MedElevator Войти в исследования
← Поиск публикаций

DOI 10.1080/19490976.2026.2743949

Медицинская библиотека · Gut microbes · 2026

Synbiotic supplementation leads to gut microbiome communities with functional capacity linked to better brain white matter development in preterm infants.

Voulgari-Kokota Anna, Janson Els, Heikamp de Jong Ineke, Knol Jan, van Elburg Ruurd, van der Aa Niek E, Hortensius Lisa M, Dudink Jeroen, de Theije Caroline G M, Schipper Lidewij, Kozior Marta, van de Lagemaat Monique, Groenendaal Floris, van Bel Frank, Wildt-Grootendorst Annemieke, Drost-Verhoef Sandra, Hennink Annelies, Obihara Charlie C, van Hillegersberg-Schilder Jacqueline L A M, Dassel Carin M, Oudshoorn Johanna H, Meijssen Clemens B, de Boer Inge P, Illy Károly E, Claessens Nathalie, Viergever Max A, Isgum Ivana, Shetty Sudarshan, Wopereis Harm, Benders Manon, Belzer Clara

СтатьяРандомизированное исследованиеПеревод пока не подготовлен

Аннотация

Preterm birth, a major cause of brain injury, is often linked to dysregulated gut microbiome development. This association underscores microbial metabolic function as a modifiable target to support neurodevelopment. In this secondary analysis of data derived from a randomized controlled trial (Trial Registration: ISRCTN96620855), we tested whether daily nutritional supplementation with Bifidobacterium breve M-16V, short- and long-chain oligosaccharides, and L-glutamine could steer the gut microbiome of very and extremely preterm infants toward communities that support brain maturation. The gut microbiome was profiled with longitudinal shotgun metagenomics at nine time points during the intervention, which started at 48-72 h after birth and continued until 36 weeks postmenstrual age. Additionally, MRI scans were conducted when infants reached term-equivalent age to evaluate brain maturation. Supplementation promoted the early establishment of Bifidobacterium-rich communities in the test group, with enhanced capacity for amino acid biosynthesis and pyruvate fermentation towards acetate and lactate production. Integration of microbiome data with brain developmental markers post hoc showed that the same functions were markedly reduced in infants with delayed white-matter myelination. By integrating microbiome functional capacity profiling and evaluation of brain maturation via MRI, this study demonstrated that early microbial modulation could influence brain development, positioning the preterm gut microbiome as a clinically actionable target.

Для цитирования: Voulgari-Kokota Anna, Janson Els, Heikamp de Jong Ineke, Knol Jan, van Elburg Ruurd, van der Aa Niek E, Hortensius Lisa M, Dudink Jeroen, de Theije Caroline G M, Schipper Lidewij, Kozior Marta, van de Lagemaat Monique, Groenendaal Floris, van Bel Frank, Wildt-Grootendorst Annemieke, Drost-Verhoef Sandra, Hennink Annelies, Obihara Charlie C, van Hillegersberg-Schilder Jacqueline L A M, Dassel Carin M, Oudshoorn Johanna H, Meijssen Clemens B, de Boer Inge P, Illy Károly E, Claessens Nathalie, Viergever Max A, Isgum Ivana, Shetty Sudarshan, Wopereis Harm, Benders Manon, Belzer Clara. Synbiotic supplementation leads to gut microbiome communities with functional capacity linked to better brain white matter development in preterm infants.. Gut microbes. 2026. DOI: 10.1080/19490976.2026.2743949.

Предметные рубрики MeSH

Подготовка и перевод публикации
Обработка статьи · этапы, ошибки и управление
Загрузка состояния…

История · было → стало

Состояние обновляется каждые 5 секунд, пока блок открыт. Процент показывается только там, где известен объём работы. Пауза останавливает продолжение этапа; текущий запрос к источнику может завершиться.

Тип публикации указан по данным источника. Уровень доказательности автоматически не присваивается.