Nanosilica:Polycaprolactone ratio and heat treatment modify the wettability of nanosilica/polycaprolactone coatings for application in aqueous systems

Ilha, J.; Figueiró, Amanda; Grando, Marina Carla; Macuvele, Domingos Lusitâneo Pier; Fiori, Márcio Antônio; Padoin, Natan; Riella, Humberto Gracher; Soares, Cíntia

doi:10.1016/j.surfin.2022.101997

Cited by 2 publications

(2 citation statements)

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“…It has low decomposition rates and is highly flammable, non-toxic, and inexpensive [ 16 ]. On the other hand, poor cell adhesion and slow degradability are disadvantages of this synthetic biopolymer [ 17 ]. To minimize these limitations, the combination of PLC with other polymers, e.g., poly-lactic acid (PLA), has been developed to create a less hydrophobic construct with better mechanical properties and improved degradability.…”

Section: Materials Used For 3d Scaffold Engineeringmentioning

confidence: 99%

“…When applied in vivo, PCL proves to be stable and shows no visible degradation after 6 months [ 18 ]. PCL has been used in the production of hard (bone and dental applications) and soft tissues (skin, liver, cartilage, ligaments, muscle, nerves, retina, and blood vessels) [ 17 ]. In the context of skin TE, studies have demonstrated that a layer-by-layer method is suitable for modeling PCL scaffolds.…”

Section: Materials Used For 3d Scaffold Engineeringmentioning

confidence: 99%

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Resorbable Biomaterials Used for 3D Scaffolds in Tissue Engineering: A Review

Vach Agocsova,

Culenova,

Birova

et al. 2023

Materials

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This article provides a thorough overview of the available resorbable biomaterials appropriate for producing replacements for damaged tissues. In addition, their various properties and application possibilities are discussed as well. Biomaterials are fundamental components in tissue engineering (TE) of scaffolds and play a critical role. They need to exhibit biocompatibility, bioactivity, biodegradability, and non-toxicity, to ensure their ability to function effectively with an appropriate host response. With ongoing research and advancements in biomaterials for medical implants, the objective of this review is to explore recently developed implantable scaffold materials for various tissues. The categorization of biomaterials in this paper includes fossil-based materials (e.g., PCL, PVA, PU, PEG, and PPF), natural or bio-based materials (e.g., HA, PLA, PHB, PHBV, chitosan, fibrin, collagen, starch, and hydrogels), and hybrid biomaterials (e.g., PCL/PLA, PCL/PEG, PLA/PEG, PLA/PHB PCL/collagen, PCL/chitosan, PCL/starch, and PLA/bioceramics). The application of these biomaterials in both hard and soft TE is considered, with a particular focus on their physicochemical, mechanical, and biological properties. Furthermore, the interactions between scaffolds and the host immune system in the context of scaffold-driven tissue regeneration are discussed. Additionally, the article briefly mentions the concept of in situ TE, which leverages the self-renewal capacities of affected tissues and highlights the crucial role played by biopolymer-based scaffolds in this strategy.

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Section: Materials Used For 3d Scaffold Engineeringmentioning

confidence: 99%

Section: Materials Used For 3d Scaffold Engineeringmentioning

confidence: 99%