Protection of navy-bean bioactive peptides within nanoliposomes: morphological, structural and biological changes.
Nazila Zeynali NamdarLeila RoufegarinejadAinaz AlizadehNarmela AsefiSeid Mahdi JafariKhashayar SarabandiPublished in: Bioresources and bioprocessing (2023)
This study aimed to produce bioactive peptides from navy-bean protein with alcalase and pepsin enzymes (30-300 min) and to load them into a nanoliposome system to stabilize and improve their bioavailability. The degree of hydrolysis and biological activities (scavenging of DPPH, OH, and ABTS free radicals, reducing power, and chelating metal ions) of navy-bean protein were affected by the type of enzyme and hydrolysis time. The average particle size (83-116 nm), PDI (0.23-0.39), zeta potential (- 13 to - 20 mV), and encapsulation efficiency (80-91%) of nanoliposomes were influenced by the type and charge of peptides. The storage temperature and the type of loaded peptide greatly affected the physical stability of nanocarriers and maintaining EE during storage. The FTIR results suggested the effect of enzymatic hydrolysis on the secondary structures of protein and the effective placement of peptides inside polar-regions and the phospholipid monolayer membrane. SEM images showed relatively uniform-sized particles with irregular structures, which confirmed the results of DLS. The antioxidant activity of primary peptides affected the free radical scavenging of loaded nanoliposomes. Liposomes loaded with navy-bean peptides can be used as a health-giving formula in enriching all kinds of drinks, desserts, confectionery products, etc.
Keyphrases
- amino acid
- drug delivery
- cancer therapy
- mental health
- high resolution
- physical activity
- deep learning
- nitric oxide
- wound healing
- hydrogen peroxide
- mass spectrometry
- preterm infants
- machine learning
- fatty acid
- convolutional neural network
- small molecule
- human milk
- risk assessment
- low birth weight
- climate change
- ultrasound guided