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dc.contributor.authorKunze, Anja
dc.contributor.authorMurray, Coleman Tylor
dc.contributor.authorGodzich, Chanya
dc.contributor.authorLin, Jonathan
dc.contributor.authorOwsley, Keegan
dc.contributor.authorTay, Andy
dc.contributor.authorDi Carlo, Dino
dc.date.accessioned2017-08-15T21:33:25Z
dc.date.available2017-08-15T21:33:25Z
dc.date.issued2017-02
dc.identifier.citationKunze, Anja, Coleman Tylor Murray, Chanya Godzich, Jonathan Lin, Keegan Owsley, Andy Tay, and Dino Di Carlo. "Modulating motility of intracellular vesicles in cortical neurons with nanomagnetic forces on-chip." Lab On A Chip 17, no. 5 (February 2017): 842-854. DOI: 10.1039/c6lc01349j.en_US
dc.identifier.issn1473-0189
dc.identifier.urihttps://scholarworks.montana.edu/xmlui/handle/1/13513
dc.description.abstractVesicle transport is a major underlying mechanism of cell communication. Inhibiting vesicle transport in brain cells results in blockage of neuronal signals, even in intact neuronal networks. Modulating intracellular vesicle transport can have a huge impact on the development of new neurotherapeutic concepts, but only if we can specifically interfere with intracellular transport patterns. Here, we propose to modulate motion of intracellular lipid vesicles in rat cortical neurons based on exogenously bioconjugated and cell internalized superparamagnetic iron oxide nanoparticles (SPIONs) within microengineered magnetic gradients on-chip. Upon application of 6-126 pN on intracellular vesicles in neuronal cells, we explored how the magnetic force stimulus impacts the motion pattern of vesicles at various intracellular locations without modulating the entire cell morphology. Altering vesicle dynamics was quantified using, mean square displacement, a caging diameter and the total traveled distance. We observed a de-acceleration of intercellular vesicle motility, while applying nanomagnetic forces to cultured neurons with SPIONs, which can be explained by a decrease in motility due to opposing magnetic force direction. Ultimately, using nanomagnetic forces inside neurons may permit us to stop the mis-sorting of intracellular organelles, proteins and cell signals, which have been associated with cellular dysfunction. Furthermore, nanomagnetic force applications will allow us to wirelessly guide axons and dendrites by exogenously using permanent magnetic field gradients.en_US
dc.titleModulating motility of intracellular vesicles in cortical neurons with nanomagnetic forces on-chipen_US
dc.typeArticleen_US
mus.citation.extentfirstpage842en_US
mus.citation.extentlastpage854en_US
mus.citation.issue5en_US
mus.citation.journaltitleLab On A Chipen_US
mus.citation.volume17en_US
mus.identifier.categoryEngineering & Computer Scienceen_US
mus.identifier.doi10.1039/c6lc01349jen_US
mus.relation.collegeCollege of Engineeringen_US
mus.relation.departmentElectrical & Computer Engineering.en_US
mus.relation.universityMontana State University - Bozemanen_US
mus.data.thumbpage3en_US


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