• DocumentCode
    2775545
  • Title

    Magnetic Microactuators for MEMS-Enabled Ventricular Catheters for Hydrocephalus

  • Author

    Lee, Selene A. ; Pinney, James R. ; Bergsneider, Marvin ; Judy, Jack W.

  • Author_Institution
    NeuroEngineering Training Program, California Univ., Los Angeles, CA
  • fYear
    2007
  • fDate
    2-5 May 2007
  • Firstpage
    65
  • Lastpage
    68
  • Abstract
    The most common treatment for patients with hydrocephalus is the surgical implantation of a cerebrospinal-fluid (CSF) shunt. A leading cause of shunt failure is the obstruction of the ventricular catheter. The goal of this project is to design a ventricular catheter that will resist occlusion through the use of micromachining and micro-electro-mechanical systems (MEMS) technologies. We designed, fabricated, and tested a second-generation magnetic microactuator. The preliminary results show that the fabricated microactuators can produce the force necessary to break an adherent cellular layer grown over the microactuator surface.
  • Keywords
    catheters; diseases; electromagnetic actuators; microactuators; micromachining; patient treatment; prosthetics; MEMS-enabled ventricular catheters; adherent cellular layer; cerebrospinal-fluid shunt; hydrocephalus; magnetic microactuators; micromachining; patient treatment; surgical implantation; Catheters; Medical treatment; Microactuators; Microelectromechanical systems; Micromachining; Micromagnetics; Micromechanical devices; Resists; Surgery; Testing; MEMS; hydrocephalus; magnetic microactuator; ventricular catheter;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    Neural Engineering, 2007. CNE '07. 3rd International IEEE/EMBS Conference on
  • Conference_Location
    Kohala Coast, HI
  • Print_ISBN
    1-4244-0792-3
  • Electronic_ISBN
    1-4244-0792-3
  • Type

    conf

  • DOI
    10.1109/CNE.2007.369613
  • Filename
    4227218