bioRxivBiophysicsPreprint
The neuron as a temporal electroacoustic medium
Abstract
The human brain is one of the most complex and intriguing scientific topics. The most established theory on neuronal communication is a pure electrical model based on the propagation of intracell cationic charges along the neurons. Here we propose a complementary model based on two properties of brain communication: A) The Coulomb interaction associated to the Action Potential (AP) pulse induces a deformation of the neuron membrane which travels as an acoustic signal, i.e.: The ions play an essential role and the electric and acoustic signals, composing the AP, are strongly correlated. B) As brain communication is stablished through a periodic train of AP pulses it induces a time periodic modulation of the acoustic parameters. In this framework we propose envisaging the neuron as a temporal electro-acoustic medium. The temporal varying media framework could help understanding brain conundrums such as propagation routes involved in the neuronal plasticity in the consolidation of the memory, as well as on the generation of the signals associated to the brain field theory.
Reproducibility ledger
Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.
Sign in to file a reproducibility report.
Related papers
- On the delay in propagation of action potentials
- Functional distinction between ionic and electric ephaptic effects on neuronal firing dynamics
Eirill Hauge, Marte Julie Sætra, … Geir Halnes·bioRxiv·Mar 30, 2026
- Non-invasive in vivo acoustoelectric neuromodulation and its contribution to ultrasound stimulation
Jean L. Rintoul, Christopher Butler, … Nir Grossman·Nature CommunicationsPeer-reviewed·Jun 17, 2026
- A topological method of generating action potentials and EEG oscillations in a surface network
Siddhartha Sen·bioRxiv·Jun 25, 2022
- Oligodendrocyte-mediated Myelin Plasticity and its role in Neural Synchronization
Sinisa Pajevic, Dietmar Plenz, … R. Douglas Fields·eLifePeer-reviewed·Mar 23, 2023
- Extracellular and intracellular components of the impedance of neural tissue
Claude Bedard, Charlotte Piette, … Alain Destexhe A·Biophysical JournalPeer-reviewed·Feb 16, 2022