Date of Award:
12-2018
Document Type:
Dissertation
Degree Name:
Doctor of Philosophy (PhD)
Department:
Biological Engineering
Committee Chair(s)
Randolph V. Lewis (Committee Co-Chair), Ronald Sims (Committee Co-Chair)
Committee
Randolph V. Lewis
Committee
Ronald Sims
Committee
Charles Miller
Committee
Jixun Zhan
Committee
Zhongde Wang
Abstract
Due to its strength, flexibility, and biocompatibility, spider silk is a highly appealing material for applications in the medical field. Unfortunately, natural spider silk is difficult to obtain in large quantities because spiders are territorial and cannibalistic, making them impractical to farm. Synthetic spider silk proteins produced by transgenic hosts such as bacteria and goats have made it possible to obtain the quantities of spider silk needed to study it more fully and to investigate its potential uses. The spider silk proteins produced in our laboratory do not have an optimal purification method to remove all of the non-biocompatible contaminants and have not previously been tested for their biocompatibility. The first focus of this dissertation was to create goat cells that can be used to create new goats. These new goats will produce proteins that can be purified more efficiently and more completely. The second focus of this dissertation was to perform biocompatibility tests on goat-derived spider silk proteins. Prior to performing any biocompatibility tests, a method was established for removing endotoxins – an impurity that causes an immune response in the body – from the proteins. This work has shed light on areas for improvement in the silk protein purification process and laid groundwork for the production of new goat-derived proteins. These steps will help make it possible for synthetic spider silk to progress further toward becoming a viable biomaterial.
Checksum
721271815f8043f737ea082d12280f4a
Recommended Citation
Decker, Richard E. Jr, "Production and Biocompatibility of Spider Silk Proteins in Goat Milk" (2018). All Graduate Theses and Dissertations, Spring 1920 to Summer 2023. 7288.
https://digitalcommons.usu.edu/etd/7288
Included in
Copyright for this work is retained by the student. If you have any questions regarding the inclusion of this work in the Digital Commons, please email us at .