Home › Digital Repository › Faculty, Staff and Student Publications/Presentations › Undergraduate Research › Undergraduate Research Day › Undergraduate Research Day 2008 ›
Synthetic Spider Silk: an Emerging Biomaterial
Object Details
View
Title Information
Synthetic Spider Silk: an Emerging Biomaterial
Synthetic Spider Silk: an Emerging Biomaterial
Name:Personal
Cooper, Alyssa R. Role :Text(marcrelator)
creator
Cooper, Alyssa R. Role :Text(marcrelator)
creator
Name:Personal
Department of Molecular Biology; Dr. Randy Lewis Role :Text(marcrelator)
contributor
Department of Molecular Biology; Dr. Randy Lewis Role :Text(marcrelator)
contributor
typeOfResource
still image genre
Powerpoint/pdf
Origin Information
Place
Laramie, Wyoming
University of Wyoming (keyDate="yes")
2008-04-23
Laramie, Wyoming
University of Wyoming (keyDate="yes")
2008-04-23
Language:Text
eng
eng
Physical Description
born digital
born digital
abstract
Major ampullate (dragline) and flagelliform spider silks are noted for their incredible strength and elasticity, respectively. Previously conducted research has identified the amino acid sequences thought to be responsible for these characteristics in natural spider silk. A linker-polyalanine motif has been found to confer strength to dragline silk whereas a highly repeated GPGGX motif is thought to give elasticity to flagelliform silk. This work focused on the strength/elasticity relationships seen in a series of genetically engineered proteins designed to express varying ratios of these motifs. Our goal was to determine the effects the protein sequence has on the conditions needed for spinning and the effect of both of sequence and spinning conditions on the properties of resulting fibers. A brief outline of the project is as follows: three clones of genetically engineered bacteria have been successfully cultured and induced to express the ‘Y series’ of recombinant silk-like proteins, the protein was obtained from the bacterial cells via cell lysis and purified using affinity chromatography. The purified protein was then lyophilized and used for spinning experiments. note
From - Undergraduate Research Day 2008 - Celebration of Research - Abstracts
Subject
Recombinant proteins--Synthesis; Silk spinning--Research; Microbiological synthesis; Spider webs--Mechanical properties
Recombinant proteins--Synthesis; Silk spinning--Research; Microbiological synthesis; Spider webs--Mechanical properties
Related Item:series
Title Information
Undergrauate Research Day 2008
Undergrauate Research Day 2008
Location
(usage="primary display")
accessCondition:useAndReproduction
http://digital.uwyo.edu/copyright.html
Record Information
languageOfCataloging
:Text(ISO639-2B)
English :Code(ISO639-2B)
eng
English :Code(ISO639-2B)
eng