Click here to skip to this page's main content.

New to the Open Library? — Learn how it works
Is Open Library useful to you? Chip in to keep it growing. Your gift will be matched today!   Donate
Last edited by WorkBot
January 24, 2010 | History

Exploring collagen interactions and activation modes of discoidin domain receptor 1 1 edition

Exploring collagen interactions and activation modes of discoidin doma ...
Rahim Abdulhussein

No ebook available.

Prefer the physical book? Check nearby libraries powered by WorldCat

Jeepers. There's no description for this book yet. Can you help?
There is only 1 edition record, so we'll show it here...  •  Add edition?

Exploring collagen interactions and activation modes of discoidin domain receptor 1.

Published 2005 .
Written in English.

About the Book

Discoidin domain receptor 1 (DDR1) is a receptor tyrosine kinase (RTK) activated by triple-helical collagens that has been implicated in a number of human diseases. Here, high affinity binding of the DDR1 extracellular domains to immobilized type I collagen is reported and the discoid in-collagen affinity quantified in vitro. Residues R105 & S175 and loop regions S52-T57 & R105-K112 in the collagen-binding discoidin domain of DDR1 were shown to be critically involved in collagen binding and receptor activation. Data presented here are the first to report that DDR1 exists as a ligand-independent disulfide-linked dimer. It was found that the stalk region, in particular cysteine residues 303 and 348, are critical to ligand interaction, dimerization and receptor activation. These data suggest DDR1 can form unconventional dimers not predicted by the current ligand-induced RTK dimerization model. This thesis provides new insights into the DDR1 collagen-signaling mechanism which may ultimately lead to the design of therapeutics that interfere with aberrant DDR1 function through disruption of receptor-ligand interaction, dimerization or receptor activation.

Edition Notes

Source: Masters Abstracts International, Volume: 44-02, page: 0760.

Thesis (M.Sc.)--University of Toronto, 2005.

Electronic version licensed for access by U. of T. users.

GERSTEIN MICROTEXT copy on microfiche (2 microfiches).

The Physical Object

98 leaves.
Number of pages

ID Numbers

Open Library

History Created December 11, 2009 · 2 revisions Download catalog record: RDF / JSON

January 24, 2010 Edited by WorkBot add more information to works
December 11, 2009 Created by WorkBot add works page