Effects of extensive protein hydrolysate in supporting intestinal barrier function in vitro

Extensively hydrolyzed proteins (eHP) derived from cow's milk improve intestinal barrier function and cell viability in a fetal organoid-derived model of premature human intestine. This is the first study to assess the functional and transcriptomic impact of eHP on primary intestinal epithelial cells derived from fetal organoids, a highly relevant model for preterm gut physiology. It demonstrates that eHP-unlike intact proteins or free amino acids-can mitigate inflammation-induced permeability and modulate pathways involved in epithelial proliferation and repair (e.g., NOTCH, WNT, E2F, G2M checkpoint). These findings highlight the potential of eHP as a nutritional strategy to enhance gut integrity and limit inflammatory damage in preterm infants, who are at high risk of intestinal complications such as NEC. This study paves the way for further mechanistic and clinical research on how peptide-based formulas might support immature gut function and reduce extraintestinal risks.

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Publication Details

Journal
Pediatric Research
Published
2026-01-21
DOI
https://doi.org/10.1038/s41390-025-04680-z
Primary Topic
Infant Nutrition and Health
Type
article
Field-Weighted Citation Impact
0.00

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article

Effects of extensive protein hydrolysate in supporting intestinal barrier function in vitro

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Pediatric Research
Infant Nutrition and Health
article

Effects of extensive protein hydrolysate in supporting intestinal barrier function in vitro

Ruth Simmons, Valentina Bozzetti, A. Fasano, Ruslan I. Sadreyev, Murat Çetinbaş, Rachel A. Brosnan, Gabriele Gross, Tina Tran, Teresa Murguia- Peniche, Smriti Verna
article en

Abstract

Extensively hydrolyzed proteins (eHP) derived from cow's milk improve intestinal barrier function and cell viability in a fetal organoid-derived model of premature human intestine. This is the first study to assess the functional and transcriptomic impact of eHP on primary intestinal epithelial cells derived from fetal organoids, a highly relevant model for preterm gut physiology. It demonstrates that eHP-unlike intact proteins or free amino acids-can mitigate inflammation-induced permeability and modulate pathways involved in epithelial proliferation and repair (e.g., NOTCH, WNT, E2F, G2M checkpoint). These findings highlight the potential of eHP as a nutritional strategy to enhance gut integrity and limit inflammatory damage in preterm infants, who are at high risk of intestinal complications such as NEC. This study paves the way for further mechanistic and clinical research on how peptide-based formulas might support immature gut function and reduce extraintestinal risks.

Pediatric Research
Vita-Salute San Raffaele University (IT), Mead Johnson (United States) (US), Massachusetts General Hospital (US), IRCCS Ospedale San Raffaele (IT), Indiana University (US)
Mead Johnson Nutrition
Zero hunger
Openalex Percentile: Top 81%
Infant Nutrition and Health
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