Abstract
dc:description.abstractThe rise of micro- and nano-technologies has brought to light intriguing examples of scale-driven performance in a diverse array of fields. The quest to create highly hydrophobic surfaces is one such field. The application of this new generation of hydrophobic surfaces, however, has not received much research attention in comparison to the development of new methods to create surfaces. The one application of super hydrophobic surfaces that has received significant attention is their ability to resist fouling by dirt and other contaminants. Much of the attention paid to this application is due to the discovery that the Lotus flower and several other plants use nano-structure to keep themselves clean, a property that has an important place in the world of biomedical engineering. Any biomedical device that is implanted in the body has to avoid the body's natural defense system, which can quickly cause device failure. One of these natural defenses specific to blood is the clotting reaction. Any surface, implanted or external, that comes into contact with blood is considered an intruder, and the blood seeks to isolate the object by clotting on the foreign surface.
Degree
thesis:*- Department dc:contributor.department
- Massachusetts Institute of Technology. Dept. of Mechanical Engineering.
- Grantor dc:publisher
- Massachusetts Institute of Technology
- Year dc:date.issued
- 2005
Author and committee
dc:creator, dc:contributor.*- Author dc:creator
-
- Schrauth, Anthony J
- Advisor dc:contributor.advisor
-
- Nam P. Suh.
Subjects
dc:subject × 1Rights
dc:rights- Statement dc:rights
-
- M.I.T. theses are protected by copyright. They may be viewed from this source for any purpose, but reproduction or distribution in any format is prohibited without written permission. See provided URL for inquiries about permission.
- Licence dc:rights.uri
- Language dc:language.iso
- eng
Identifiers
dc:identifier.*- Handle dc:identifier.uri
- http://hdl.handle.net/1721.1/35643
- OAI identifier oai:identifier
- oai:dspace.mit.edu:1721.1/35643