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Main Authors: Anselmi, Chiara, Bocci, Tommaso, La Torre, Federico, Maiorana, Natale Vincenzo, De Lisa, Emanuela, Sabbadin, Giacomo, Vanni, Virginia, Consuma, Luca, Guidetti, Matteo, Manni, Lucia, Priori, Alberto
Format: Artículo científico
Language:en
Published: Neurobiology of disease 2026
Subjects:
Online Access:https://pubmed.ncbi.nlm.nih.gov/41663014/
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author Anselmi, Chiara
Bocci, Tommaso
La Torre, Federico
Maiorana, Natale Vincenzo
De Lisa, Emanuela
Sabbadin, Giacomo
Vanni, Virginia
Consuma, Luca
Guidetti, Matteo
Manni, Lucia
Priori, Alberto
author_facet Anselmi, Chiara
Bocci, Tommaso
La Torre, Federico
Maiorana, Natale Vincenzo
De Lisa, Emanuela
Sabbadin, Giacomo
Vanni, Virginia
Consuma, Luca
Guidetti, Matteo
Manni, Lucia
Priori, Alberto
Anselmi, Chiara
Bocci, Tommaso
La Torre, Federico
Maiorana, Natale Vincenzo
De Lisa, Emanuela
Sabbadin, Giacomo
Vanni, Virginia
Consuma, Luca
Guidetti, Matteo
Manni, Lucia
Priori, Alberto
collection PubMed - marine biology
contents Direct current stimulation (DCS) modulates gene expression related to human diseases in the marine chordate Botryllus schlosseri. Anselmi, Chiara Bocci, Tommaso La Torre, Federico Maiorana, Natale Vincenzo De Lisa, Emanuela Sabbadin, Giacomo Vanni, Virginia Consuma, Luca Guidetti, Matteo Manni, Lucia Priori, Alberto Animals Gene Expression Chordata Electric Stimulation Humans Heart Rate Brain Gene Expression Regulation Direct current stimulation (DCS) -i.e., the application of a static electric field to the brain through surface scalp electrodes- emerged as a novel therapy for neuropsychiatric disorders. In this study, DCS-induced changes in gene expression were assessed on Botryllus schlosseri, a ubiquitous simple colonial chordate living in temperate seas and sharing genetic remarkable similarities with mammals. Colonies underwent either sham or real DCS stimulation. Behavioral assessments, including the Siphon Stimulation Test and heart-rate measurements, were conducted before and at three intervals post-stimulation (3, 24, and 48 h). Gene expression was analyzed with sequencing reads via Trimmomatic®. Analysis of heart rate frequency revealed post-treatment differences between the groups immediately after stimulation (p = 0.001), with the effect decreasing over time. Real DCS differentially expressed 191 genes at three h post-DCS, 104 at 24 h, and 529 at 48 h. Our study introduces a novel pre-clinical model for DCS application demonstrating for the first in vivo time an after-effect on gene expression related to inflammation, human development, and neurodegeneration. To the best of our knowledge, this is the first paper addressing DCS effects on gene expression in a living animal model.
format Artículo científico
id pubmed_41663014
institution PubMed
language en
publishDate 2026
publisher Neurobiology of disease
record_format pubmed
spellingShingle Direct current stimulation (DCS) modulates gene expression related to human diseases in the marine chordate Botryllus schlosseri.
Anselmi, Chiara
Bocci, Tommaso
La Torre, Federico
Maiorana, Natale Vincenzo
De Lisa, Emanuela
Sabbadin, Giacomo
Vanni, Virginia
Consuma, Luca
Guidetti, Matteo
Manni, Lucia
Priori, Alberto
Animals
Gene Expression
Chordata
Electric Stimulation
Humans
Heart Rate
Brain
Gene Expression Regulation
Direct current stimulation (DCS) modulates gene expression related to human diseases in the marine chordate Botryllus schlosseri. Anselmi, Chiara Bocci, Tommaso La Torre, Federico Maiorana, Natale Vincenzo De Lisa, Emanuela Sabbadin, Giacomo Vanni, Virginia Consuma, Luca Guidetti, Matteo Manni, Lucia Priori, Alberto Animals Gene Expression Chordata Electric Stimulation Humans Heart Rate Brain Gene Expression Regulation Direct current stimulation (DCS) -i.e., the application of a static electric field to the brain through surface scalp electrodes- emerged as a novel therapy for neuropsychiatric disorders. In this study, DCS-induced changes in gene expression were assessed on Botryllus schlosseri, a ubiquitous simple colonial chordate living in temperate seas and sharing genetic remarkable similarities with mammals. Colonies underwent either sham or real DCS stimulation. Behavioral assessments, including the Siphon Stimulation Test and heart-rate measurements, were conducted before and at three intervals post-stimulation (3, 24, and 48 h). Gene expression was analyzed with sequencing reads via Trimmomatic®. Analysis of heart rate frequency revealed post-treatment differences between the groups immediately after stimulation (p = 0.001), with the effect decreasing over time. Real DCS differentially expressed 191 genes at three h post-DCS, 104 at 24 h, and 529 at 48 h. Our study introduces a novel pre-clinical model for DCS application demonstrating for the first in vivo time an after-effect on gene expression related to inflammation, human development, and neurodegeneration. To the best of our knowledge, this is the first paper addressing DCS effects on gene expression in a living animal model.
title Direct current stimulation (DCS) modulates gene expression related to human diseases in the marine chordate Botryllus schlosseri.
topic Animals
Gene Expression
Chordata
Electric Stimulation
Humans
Heart Rate
Brain
Gene Expression Regulation
url https://pubmed.ncbi.nlm.nih.gov/41663014/