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IEE |
Department of Electrical and Computer Engineering |
IEEE
Cyprus Section |
SEMINAR
Towards a fully-implantable vestibular prosthesis for balance
restoration
Timothy G. Constandinou
Wednesday, April 16th 2008, 4:30 –
5:30 pm
Room XÙÄ001 103
Abstract
Neuroprosthetics or neural
engineering is a relatively new field that has
already shown potential medical benefit. Since the application of this science, it has
already significantly improved the quality of life of over 60,000 individuals who previously suffered from severely impaired
hearing or total deafness. Today, through use of cochlear implants, children born totally deaf
can enjoy going to mainstream
schools and communicating normally. Individuals suffering from dizziness and balance disorders
can also benefit from the progress made in
cochlear prosthetics, combined with modern microelectromechanical systems. The inner ear's
vestibular system provides information about self-motion and
helps stabilize vision during movement.
Damage to this system can
result in dizziness, vertigo, nausea, blurred vision and instability
in locomotion, a leading cause of mortality and morbidity
in the elderly. Restoration of balance can therefore be
achieved by bypassing a dysfunctional element in the vestibular pathway using artificial
stimuli. There are a number of sites along the vestibular pathway that can be
tapped into; the ampullae, the scarpa's ganglion and individual
nerve bundles. This project intends to develop the world’s first integrated
vestibular prosthesis platform, investigating techniques needed for artificial vestibular restoration. This research will develop a hybrid (MEMS/CMOS) silicon
chip, to sense motion and
generate the artificial neural stimulation required.
About the Speaker
Timothy G. Constandinou received the B.Eng. degree in Electrical
and Electronic Engineering with first class honours in
2001 and the Ph.D. degree in Electronic
Engineering from Imperial College in 2005. He is currently based at the Institute of Biomedical Engineering at Imperial, where
he is Research Officer for the Bionics research group. He also holds a position
of research Fellow at the
University of Cyprus. He is a member
of the IEEE Circuits and Systems Society,
Sensory Systems and BioCAS Technical
Committees. His research interests include ultra low power
circuits and systems for biomedical
and biologically-inspired applications
(such as implantable
neuroprosthetic devices, body-worn instrumentation,
integrated smart sensors and vision
systems).
Information: Tel: 22-892251/71, email: ece@ucy.ac.cy