[HTML][HTML] Bacterial adhesion and biofilm formation on textured breast implant shell materials
GA James, L Boegli, J Hancock, L Bowersock… - Aesthetic plastic …, 2019 - Springer
GA James, L Boegli, J Hancock, L Bowersock, A Parker, BM Kinney
Aesthetic plastic surgery, 2019•SpringerBackground Bacterial biofilms have been implicated with breast implant complications
including capsular contracture and anaplastic large-cell lymphoma. The actual mechanisms
for either are still under active investigation and are not clear. Due to their increased surface
area, implants with textured surfaces may harbor greater biofilm loads than those with
smooth surfaces. Methods Biofilm formation on the outer surface material was compared
using implants with various surface areas and roughness, including Natrelle®(Smooth) …
including capsular contracture and anaplastic large-cell lymphoma. The actual mechanisms
for either are still under active investigation and are not clear. Due to their increased surface
area, implants with textured surfaces may harbor greater biofilm loads than those with
smooth surfaces. Methods Biofilm formation on the outer surface material was compared
using implants with various surface areas and roughness, including Natrelle®(Smooth) …
Background
Bacterial biofilms have been implicated with breast implant complications including capsular contracture and anaplastic large-cell lymphoma. The actual mechanisms for either are still under active investigation and are not clear. Due to their increased surface area, implants with textured surfaces may harbor greater biofilm loads than those with smooth surfaces.
Methods
Biofilm formation on the outer surface material was compared using implants with various surface areas and roughness, including Natrelle® (Smooth), SmoothSilk®/SilkSurface® (Silk), VelvetSurface ® (Velvet), Siltex®, and Biocell®. The roughness and surface area of each material were assessed using non-contact profilometry. Bacterial attachment (2 h) and biofilm formation (24 h) were evaluated for Staphylococcus epidermidis, Pseudomonas aeruginosa, and Ralstonia pickettii over nine independent experiments using a CDC biofilm reactor and viable plate counts (VPCs) as well as confocal scanning laser microscopy. VPCs of the textured implants were compared relative to the Smooth implant.
Results
Surface areas increased with roughness and were similar among the three least rough implants (Smooth, Silk, and Velvet) and among the roughest implants (Siltex and Biocell). Overall, VPC indicated there was significantly more bacterial attachment and biofilm formation on the Siltex and Biocell implants than the Silk or Velvet implants, although there were differences between species and time points. CSLM confirmed the formation of thicker biofilms on the implants with rougher surface textures.
Conclusion
This in vitro study confirmed that implant surfaces with rougher texture, resulting in more surface area, harbored greater biofilm loads than those with smoother surfaces.
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