4.7 Article

Preparation of Vancomycin-Loaded Aerogels Implementing Inkjet Printing and Superhydrophobic Surfaces

期刊

GELS
卷 8, 期 7, 页码 -

出版社

MDPI
DOI: 10.3390/gels8070417

关键词

aerogels; chronic wounds; vancomycin; gel inkjet printing; superhydrophobic surfaces; 3D droplet printing; alginate; bioaerogels

资金

  1. Ministerio de Ciencia e Innovacion, MICINN, Spain [PID2020-120010RB-I00]
  2. Xunta de Galicia, Spain [ED431C 2020/17]
  3. Agencia Estatal de Investigacion, Spain (AEI)
  4. European Commission [CA18125]

向作者/读者索取更多资源

This study introduces alginate aerogel particles loaded with vancomycin obtained through a novel processing strategy combining gel inkjet printing and water-repellent surfaces, which can sustain release the antibiotic for more than 7 days. The green aerogel processing strategy significantly improves drug loading yields and has the potential to enhance antibacterial treatments for chronic wounds.
Chronic wounds are physical traumas that significantly impair the quality of life of over 40 million patients worldwide. Aerogels are nanostructured dry porous materials that can act as carriers for the local delivery of bioactive compounds at the wound site. However, aerogels are usually obtained with low drug loading yields and poor particle size reproducibility and urges the implementation of novel and high-performance processing strategies. In this work, alginate aerogel particles loaded with vancomycin, an antibiotic used for the treatment of Staphylococcus aureus infections, were obtained through aerogel technology combined with gel inkjet printing and water-repellent surfaces. Alginate aerogel particles showed high porosity, large surface area, a well-defined spherical shape and a reproducible size (609 +/- 37 mu m). Aerogel formulation with vancomycin loadings of up to 33.01 +/- 0.47 mu g drug/mg of particle were obtained with sustained-release profiles from alginate aerogels for more than 7 days (PBS pH 7.4 medium). Overall, this novel green aerogel processing strategy allowed us to obtain nanostructured drug delivery systems with improved drug loading yields that can enhance the current antibacterial treatments for chronic wounds.

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