“We start from an abstract, mathematical description of a Chemical
system, and then use DNA to build the molecules that realize the desired
dynamics. The vision is that eventually you can use this technology to build
general-purpose tools”
Comments from Research author Assistant Professor
of Electrical Engineering and Computer Science Engineering, Dr. Georg Seelig,
on the Washington
University website
Researchers
at the University of Washington are working on designing DNA (Deoxy
Ribonucleic Acid) to create synthetic drug and other materials as explained in “Engineers
write programming language to help build synthetic DNA”, published
September 30, 2013 2:26 PM PDT by Elizabeth Armstrong Moore, CNET News. Assistant Professor of Electrical
Engineering and Computer Science Engineering, Dr. Georg Seelig work in
partnership with Washington University Associate Professor of Electrical
Engineering Eric Klavins
Co-authors of the paper are:
1.
Yuan-Jyue Chen, a UW doctoral
student in electrical engineering
2.
David Soloveichik of the University of California , San Francisco
3.
Niranjan Srinivas at the
California Institute of Technology
4.
Neil Dalchau of Microsoft
Research.
5.
Andrew Phillips of Microsoft
Research.
6.
Luca Cardelli of Microsoft
Research.
The Researchers at the University
of Washington has
received a US$2 million grant from the National Science Foundation to pursue
what is effectively the development of a standard system to synthesize DNA and
mRNA that can be used to make artificial Chemical compounds on demand.
Their research grant received the full Press coverage in the article “UW
engineers invent programming language to build synthetic DNA”, published
September 30, 2013 by Michelle Ma, Washington
University. Their published paper can be viewed in
the journal Nature Nanotechnology!
Designer DNA - how will their Chemical
Synthesizer thingamabob work
First, they’ll have to initially getting the Chemical Equations for
whatever Chemical compound you wish to synthesize and interpret the
mathematical variables representing the Chemical Process into a computer
program for their system. They would then design apparatus to build the mRNA or
DNA from scratch using Bacteria to synthesize the mRNA or DNA.
The mRNA or DNA would then be designed via this system, most likely
using a re-engineered Bacteria whose Nucleus is GM (Genetically Modified) via
Chemical means to produce the mRNA or DNA required. It is then extracted from
the Bacteria’s Nucleus and is then packaged into a Delivery system, preferably Bacteriophages
as explained in my blog article
entitled “Bacteriophage Therapy from former USSR
State Georgia is a potential treatment against Super-bug Bacteria - Hansel and
Gretel Witch Hunters Panacea to eradicate Bacterial infections”.
The DNA or in this case mRNA that now in the GMO Bacteriophages are then
used to infect other GMO (Genetically
Modified Organisms) such as Escherichia Coli Bacteria. But instead of bursting
forth with more copies of Bacteriophages, the GMO E. Coli is reprogrammed to
use the mRNA to synthesize whatever chemicals they desire to make.
Via this mixture of Biochemistry and Genetic Engineering, the University
of Washington is trying to make a Standard Process to make designer Organic
Chemical compounds first in a Laboratory setting and then later to be scaled up
to an Industrial System. This concept is expressed in the idea of programming
language for Chemical Reactions, which is what the Research Team is trying to
develop, quote: “I think this is appealing because it
allows you to solve more than one problem. If you want a computer to do
something else, you just reprogram it. This project is very similar in that we
can tell chemistry what to do”
Standard DNA Replicator – Biochemistry
and Genetic Engineering meets Process Engineering
This technique could be used by the team of Researchers from the
University of Georgia ’s Bioenergy Systems Research
Institute to bio-engineer a bacterium, Pyrococcusfuriosus to produce other Chemical compounds from Carbon
Dioxide (CO2) to make products such as Diesel and Gasoline and even
Kerosene.
This
effectively closes the Krebb Cycle synthetically by skipping trees and making
Biofuel directly as argued in my blog article
entitled “Pyrococcusfuriosus
Bacterium Bio-engineered by University of Georgia’s to convert Carbon Dioxide
to Bio-fuel - Carbon sequestering profitable
Hunger Games Catching Fire”. Global Warming would be a thing of the
past, as we could now directly sequester Carbon Dioxide (CO2) and
other harmful chemicals and use this standard process to synthesize whatever
industrial Chemical we need
This is a boon for Process Engineering, as it means the same Process can
be reset to make different drugs on demand instead of having separate Process
lines in a factory to produce certain products.
In the future, making any drug at a nanoscopic level will be as simple
as telling a computer program what kind of drug you want in terms of properties
and DNA or mRNA are designed from scratch to synthesize it.
If
the researchers at the University of Washington succeed, they’ll make this a Process
Engineering standard that combines elements of Genetic Engineering and
Biochemistry to synthesize any Chemical that’s Organic in nature from scratch.
No comments:
Post a Comment