At its center grid computing is a relatively simple concept that has
extraordinary potential and power. It involves the
linkage of multiple computers to form a singular network, which is then exponentially
more powerful than any single one of those computer could possibly be on their
own. Each grid is aimed at a specific goal that can vary wildly among different
grids, from finding the next prime number to developing treatments for
different diseases. Grid computing is becoming more and more prominent and it
is an amazingly easy way for an ordinary person to contribute to amazing
international and often philanthropic projects.
For our computer grid service learning project our
group has decided to choose the grid Rosetta@home to connect to (
http://boinc.bakerlab.org/rosetta/).
This grid studies the 3-dimensional design of proteins, and ultimately hopes
this information could help lead to the cure of several diseases. Proteins are
known as the building blocks of life. And as we have been taught in numerous
science classes, a protein’s function is greatly determined by the shape that
it takes when it is folded by the golgi apparatus. However, scientists are not yet able to predict what shape proteins
will take, but this is what the Rosetta@home computer grid aims to accomplish.
Images of
examples of protein structure from the Rosetta@home grid.
The reason this breakthrough would be so incredibly
significant is because if we are able to accurately predict the shapes proteins
will take, it could lead to drug discoveries and cures for different diseases.
Some of the diseases that the Rosetta@home group is focusing their research on
include Malaria, Anthrax, HIV, Alzheimer's and Cancer. In the research of
Malaria, for instance, a new development indicates that a newly discovered
protein that stops cell movement by stopping the cell motor, could be a drug
target for malaria treatments (Read more here:
http://www.sciencedaily.com/releases/2011/05/110530152333.htm).
We will be focusing more, however, on
Rosetta@home’s work concerning anthrax. In recent studies of anthrax,
scientists have determined the structure of a protein involved in causing
anthrax. It is one of several proteins that are secreted by the bacterium
Bacillus anthracis, which can be seen
below, known as oedema factor or “EF.” EF is able to “[hijack] one of the key
intracellular proteins involved in calcium-triggered signalling pathways, at
once disabling the protein and using it to stimulate its own catalytic
activity” (Winstead). In doing this EF lowers the body’s ability to fight off
foreign invaders and “[allows] infection to proceed” (Winstead). Additionally,
scientists have discovered a “structural 'pocket' ” that they believe new drugs
could be developed to attack (Winstead). This and other developments gives
scientists hope of finding a cure for anthrax (Read more here:
http://www.genomenewsnetwork.org/articles/02_02/anthrax.shtml).
Bacillus anthracis.
Now that we are connected to the Rosetta@home grid,
we will keeping you updated on their work with anthrax and further detailing
recent progress in this field of study.
Sources cited:
Winstead, Edward R. "Structure of the Third Deadly Anthrax Protein."
Genome News Network - Home. 1 Feb. 2002. Web. 26 Jan. 2012. <http://www.genomenewsnetwork.org/articles/02_02/anthrax.shtml>.
Excellent start! There is no need to add or revise anything. Well done. 15 out of 15.
ReplyDelete-Dr. Walker