Literature DB >> 17585969

Rats avoid high magnetic fields: dependence on an intact vestibular system.

Thomas A Houpt1, Jennifer A Cassell, Christina Riccardi, Megan D DenBleyker, Alison Hood, James C Smith.   

Abstract

High strength static magnetic fields are thought to be benign and largely undetectable by mammals. As magnetic resonance imaging (MRI) machines increase in strength, however, potential aversive effects may become clinically relevant. Here we report that rats find entry into a 14.1 T magnet aversive, and that they can detect and avoid entry into the magnet at a point where the magnetic field is 2 T or lower. Rats were trained to climb a ladder through the bore of a 14.1 T superconducting magnet. After their first climb into 14.1 T, most rats refused to re-enter the magnet or climb past the 2 T field line. This result was confirmed in a resistive magnet in which the magnetic field was varied from 1 to 14 T. Detection and avoidance required the vestibular apparatus of the inner ear, because labyrinthectomized rats readily traversed the magnet. The inner ear is a novel site for magnetic field transduction in mammals, but perturbation of the vestibular apparatus would be consistent with human reports of vertigo and nausea around high strength MRI machines.

Entities:  

Mesh:

Year:  2007        PMID: 17585969      PMCID: PMC2756722          DOI: 10.1016/j.physbeh.2007.05.062

Source DB:  PubMed          Journal:  Physiol Behav        ISSN: 0031-9384


  20 in total

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4.  Atoxyl-induced damage to the sensory cells in the organ of Corti in the guinea pig cochlea.

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Authors:  Thomas A Houpt; David W Pittman; Jan M Barranco; Erin H Brooks; James C Smith
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Authors:  Bryan K Ward; Dale C Roberts; Charles C Della Santina; John P Carey; David S Zee
Journal:  Ann N Y Acad Sci       Date:  2015-03-03       Impact factor: 5.691

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6.  c-Fos induction by a 14 T magnetic field in visceral and vestibular relays of the female rat brainstem is modulated by estradiol.

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Review 7.  Toward 20 T magnetic resonance for human brain studies: opportunities for discovery and neuroscience rationale.

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8.  Initial in vivo rodent sodium and proton MR imaging at 21.1 T.

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10.  Long-term behavioral effects observed in mice chronically exposed to static ultra-high magnetic fields.

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