Synergism and phenolic bioaccessibility during in vitro co‐digestion of cooked cowpea with orange juice
Summary Foods are susceptible to matrix interferences during the gastrointestinal transit that can affect bioactive molecules. We proposed in vitro co‐digestion of cowpea beans and orange juice to assess polyphenols bioaccessibility and synergisms. We performed gastrointestinal simulation combining...
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Published in: | International journal of food science & technology Vol. 58; no. 8; pp. 4476 - 4484 |
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01-08-2023
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Abstract | Summary
Foods are susceptible to matrix interferences during the gastrointestinal transit that can affect bioactive molecules. We proposed in vitro co‐digestion of cowpea beans and orange juice to assess polyphenols bioaccessibility and synergisms. We performed gastrointestinal simulation combining beans and a fruit beverage, to mimic a common meal in a more realistic set‐up than the usual single‐food models. Twenty phenolic compounds were released in oral, gastric and intestinal compartments and were identified by HPLC‐DAD. Gallic acid, (−)‐epicatechin and chlorogenic acid were the most bioaccessible polyphenols. Cooking and solvent extraction of cowpea beans affected their polyphenolic concentrations. After digestion, the bioaccessibility indexes were higher for cowpea (136.11%) and cooked cowpea (744.74%) when compared to orange juice (31.87%) indicating that the thermal treatment enhanced the bioaccessibility of cowpea phenolics. The antioxidant capacity was higher in the end of co‐digestion compared to cooked cowpea and orange juice digested alone due to synergistic polyphenol‐polyphenol interactions or polyphenol‐protein interactions. The combination of orange juice with cooked cowpea in co‐digestion promoted high content of some bioaccessible phenolics, with 10 out of 20 compounds showing positive interactions at the intestinal phase, suggesting that food synergisms are not neglectable for beans and citrus polyphenols release during the digestion course.
The combination of orange juice with cooked cowpea in co‐digestion promoted high content of some bioaccessible phenolics during gastrointestinal simulation, suggesting food components synergism. |
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AbstractList | Foods are susceptible to matrix interferences during the gastrointestinal transit that can affect bioactive molecules. We proposed
in vitro
co‐digestion of cowpea beans and orange juice to assess polyphenols bioaccessibility and synergisms. We performed gastrointestinal simulation combining beans and a fruit beverage, to mimic a common meal in a more realistic set‐up than the usual single‐food models. Twenty phenolic compounds were released in oral, gastric and intestinal compartments and were identified by HPLC‐DAD. Gallic acid, (−)‐epicatechin and chlorogenic acid were the most bioaccessible polyphenols. Cooking and solvent extraction of cowpea beans affected their polyphenolic concentrations. After digestion, the bioaccessibility indexes were higher for cowpea (136.11%) and cooked cowpea (744.74%) when compared to orange juice (31.87%) indicating that the thermal treatment enhanced the bioaccessibility of cowpea phenolics. The antioxidant capacity was higher in the end of co‐digestion compared to cooked cowpea and orange juice digested alone due to synergistic polyphenol‐polyphenol interactions or polyphenol‐protein interactions. The combination of orange juice with cooked cowpea in co‐digestion promoted high content of some bioaccessible phenolics, with 10 out of 20 compounds showing positive interactions at the intestinal phase, suggesting that food synergisms are not neglectable for beans and citrus polyphenols release during the digestion course. Foods are susceptible to matrix interferences during the gastrointestinal transit that can affect bioactive molecules. We proposed in vitro co‐digestion of cowpea beans and orange juice to assess polyphenols bioaccessibility and synergisms. We performed gastrointestinal simulation combining beans and a fruit beverage, to mimic a common meal in a more realistic set‐up than the usual single‐food models. Twenty phenolic compounds were released in oral, gastric and intestinal compartments and were identified by HPLC‐DAD. Gallic acid, (−)‐epicatechin and chlorogenic acid were the most bioaccessible polyphenols. Cooking and solvent extraction of cowpea beans affected their polyphenolic concentrations. After digestion, the bioaccessibility indexes were higher for cowpea (136.11%) and cooked cowpea (744.74%) when compared to orange juice (31.87%) indicating that the thermal treatment enhanced the bioaccessibility of cowpea phenolics. The antioxidant capacity was higher in the end of co‐digestion compared to cooked cowpea and orange juice digested alone due to synergistic polyphenol‐polyphenol interactions or polyphenol‐protein interactions. The combination of orange juice with cooked cowpea in co‐digestion promoted high content of some bioaccessible phenolics, with 10 out of 20 compounds showing positive interactions at the intestinal phase, suggesting that food synergisms are not neglectable for beans and citrus polyphenols release during the digestion course. Summary Foods are susceptible to matrix interferences during the gastrointestinal transit that can affect bioactive molecules. We proposed in vitro co‐digestion of cowpea beans and orange juice to assess polyphenols bioaccessibility and synergisms. We performed gastrointestinal simulation combining beans and a fruit beverage, to mimic a common meal in a more realistic set‐up than the usual single‐food models. Twenty phenolic compounds were released in oral, gastric and intestinal compartments and were identified by HPLC‐DAD. Gallic acid, (−)‐epicatechin and chlorogenic acid were the most bioaccessible polyphenols. Cooking and solvent extraction of cowpea beans affected their polyphenolic concentrations. After digestion, the bioaccessibility indexes were higher for cowpea (136.11%) and cooked cowpea (744.74%) when compared to orange juice (31.87%) indicating that the thermal treatment enhanced the bioaccessibility of cowpea phenolics. The antioxidant capacity was higher in the end of co‐digestion compared to cooked cowpea and orange juice digested alone due to synergistic polyphenol‐polyphenol interactions or polyphenol‐protein interactions. The combination of orange juice with cooked cowpea in co‐digestion promoted high content of some bioaccessible phenolics, with 10 out of 20 compounds showing positive interactions at the intestinal phase, suggesting that food synergisms are not neglectable for beans and citrus polyphenols release during the digestion course. The combination of orange juice with cooked cowpea in co‐digestion promoted high content of some bioaccessible phenolics during gastrointestinal simulation, suggesting food components synergism. |
Author | Arcari, Stefany Grutzmann Fabiane, Keli Cristina Honaiser, Tuany Camila Arisi, Ana Carolina Maisonnave Fedrigo, Isabela Maia Toaldo Rocha, Maurisrael de Moura |
Author_xml | – sequence: 1 givenname: Tuany Camila orcidid: 0000-0003-0618-8182 surname: Honaiser fullname: Honaiser, Tuany Camila organization: Federal Institute of Santa Catarina – sequence: 2 givenname: Stefany Grutzmann orcidid: 0000-0001-7327-3024 surname: Arcari fullname: Arcari, Stefany Grutzmann organization: Federal Institute of Santa Catarina – sequence: 3 givenname: Keli Cristina orcidid: 0000-0002-5151-6221 surname: Fabiane fullname: Fabiane, Keli Cristina organization: Federal Institute of Santa Catarina – sequence: 4 givenname: Maurisrael de Moura orcidid: 0000-0001-5817-2794 surname: Rocha fullname: Rocha, Maurisrael de Moura organization: Embrapa Meio‐Norte – sequence: 5 givenname: Isabela Maia Toaldo orcidid: 0000-0001-6786-4901 surname: Fedrigo fullname: Fedrigo, Isabela Maia Toaldo organization: Federal University of Santa Catarina – sequence: 6 givenname: Ana Carolina Maisonnave orcidid: 0000-0001-6077-7960 surname: Arisi fullname: Arisi, Ana Carolina Maisonnave email: ana.arisi@ufsc.br organization: Federal University of Santa Catarina |
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Foods are susceptible to matrix interferences during the gastrointestinal transit that can affect bioactive molecules. We proposed in vitro... Foods are susceptible to matrix interferences during the gastrointestinal transit that can affect bioactive molecules. We proposed in vitro co‐digestion of... Foods are susceptible to matrix interferences during the gastrointestinal transit that can affect bioactive molecules. We proposed in vitro co‐digestion of... |
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SubjectTerms | Antioxidant capacity Beans bioactive compounds Bioavailability Chlorogenic acid Cowpeas Digestion Epicatechin Food Fruit juices Fruits Gallic acid gastrointestinal simulation Heat treatment Intestine Juices legumes Liquid chromatography Oranges Phenolic compounds Phenols Polyphenols Protein interaction Solvent extraction Synergism Vegetables Vigna unguiculata |
Title | Synergism and phenolic bioaccessibility during in vitro co‐digestion of cooked cowpea with orange juice |
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