the biofilm architecture of a clinically isolated strain and ATCC 27853 strain of Pseudomonas aeruginosa on two polymeric biomaterials, used in implants. The perspective of our study is to recognize the potential of these two biomaterials to create biofilm infections and develop the understanding regarding their limitations of use and handle patients with this deeper insight. The final goal, however, is an accurate interpretation of substratemicrobe interactions in the two biomaterials, which will provide us the knowledge of possible surface modifications to develop of an efficacious anti-biofilm therapy for deterring implant infections. The reference strain ATCC 27853 and a clinical isolate of P. aeruginosa collected from urinary catheters of patients suffering from urinary tract infections, have been used as microbes while clinical grades of polypropylene and high density polyethylene, have been used as ‘substrates’ for biofilm growth. The variation in the nature of the ‘substrate’ and ‘conditioning layer’ of BSA have been found to affect the biofilm architecture as well as the physiology of the biofilmforming bacteria, accompanied by an alteration in the nature and volume of EPS (extracellular polysaccharide) matrices.
  • Keywords
    Biofilms , Biomaterials , Adsorption , Bacteria , Proteins , Conditioning layer
  • Journal title
    Progress in Biomaterials
  • Serial Year
    2017
  • Journal title
    Progress in Biomaterials
  • Record number

    2434790