Design of Silicon Based on Bio-Electrodes for Deep Brain Stimulation

Ge Qin; Taian Ren; Zhi Wei Wang

doi:10.4028/www.scientific.net/AMR.411.447

Paper Titles

Review of Fabrication Methods of Nanotube / Nanowire Devices
p.427

Mechanism and Effect of Charges Accumulation on Differential Capacitance Detector Diodes in MEMS Accelerometer
p.432

Research on Dynamic Coupling Characteristics of Electrostatic Actuated Micro Beam Considering Gas Film Damping
p.437

An Experimental Research of Gaseous Flow in Rough Microchannels
p.442

Design of Silicon Based on Bio-Electrodes for Deep Brain Stimulation
p.447

Ballistic Characteristics of Non-Silicon MEMS Inertial Trigger Switch
p.452

Failure Analysis and Design Improvements of MEMS Explosive Interrupter
p.456

Simulation and Analysis of Measurement Method for Projectile Axial Acceleration by MEMS Sensor
p.461

Achieving the Measurement of Tool Diameter by the Boundary Tracing Algorithm Based on Model
p.469

HomeAdvanced Materials ResearchAdvanced Materials Research Vol. 411Design of Silicon Based on Bio-Electrodes for Deep...

Design of Silicon Based on Bio-Electrodes for Deep Brain Stimulation

Abstract:

In the treatment of nerve disorders, bio-electrodes are used to be implanted into the patients’ deep brain to provide electrical stimulation to improve the symptom and deep brain stimulation has been regarded as the most effective method to treat nerve disorders in clinic medicine. This paper presented a simple structure of bio-electrode implanted in deep brain for long term stimulation. Based on a 3D finite element modeling of electrostatics for the electrode, the influence of the electrode dimensions on the electric field distribution was discussed. The dimension and structure of the electrode was determined on the volume of tissue activated by deep brain stimulation.

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Periodical:

Advanced Materials Research (Volume 411)

Pages:

447-451

DOI:

https://doi.org/10.4028/www.scientific.net/AMR.411.447

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Online since:

November 2011

Authors:

Ge Qin, Taian Ren, Zhi Wei Wang

Keywords:

Bio-Electrode, Deep Brain Stimulation, Design, Potential Distribution

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