Marine Drugs · 2018 · 70 citations · 75 references
Natural SciencesBiochemistryBioengineeringBiomaterialsPolymer ChemistryTissue EngineeringBioceramicsBiomaterial CharacterizationBiomaterials For Tissue EngineeringCollagen-based BiomaterialsComposite BiomaterialsChitosan-based BiomaterialsCollagen FilmsCollagen-chitosan CompositesFourier Transform Infrared SpectroscopyMarine Collagen BiomaterialsNutraceutical ProductionTensile StrengthTriple Helix Structure
). The ASC and PSC yields were 23.07% and 35.27% dry weight, respectively and were identified as collagen Type I with the presence of α, β and γ chains. As revealed by the Fourier Transform Infrared (FTIR) spectra analysis, pepsin did not alter the PSC triple helix structure. Based on the various type of collagen yield, only PSC was used in combination with chitosan to produce a composite film. Such film had lower tensile strength but higher elongation at break when compared to chitosan film; and lower water solubility and lightness when compared to collagen film. Equally, FTIR spectra analysis of film composite showed the occurrence of collagen-chitosan interaction resulting in a modification of the secondary structure of collagen. Collagen-chitosan-based biofilm showed a potential UV barrier properties and antioxidant activity, which might be used as green bioactive films to preserve nutraceutical products.
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Cleavage of Structural Proteins during the Assembly of the Head of Bacteriophage T4
Ulrich K. Laemmli · Nature · 1970 · 251.6K citations
Haider Raza, Annie John, Abderrahim Nemmar · Cellular Physiology and Biochemistry · 2013 · 47.3K citations · Full text
A novel progressive spongiform encephalopathy in cattle
G. Wells, A. C. Scott, Caroline S. Johnson et al. · Veterinary Record · 1987 · 1.1K citations