Thymosin alpha 1 exerts beneficial extrapulmonary effects in cystic fibrosis.
Bellet. Marina M MM; Borghi. Monica M; Pariano. Marilena M; Renga. Giorgia G; Stincardini. Claudia C; D'Onofrio. Fiorella F; Brancorsini. Stefano S; Garaci. Enrico E; Costantini. Claudio C; Romani. Luigina L
Key Findings
- Thymosin‑alpha‑1 restored intestinal barrier integrity and immune balance in inflamed gut of CF mice.
- The peptide also protected pancreas and liver tissue from damage in the same models.
- Similar gut‑protective and anti‑inflammatory effects were observed in mice with metabolic syndrome, a condition linked to high‑calorie diets.
Practical Outcomes
- For biohackers, this study hints that thymosin‑alpha‑1 could be explored as a systemic anti‑inflammatory supplement to support gut health, metabolic function, and organ protection. However, the data are limited to animal models, so any human use would be experimental and should be approached with caution, ideally under medical supervision.
Summary
In mice that have cystic fibrosis or metabolic‑syndrome‑like gut problems, the natural peptide thymosin‑alpha‑1 helped fix leaky gut, calm inflammation, and protect the pancreas and liver. These effects were seen beyond the lungs, suggesting the peptide can act as a broad anti‑inflammatory agent in the body.
Abstract
Cystic fibrosis (CF) is an autosomal recessive disorder caused by mutations in the gene encoding for the ion channel Cystic Fibrosis Transmembrane conductance Regulator (CFTR). Long considered a lung disease for the devastating impact on the respiratory function, the recent diagnostic and therapeutic advances have shed the light on the extra-pulmonary manifestations of CF, including gastrointestinal, hepatobiliary and pancreatic symptoms. We have previously demonstrated that thymosin alpha1 (Tα1), a naturally occurring immunomodulatory peptide, displays multi-sided beneficial effects in CF that concur in ameliorating the lung inflammatory pathology. In the present study, by resorting to murine models of gut inflammation with clinical relevance for CF patients, we demonstrate that Tα1 can also have beneficial effects in extrapulmonary pathology. Specifically, Tα1 restored barrier integrity and immune homeostasis in the inflamed gut of CF mice as well as in mice with the metabolic syndrome, a disorder that may arise in CF patients with high caloric intake despite pancreatic sufficiency. The protective effects of Tα1 also extended to pancreas and liver, further emphasizing the beneficial effects of Tα1 in extra-pulmonary complications of CF. By performing wide-ranging multi-organ anti-inflammatory effects, Tα1 could potentially integrate current therapeutic approaches to tackle the complex symptomatology of CF disease.
Study Information
pubmed
2020
2020-10-09T00:00:00.000Z
10.1016/j.ejmech.2020.112921
4
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