Structured evidence table for Probiotic Gut Barrier Meta-Analysis, generated from 2 reusable source documents in the Migaku knowledge base.
| topic | claim | evidence level | citation | source |
|---|---|---|---|---|
| Probiotic Gut Barrier Meta-Analysis | It is estimated that approximately 1% to 5% of couples of reproductive age experience RSA, with the risk increasing with advanced maternal age and the number of previous miscarriages (–). | 3 | Li Dan (2026) | Unraveling the intricate link: gut microbiota and recurrent spontaneous abortion |
| Probiotic Gut Barrier Meta-Analysis | RSA not only causes physical harm, such as uterine damage and increased risk of infection, but also leads to severe psychological stress, including depression, anxiety, and infertility-related distress (). | 3 | Li Dan (2026) | Unraveling the intricate link: gut microbiota and recurrent spontaneous abortion |
| Probiotic Gut Barrier Meta-Analysis | In recent years, emerging evidence has suggested a potential link between the gut microbiota and RSA, highlighting the gut microbiota-host axis as a novel area of research in reproductive medicine (,). | 3 | Li Dan (2026) | Unraveling the intricate link: gut microbiota and recurrent spontaneous abortion |
| Probiotic Gut Barrier Meta-Analysis | 1 3 4 Recurrent spontaneous abortion (RSA) is a distressing and complex medical condition that significantly impacts the physical and mental health of women. | 3 | Li Dan (2026) | Unraveling the intricate link: gut microbiota and recurrent spontaneous abortion |
| Probiotic Gut Barrier Meta-Analysis | This review adopts a systems-level perspective to synthesize emerging evidence on probiotic-driven gut–brain, gut–skin, gut–oral, and metabolic interactions, emphasizing shared mechanisms rather than isolated clinical outcomes. | 3 | Zalila-Kolsi Imen (2026) | Probiotics and the Human Microbiome: Classical Functions, Emerging Systemic Roles, and Future Therapeutic Frontiers |
| Probiotic Gut Barrier Meta-Analysis | In parallel, advances in encapsulation and delivery technologies have improved probiotic survival during gastrointestinal transit, thereby enhancing their functional efficacy within the gut. | 3 | Zalila-Kolsi Imen (2026) | Probiotics and the Human Microbiome: Classical Functions, Emerging Systemic Roles, and Future Therapeutic Frontiers |
| Probiotic Gut Barrier Meta-Analysis | rhamnosus 14 16 Functionally, experimental and clinical studies indicate that strain-specificspecies, such as,, and, regulate gut motility and carbohydrate metabolism, contributing to improved lactose digestion and alleviation of constipation and bloating []. | 3 | Zalila-Kolsi Imen (2026) | Probiotics and the Human Microbiome: Classical Functions, Emerging Systemic Roles, and Future Therapeutic Frontiers |
| Probiotic Gut Barrier Meta-Analysis | 1 2 3 4 5 Lactobacillus Bifidobacterium Enterococcus Streptococcus Saccharomyces boulardii, The term “probiotics,” which comes from the Greek word “for life,” refers to live microorganisms that, when given in sufficient quantities, promote the host’s health []. | 3 | Zalila-Kolsi Imen (2026) | Probiotics and the Human Microbiome: Classical Functions, Emerging Systemic Roles, and Future Therapeutic Frontiers |
Source documents