Nutrición Hospitalaria 04451
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http://dx.doi.org/10.20960/nh.04451
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Trabajo Original
Efecto antiinflamatorio del suero de leche de diferentes especies tras una digestión in vitro
Teresa Sánchez-Moya, Siham Ydjedd, Carmen Frontela-Saseta, Rubén López Nicolás, Gaspar Ros-Berruezo
Prepublicado: 2023-04-11
Publicado: 2023-06-12
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Introducción: existe una estrecha relación entre obesidad, salud intestinal y sistema inmune. Un bajo grado de inflamación, que precedería a la obesidad, puede tener implicaciones en el desarrollo de síndrome metabólico y resistencia a la insulina. Objetivo: analizar el poder antiinflamatorio de varios tipos de lactosuero (vaca, oveja, cabra y mezcla de los anteriores). Metodología: se utilizó un modelo in vitro de inflamación intestinal, empleando un cocultivo celular (Caco-2 y RAW 264.7). Para ello, se realizó una digestión y fermentación in vitro (simulando las condiciones de boca a colon). Se estudiaron IL-8 y TNF-α como marcadores inflamatorios y la resistencia eléctrica transepitelial celular (RETE) de la monocapa celular Caco-2. Resultados: el suero digerido y fermentado tuvo un efecto protector sobre la permeabilidad celular que fue menor en el caso de lactosuero fermentado de cabra y mezcla. La actividad antiinflamatoria del suero fue mayor cuanto más progresaba la digestión. El lactosuero fermentado mostró el mayor efecto antiinflamatorio, inhibiendo la secreción de IL-8 y TNF-α, probablemente debido a su composición (productos de degradación proteica como péptidos y aminoácidos, y ácidos grasos de cadena corta [AGCC]). Sin embargo, el suero fermentado de cabra no mostró ese grado de inhibición, quizás debido a su baja concentración en AGCC. Conclusión: el lactosuero, sobre todo tras ser fermentado en colon, puede ser una estrategia nutricional útil para preservar la barrera intestinal y mitigar el bajo grado de inflamación que caracteriza a desordenes metabólicos y a la obesidad.
Palabras Clave: Suero de leche. Digestión gastrointestinal. Fermentación colónica. Efecto antiinflamatorio. IL-8. TNF-α.
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