Regenerated spider silk as a new biomaterial for microelectro-mechanical systems ((MEMS) applications

The objective of this research is to characterize properties of spider silk in a thin film form and apply it as a new biomaterial for MEMS devices. This research represents a relatively new area of study. Most research to date on spider silk has focused on its fiber form, thus there is a limited und...

Full description

Bibliographic Details
Main Author: Bai, Jiamei
Language:English
Published: 2010
Online Access:http://hdl.handle.net/2429/17860
id ndltd-UBC-oai-circle.library.ubc.ca-2429-17860
record_format oai_dc
spelling ndltd-UBC-oai-circle.library.ubc.ca-2429-178602018-01-05T17:39:07Z Regenerated spider silk as a new biomaterial for microelectro-mechanical systems ((MEMS) applications Bai, Jiamei The objective of this research is to characterize properties of spider silk in a thin film form and apply it as a new biomaterial for MEMS devices. This research represents a relatively new area of study. Most research to date on spider silk has focused on its fiber form, thus there is a limited understanding of this silk as a film. Furthermore, using spider silk for MEMS applications has never before been realized. In this study, spider silk was manipulated into a solution and spin coated onto a silicon substrate to form a thin film. A microfabrication technique was then developed to create a free standing microbridge structure. Mechanical properties of the film were obtained by both nanoindenting the film on silicon substrate, and by fracture testing of the microbridge. Once these mechanical properties were obtained, the magnetic properties were added to the spider silk film to add more hnctionality to the material. This was done by blending the film with ferromagnetic materials such as Ni and Fe. First, micron sized Ni particles were mixed into the spider silk solution. Using the microfabrication technique developed earlier in this research, cantilever beam were formed from the Ni spider silk material. Studying the magnetic properties of these cantilever beams showed that these beams are susceptible to external magnetic field. Static and dynamic testing of the cantilever beam was performed. Second, iron pentacarbonyl was mixed with spider silk solution. Applied Science, Faculty of Mechanical Engineering, Department of Graduate 2010-01-08T19:38:55Z 2010-01-08T19:38:55Z 2006 2006-11 Text Thesis/Dissertation http://hdl.handle.net/2429/17860 eng For non-commercial purposes only, such as research, private study and education. Additional conditions apply, see Terms of Use https://open.library.ubc.ca/terms_of_use.
collection NDLTD
language English
sources NDLTD
description The objective of this research is to characterize properties of spider silk in a thin film form and apply it as a new biomaterial for MEMS devices. This research represents a relatively new area of study. Most research to date on spider silk has focused on its fiber form, thus there is a limited understanding of this silk as a film. Furthermore, using spider silk for MEMS applications has never before been realized. In this study, spider silk was manipulated into a solution and spin coated onto a silicon substrate to form a thin film. A microfabrication technique was then developed to create a free standing microbridge structure. Mechanical properties of the film were obtained by both nanoindenting the film on silicon substrate, and by fracture testing of the microbridge. Once these mechanical properties were obtained, the magnetic properties were added to the spider silk film to add more hnctionality to the material. This was done by blending the film with ferromagnetic materials such as Ni and Fe. First, micron sized Ni particles were mixed into the spider silk solution. Using the microfabrication technique developed earlier in this research, cantilever beam were formed from the Ni spider silk material. Studying the magnetic properties of these cantilever beams showed that these beams are susceptible to external magnetic field. Static and dynamic testing of the cantilever beam was performed. Second, iron pentacarbonyl was mixed with spider silk solution. === Applied Science, Faculty of === Mechanical Engineering, Department of === Graduate
author Bai, Jiamei
spellingShingle Bai, Jiamei
Regenerated spider silk as a new biomaterial for microelectro-mechanical systems ((MEMS) applications
author_facet Bai, Jiamei
author_sort Bai, Jiamei
title Regenerated spider silk as a new biomaterial for microelectro-mechanical systems ((MEMS) applications
title_short Regenerated spider silk as a new biomaterial for microelectro-mechanical systems ((MEMS) applications
title_full Regenerated spider silk as a new biomaterial for microelectro-mechanical systems ((MEMS) applications
title_fullStr Regenerated spider silk as a new biomaterial for microelectro-mechanical systems ((MEMS) applications
title_full_unstemmed Regenerated spider silk as a new biomaterial for microelectro-mechanical systems ((MEMS) applications
title_sort regenerated spider silk as a new biomaterial for microelectro-mechanical systems ((mems) applications
publishDate 2010
url http://hdl.handle.net/2429/17860
work_keys_str_mv AT baijiamei regeneratedspidersilkasanewbiomaterialformicroelectromechanicalsystemsmemsapplications
_version_ 1718590663127203840