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1.
Nutr Clin Pract ; 39(2): 311-329, 2024 Apr.
Artículo en Inglés | MEDLINE | ID: mdl-37466413

RESUMEN

The involvement of the commensal microbiota in immune function is a multifold process. Biotics, such as probiotics, prebiotics, synbiotics, and paraprobiotics, have been subjected to animal and human trials demonstrating the association between gut microbes and immunity biomarkers leading to improvement in overall health. In recent years, studies on human microbiome interaction have established the multifarious role of biotics in maintaining overall health. The consumption of biotics has been extensively reported to help in maintaining microbial diversity, enhancing gut-associated mucosal immune homeostasis, and providing protection against a wide range of lifestyle disorders. However, the establishment of biotics as an alternative therapy for a range of health conditions is yet to be ascertained. Despite the fact that scientific literature has demonstrated the correlation between biotics and immune modulation, most in vivo and in vitro reports are inconclusive on the dosage required. This review provides valuable insights into the immunomodulatory effects of biotics consumption based on evidence obtained from animal models and clinical trials. Furthermore, we highlight the optimal dosages of biotics that have been reported to deliver maximum health benefits. By identifying critical research gaps, we have suggested a roadmap for future investigations to advance our understanding of the intricate crosstalk between biotics and immune homeostasis.


Asunto(s)
Microbioma Gastrointestinal , Probióticos , Simbióticos , Animales , Humanos , Prebióticos , Probióticos/uso terapéutico , Inmunidad
2.
J Sci Food Agric ; 101(8): 3422-3428, 2021 Jun.
Artículo en Inglés | MEDLINE | ID: mdl-33289115

RESUMEN

BACKGROUND: Fruit and vegetable consumption has increased due to their tremendous health benefits. However, recent studies have shown that contaminated products may serve as vehicles for foodborne pathogens and harmful chemicals. Therefore, fresh vegetables must be decontaminated before consumption to ensure food safety. RESULTS: In this study, the combined decontamination treatment of lactic acid (2.5 mL L-1 ) and ozone (9 mg L-1 ) for 10 min showed better efficacy in the removal of contaminants from fresh vegetables as compared to individual treatments. The combined treatment resulted in a reduction of 1.5-3.5 log CFU of native mesophilic bacteria per gram and 1.6-2.9 log CFU of artificially inoculated Escherichia coli per gram from tomato, cucumber, carrot and lettuce. The combined treatment also removed spiked pesticides, which represent artificial chemical contamination (28-97% chlorpyrifos and 62-100% λ-cyhalothrin residues), from fresh vegetables. No significant difference (P > 0.05) in various sensory attributes of vegetables was observed between untreated and treated (lactic acid and ozone) vegetables. CONCLUSIONS: The combination treatment provides a novel approach to target two groups of contaminants using a single procedure. The combination treatment can be used as an alternative to currently used decontamination techniques for the supply of safe vegetables to consumers. © 2020 Society of Chemical Industry.


Asunto(s)
Conservación de Alimentos/métodos , Conservantes de Alimentos/farmacología , Ácido Láctico/farmacología , Ozono/farmacología , Plaguicidas/análisis , Verduras/química , Verduras/microbiología , Bacterias/efectos de los fármacos , Bacterias/crecimiento & desarrollo , Daucus carota/química , Daucus carota/efectos de los fármacos , Daucus carota/microbiología , Contaminación de Alimentos/análisis , Frutas/química , Frutas/efectos de los fármacos , Frutas/microbiología , Lactuca/química , Lactuca/microbiología , Solanum lycopersicum/química , Solanum lycopersicum/efectos de los fármacos , Solanum lycopersicum/microbiología , Verduras/efectos de los fármacos
3.
Z Naturforsch C J Biosci ; 57(9-10): 828-35, 2002.
Artículo en Inglés | MEDLINE | ID: mdl-12440720

RESUMEN

Curcumin removed turmeric oleoresin (CRTO) was extracted with hexane concentrated to get turmeric oil, and that was fractionated using silica gel column chromatography to obtain three fractions. These fractions were analyzed by GC and GC-MS. Turmeric oil contained aromatic turmerone (31.32%), turmerone (15.08%) and curlone (9.7%), whereas fractions III has aromatic turmerone (44.5%), curlone (19.22%) and turmerone (10.88%) as major compounds Also, oxygenated compounds (5,6,8-10) were enriched in fraction III. Turmeric oil and its fractions were tested for antioxidant activity using the beta-carotene-linoleate model system and the phosphomolybdenum method. The fraction III showed maximum antioxidant capacity. These fractions were also used to determine their protective effect against the mutagenicity of sodium azide by means of the Ames test. All the fractions and turmeric oil exhibited a markedly antimutagenicity but fraction III was the most effective. The antioxidant effects of turmeric oil and its fractions may provide an explanation for their antimutagenic action.


Asunto(s)
Antimutagênicos/farmacología , Antioxidantes/farmacología , Curcuma , Curcumina/aislamiento & purificación , Aceites de Plantas/farmacología , Antibacterianos/farmacología , Hidroxianisol Butilado/farmacología , Cromatografía de Gases , Curcumina/análogos & derivados , Cromatografía de Gases y Espectrometría de Masas , Pruebas de Sensibilidad Microbiana , Aceites de Plantas/química , Aceites de Plantas/aislamiento & purificación , Salmonella typhimurium/efectos de los fármacos , Relación Estructura-Actividad
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