In Silico Prediction and In Vitro Assessment of Multifunctional Properties of Postbiotics Obtained From Two Probiotic Bacteria.
J E Aguilar-ToaláF G HallU C Urbizo-ReyesH S GarciaB Vallejo-CordobaA F González-CórdovaA Hernández-MendozaAndrea M LiceagaPublished in: Probiotics and antimicrobial proteins (2021)
In this study, a global metabolite profile using Raman spectroscopy analysis was obtained in order to predict, by an in silico prediction of activity spectra for substance approach, the bioactivities of the intracellular content (IC) and cell wall (CW) fractions obtained from Lactobacillus casei CRL 431 and Bacillus coagulans GBI-30 strains. Additionally, multifunctional in vitro bioactivity of IC and CW fractions was also assessed. The metabolite profile revealed a variety of compounds (fatty acids, amino acids, coenzyme, protein, amino sugars), with significant probable activities (Pa > 0.7) as immune-stimulant, anti-inflammatory, neuroprotective, antiproliferative, immunomodulator, and antineoplastic, among others. Moreover, in vitro assays exhibited that both IC and CW fractions presented angiotensin-converting enzyme-inhibitory (> 90%), chelating (> 79%), and antioxidant (ca. 22-57 cellular antioxidant activity units) activities. Our findings based on in silico and in vitro analyses suggest that L. casei CRL 431 and B. coagulans GBI-30 strains appear to be promising sources of postbiotics and may impart health benefits by their multifunctional properties.
Keyphrases
- raman spectroscopy
- angiotensin converting enzyme
- anti inflammatory
- cell wall
- drug delivery
- molecular docking
- cancer therapy
- amino acid
- angiotensin ii
- escherichia coli
- fatty acid
- healthcare
- metal organic framework
- public health
- attention deficit hyperactivity disorder
- mental health
- oxidative stress
- high throughput
- molecular dynamics simulations
- health information
- drinking water
- single cell
- density functional theory
- social media
- molecular dynamics
- protein kinase
- autism spectrum disorder
- blood brain barrier
- risk assessment
- reactive oxygen species
- subarachnoid hemorrhage