Jones Phoebe, Mempin Maria, Hu Honghua, Chowdhury Durdana, Foley Matthew, Cooter Rodney, Adams William P, Vickery Karen, Deva Anand K
From the Surgical Infection Research Group, Faculty of Medical and Health Sciences, Macquarie University; Integrated Specialist Healthcare Education and Research Foundation; Monash University; Australian Center for Microscopy and Microanalysis, University of Sydney; and the University of Texas Southwestern.
Plast Reconstr Surg. 2018 Oct;142(4):837-849. doi: 10.1097/PRS.0000000000004801.
BACKGROUND: The introduction of texture to the outer shell of breast implants was aimed at increasing tissue incorporation and reducing capsular contracture. It has also been shown that textured surfaces promote a higher growth of bacteria and are linked to the development of breast implant-associated anaplastic large cell lymphoma. METHODS: The authors aimed to measure the surface area and surface roughness of 11 available implants. In addition, the authors aimed to subject these implant shells to an in vitro bacterial attachment assay with four bacterial pathogens (Staphylococcus epidermidis, S. aureus, Pseudomonas aeruginosa, and Ralstonia pickettii) and study the relationship among surface area, surface roughness, and bacterial growth. RESULTS: Surface area measurement showed grouping of implants into high, intermediate, low, and minimal. Surface roughness showed a correlation with surface area. The in vitro assay showed a significant linear relationship between surface area and bacterial attachment/growth. The high surface area/roughness implant texture grew significantly more bacteria at 24 hours, whereas the minimal surface area/roughness implant textures grew significantly fewer bacteria of all types at 24 hours. For implants with intermediate and low surface areas, some species differences were observed, indicating possible affinity of specific bacterial species to surface morphology. CONCLUSIONS: Implant shells should be reclassified using surface area/roughness into four categories (high, intermediate, low, and minimal). This classification is superior to the use of descriptive terms such as macrotexture, microtexture, and nanotexture, which are not well correlated with objective measurement and/or functional outcomes.
背景:在乳房植入物外壳引入纹理旨在增加组织整合并减少包膜挛缩。研究还表明,有纹理的表面会促进细菌大量生长,且与乳房植入物相关的间变性大细胞淋巴瘤的发生有关。 方法:作者旨在测量11种市售植入物的表面积和表面粗糙度。此外,作者还将这些植入物外壳用于四种细菌病原体(表皮葡萄球菌、金黄色葡萄球菌、铜绿假单胞菌和皮氏罗尔斯顿菌)的体外细菌黏附试验,并研究表面积、表面粗糙度与细菌生长之间的关系。 结果:表面积测量结果显示,植入物可分为高、中、低和最小四类。表面粗糙度与表面积相关。体外试验表明,表面积与细菌黏附/生长之间存在显著的线性关系。高表面积/粗糙度的植入物纹理在24小时时细菌生长显著更多,而最小表面积/粗糙度的植入物纹理在24小时时各类细菌生长显著更少。对于中等和低表面积的植入物,观察到了一些菌种差异,表明特定细菌菌种可能对表面形态有亲和力。 结论:应根据表面积/粗糙度将植入物外壳重新分为四类(高、中、低和最小)。这种分类优于使用宏观纹理、微观纹理和纳米纹理等描述性术语,因为这些术语与客观测量和/或功能结果的相关性不佳。
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