Advances in Material Modification with Smart Functional Polymers for Combating Biofilms in Biomedical Applications.
Luis Alberto Mejía-ManzanoPatricia Vázquez-VillegasLuis Vicente Prado-CervantesKristeel Ximena Franco-GómezSusana Carbajal-OcañaDaniela Lizeth Sotelo-CortésValeria Atehortúa-BenítezMiguel Delgado-RodríguezJorge Membrillo-HernándezPublished in: Polymers (2023)
Biofilms as living microorganism communities are found anywhere, and for the healthcare sector, these constitute a threat and allied mechanism for health-associated or nosocomial infections. This review states the basis of biofilms and their formation. It focuses on their relevance for the biomedical sector, generalities, and the major advances in modified or new synthesized materials to prevent or control biofilm formation in biomedicine. Biofilm is conceptualized as an aggregate of cells highly communicated in an extracellular matrix, which the formation obeys to molecular and genetic basis. The biofilm offers protection to microorganisms from unfavorable environmental conditions. The most frequent genera of microorganisms forming biofilms and reported in infections are Staphylococcus spp., Escherichia spp., and Candida spp. in implants, heart valves, catheters, medical devices, and prostheses. During the last decade, biofilms have been most commonly related to health-associated infections and deaths in Europe, the United States, and Mexico. Smart, functional polymers are materials capable of responding to diverse stimuli. These represent a strategy to fight against biofilms through the modification or synthesis of new materials. Polypropylene and poly-N-isopropyl acrylamide were used enough in the literature analysis performed. Even smart polymers serve as delivery systems for other substances, such as antibiotics, for biofilm control.
Keyphrases
- candida albicans
- biofilm formation
- healthcare
- extracellular matrix
- pseudomonas aeruginosa
- public health
- staphylococcus aureus
- heart failure
- mental health
- systematic review
- induced apoptosis
- escherichia coli
- aortic valve
- cystic fibrosis
- cell death
- dna methylation
- drinking water
- social media
- klebsiella pneumoniae
- left ventricular
- single molecule
- risk assessment