Galvanin (TMEM154) is an electric-field sensor for directed cell migration

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Authors: Nathan M. Belliveau, Matthew J. Footer, Amy Platenkamp, Celeste Rodriguez, Heonsu Kim, Christopher K. Prinz, Aaron P. van Loon, Yubin Lin, Tara E. Eustis, Michelle M. Chan, Daniel J. Cohen, Julie A. Theriot
Cited by: 7
References: 93

Abstract

Directed migration of immune and epithelial cells is critical for rapid responses to tissue injury or infection. Endogenous electric fields, generated by disruption of the transepithelial potential across the skin, are thought to guide cells to wound sites. However, how single cells detect these electrical cues remains unclear. We identified Galvanin (TMEM154), a poorly characterized single-pass transmembrane protein, as required for electric-field-guided migration of rapidly moving cells. Expression of Galvanin is sufficient to confer electric-field-guided migration on otherwise non-responsive epithelial cells. Upon electric-field exposure, Galvanin rapidly relocalizes to the anodal side of cells, and in human neutrophils, relocalization is immediately followed by changes in spatial patterns of cellular protrusion and retraction. These data suggest Galvanin acts as a direct sensor of the electric field, transducing spatial information about a cell's electrical environment to the intracellular migratory apparatus to support directed cell migration.

Fields of Study & Subjects

Planarian Biology and Electrostimulation Microbial Inactivation Methods Electromagnetic Fields and Biological Effects

Publication details

Journal / source
Cell
Publisher
Elsevier BV
Volume
189
Issue
13
Pages
4107–4121.e22
Publication date
12 May 2026
Language
EN