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Nanomedicine (Lond) ; 10(13): 2051-61, 2015.
Article in English | MEDLINE | ID: mdl-25953069

ABSTRACT

AIM: The in vivo study on imprinting control region mice aims to show that magnetoelectric nanoparticles may directly couple the intrinsic neural activity-induced electric fields with external magnetic fields. METHODS: Approximately 10 µg of CoFe2O4-BaTiO3 30-nm nanoparticles have been intravenously administrated through a tail vein and forced to cross the blood-brain barrier via a d.c. field gradient of 3000 Oe/cm. A surgically attached two-channel electroencephalography headmount has directly measured the modulation of intrinsic electric waveforms by an external a.c. 100-Oe magnetic field in a frequency range of 0-20 Hz. RESULTS: The modulated signal has reached the strength comparable to that due the regular neural activity. CONCLUSION: The study opens a pathway to use multifunctional nanoparticles to control intrinsic fields deep in the brain.


Subject(s)
Barium Compounds/chemistry , Brain/physiology , Cobalt/chemistry , Electroencephalography/methods , Ferric Compounds/chemistry , Magnets/chemistry , Nanoparticles/chemistry , Titanium/chemistry , Animals , Barium Compounds/analysis , Barium Compounds/metabolism , Blood-Brain Barrier/physiology , Cobalt/analysis , Cobalt/metabolism , Electromagnetic Fields , Female , Ferric Compounds/analysis , Ferric Compounds/metabolism , Magnets/analysis , Mice , Nanoparticles/administration & dosage , Nanoparticles/analysis , Nanoparticles/metabolism , Nanoparticles/ultrastructure , Titanium/analysis , Titanium/metabolism
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