Review of electrophysiological models to study membrane potential changes in breast cancer cell transformation and tumor progression

The transformation of normal breast cells into cancerous cells is a complex process influenced by both genetic and microenvironmental factors. Recent studies highlight the significant role of membrane potential (Vm) alterations in this transformation. Cancer cells typically exhibit a depolarized res...

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Main Authors: Chitaranjan Mahapatra, Arnaw Kishore, Jineetkumar Gawad, Ahmed Al-Emam, Riad Azzam Kouzeiha, Maher Ali Rusho
Format: Article
Language:English
Published: Frontiers Media S.A. 2025-03-01
Series:Frontiers in Physiology
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Online Access:https://www.frontiersin.org/articles/10.3389/fphys.2025.1536165/full
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author Chitaranjan Mahapatra
Arnaw Kishore
Jineetkumar Gawad
Ahmed Al-Emam
Riad Azzam Kouzeiha
Maher Ali Rusho
author_facet Chitaranjan Mahapatra
Arnaw Kishore
Jineetkumar Gawad
Ahmed Al-Emam
Riad Azzam Kouzeiha
Maher Ali Rusho
author_sort Chitaranjan Mahapatra
collection DOAJ
description The transformation of normal breast cells into cancerous cells is a complex process influenced by both genetic and microenvironmental factors. Recent studies highlight the significant role of membrane potential (Vm) alterations in this transformation. Cancer cells typically exhibit a depolarized resting membrane potential (RMP) compared to normal cells, which correlates with increased cellular activity and more aggressive cancer behavior. These RMP and Vm changes are associated with altered ion channel activity, altered calcium dynamics, mitochondrial dysfunction, modified gap junction communication, and disrupted signaling pathways. Such fluctuations in RMP and Vm influence key processes in cancer progression, including cell proliferation, migration, and invasion. Notably, more aggressive subtypes of breast cancer cells display more frequent and pronounced Vm fluctuations. Understanding the electrical properties of cancer cells provides new insights into their behavior and offers potential therapeutic targets, such as ion channels and Vm regulation. This review synthesizes current research on how various factors modulate membrane potential and proposes an electrophysiological model of breast cancer cells based on experimental and clinical data from the literature. These findings may pave the way for novel pharmacological targets for clinicians, researchers, and pharmacologists in treating breast cancer.
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publishDate 2025-03-01
publisher Frontiers Media S.A.
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series Frontiers in Physiology
spelling doaj-art-9f75daa7ed3f4b71be1c7d5322e1afb82025-08-20T03:15:30ZengFrontiers Media S.A.Frontiers in Physiology1664-042X2025-03-011610.3389/fphys.2025.15361651536165Review of electrophysiological models to study membrane potential changes in breast cancer cell transformation and tumor progressionChitaranjan Mahapatra0Arnaw Kishore1Jineetkumar Gawad2Ahmed Al-Emam3Riad Azzam Kouzeiha4Maher Ali Rusho5Paris Saclay Institute of Neuroscience, Paris Saclay University, Saclay, FranceMicrobiology and Immunology, Xavier University School of Medicine, Aruba, NetherlandsDepartment of Pharmaceutical Chemistry, VIVA Institute of Pharmacy, Virar, IndiaDepartment of Pathology, College of Medicine, King Khalid University, Asir, Saudi ArabiaFaculty of Medical Sciences, Lebanese University, Hadath Campus, Beirut, LebanonDepartment of Biomedical Engineering, University of Colorado Boulder, Boulder, CO, United StatesThe transformation of normal breast cells into cancerous cells is a complex process influenced by both genetic and microenvironmental factors. Recent studies highlight the significant role of membrane potential (Vm) alterations in this transformation. Cancer cells typically exhibit a depolarized resting membrane potential (RMP) compared to normal cells, which correlates with increased cellular activity and more aggressive cancer behavior. These RMP and Vm changes are associated with altered ion channel activity, altered calcium dynamics, mitochondrial dysfunction, modified gap junction communication, and disrupted signaling pathways. Such fluctuations in RMP and Vm influence key processes in cancer progression, including cell proliferation, migration, and invasion. Notably, more aggressive subtypes of breast cancer cells display more frequent and pronounced Vm fluctuations. Understanding the electrical properties of cancer cells provides new insights into their behavior and offers potential therapeutic targets, such as ion channels and Vm regulation. This review synthesizes current research on how various factors modulate membrane potential and proposes an electrophysiological model of breast cancer cells based on experimental and clinical data from the literature. These findings may pave the way for novel pharmacological targets for clinicians, researchers, and pharmacologists in treating breast cancer.https://www.frontiersin.org/articles/10.3389/fphys.2025.1536165/fullbreast cancermembrane potentialion channelsgap junctioncalcium dynamicselectrophysiological model
spellingShingle Chitaranjan Mahapatra
Arnaw Kishore
Jineetkumar Gawad
Ahmed Al-Emam
Riad Azzam Kouzeiha
Maher Ali Rusho
Review of electrophysiological models to study membrane potential changes in breast cancer cell transformation and tumor progression
Frontiers in Physiology
breast cancer
membrane potential
ion channels
gap junction
calcium dynamics
electrophysiological model
title Review of electrophysiological models to study membrane potential changes in breast cancer cell transformation and tumor progression
title_full Review of electrophysiological models to study membrane potential changes in breast cancer cell transformation and tumor progression
title_fullStr Review of electrophysiological models to study membrane potential changes in breast cancer cell transformation and tumor progression
title_full_unstemmed Review of electrophysiological models to study membrane potential changes in breast cancer cell transformation and tumor progression
title_short Review of electrophysiological models to study membrane potential changes in breast cancer cell transformation and tumor progression
title_sort review of electrophysiological models to study membrane potential changes in breast cancer cell transformation and tumor progression
topic breast cancer
membrane potential
ion channels
gap junction
calcium dynamics
electrophysiological model
url https://www.frontiersin.org/articles/10.3389/fphys.2025.1536165/full
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