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What is synthetic biology? Synthetic
biology is an exciting new field of research at the interface
of engineering and natural sciences where biological parts
are assembled at the genetic level that instruct cells to
perform a new set of engineered tasks. The central goals in
synthetic biology are the development of well-specified, standard,
interchangeable biological parts and computational models that
can predict the cellular consequences of genetic architectures
built from these parts. The interdisciplinary nature of this
field makes this exciting area of research poised to provide
great research experiences for undergraduates majoring in
disciplines as diverse as Biology, Computer Science, Engineering,
Mathematics, and Physics. Research in synthetic biology requires
the integration of computational design, simulation, and modeling
with experimental biochemical, cell biological, and molecular
genetic approaches.
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How
can Rice students participate in this exciting new field? The International
Genetically Engineered Machine (iGEM) competition was started
at the Massachusetts Institute of Technology (http://parts.mit.edu/igem07/)
to provide undergraduates an opportunity to envision and achieve
synthetic biology goals. In
this competition, student-led teams are given a library
of standardized parts (called BioBricks) and the creative
opportunity to design and build any genetically engineered
machine that they desire. Participants in this competition are provided
access to a Registry of Standard Biological Parts (>1000),
which records and indexes the biological parts used in these
competitions. In addition, participants are asked to support
this collaborative resource by depositing novel parts used by
their teams in the registry as well as information about the
functions and utility of the parts implemented in their genetic
circuits.
How hard is it to build
genetic circuits from registry parts?
Because participating teams
are required to deposit all construct created, the construction of elaborate
circuits can frequently be accomplished in a short period of time using
existing components, e.g., gene regulation networks already deposited, and a
standardized assembly process.

What are some examples of recent synthetic biology
projects? In the 2007 iGEM competition, teams competed in five
categories, including: i) foundation research (basic science and engineering
research), ii. Information processing (genetically controlled control, logic,
and memory), iii) energy (biological fuels, feedstocks, and other energy
projects), iv) environment (sensing or remediation of environmental state), and
v) health and medicine (applied projects with the goal of directly improving
the human condition). Some of the
exciting projects in 2007 included the development of Virotrap by team Slovenia
(a synthetic biology approach against HIV), the Infector Detector by team
Imperial College (a system that detects the presence of biofilm infections on
urinary catheters by reporting on the presence of molecules that bacteria use
for intercellular communication), and team Rice (a Phage that selects against
bacterial resistance).
When is the annual iGEM
competition? The 2007 competition occurred during
the first weekend of November and involved teams from 57 schools, including
institutions from North America, Europe, and Asia. Rice was able to support travel to this meeting for all
participants, who gave a 20 minute talk, presented a poster on their work, and
had an opportunity to hear seminars on the creative projects implemented at
other schools. The 2008
competition will also be during the first weekend in November, and the Rice
BiOWLogists are interested in
recruiting new members who will participate in this event.
Do I need to be a biology major to participate?
No! Successful synthetic
biology endeavors require the integration of computational design, simulation,
and modeling with experimental biochemistry, molecular genetics, and cell
biology. In fact, we believe the
recipe for success in synthetic biology endeavors is to have a team that has a
mixture of participants from the natural sciences and engineering. In the spring, students can take Bios
313 (http://www.owlnet.rice.edu/~bios311/bios311/bios313/bios313.html)
to get experience in Experimental Synthetic Biology.
Where can I get more information? Check
out http://parts.mit.edu/igem07/ for
general information on iGEM, and see http://parts.mit.edu/igem07/index.php/Rice
for a detailed description of RiceÍs projects.
How do I get involved? Send an
email to Joff Silberg (joff@rice.edu), and
he will add you to the iGEM owlspace site. From this point on you will get announcements about the
weekly meetings.
Can I get research credit for participating?
Yes! Participants can get
credit for Independent Research in multiple departments, including Biochemistry
and Cell Biology (Bios310; contact joff@rice.edu), Bioengineering (Bios400;
contact ksan@rice.edu), and Chemical and Biomolecular Engineering (ChBE500; contact
krcox@rice.edu).
Copyright, Acknowledgements,
and Intended Use
Created by B. Beason (bbeason@rice.edu),
Rice University, 21 January 2008
Updated 21 January 2008