• IP addresses are NOT logged in this forum so there's no point asking. Please note that this forum is full of homophobes, racists, lunatics, schizophrenics & absolute nut jobs with a smattering of geniuses, Chinese chauvinists, Moderate Muslims and last but not least a couple of "know-it-alls" constantly sprouting their dubious wisdom. If you believe that content generated by unsavory characters might cause you offense PLEASE LEAVE NOW! Sammyboy Admin and Staff are not responsible for your hurt feelings should you choose to read any of the content here.

    The OTHER forum is HERE so please stop asking.

Synthetic biology revolution - The Wild World of DIY Synthetic Biology

GoFlyKiteNow

Alfrescian
Loyal
Joined
Jan 3, 2009
Messages
2,605
Points
0
The Wild World of DIY Synthetic Biology
Get your designer life forms here!

A new generation of scientists hope to become genome hackers who redesign organisms to become living tools, capable of creating diesel fuel or producing anti-malarial drugs.

That synthetic biology revolution has led to a can-do spirit of innovation that has fueled MIT's International Genetically Engineered Machine Competition, known as iGEM for short.

The New York Times has traced the route to iGEM by following a community-college team from the City College of San Francisco, as the group tries to build a bacteria-based battery powered entirely by the sun for iGEM. It's a great overview of one of the more exciting scientific fields today.

Genetic engineering has traditionally focused on swapping out single genes at a time. But synthetic biology represents something much wilder and more radical. Rather than cut-and-paste, synthetic biologists hope to create entirely new genetic code assembled from an open-source repository of snippets of working genes called "BioBricks."

Assembling them like legos, the new sets of custom genetic code can then be re-inserted into bacteria or other organisms, modifying their fundamental behaviors and life cycles. This opens the door for scientists to engineer entirely new living organisms.

This redesign approach need not only take place in large private or government labs, as iGEM's student participation shows. Another example comes from DIYbio NYC, a group founded by NYU students that aims to make synthetic biology accessible to "citizen scientists, amateur biologists, and DIY biological engineers."

Synthetic biologists of all stripes already have a large set of genetic parts to work with. MIT has assembled an open-source library, called the Registry of Standard Biological Parts, that holds more than 5,000 BioBricks. iGEM teams have contributed the BioBricks from their projects, but they can also make use of the library for future work.

Related Articles

Open-Source Lab Promises Free DNA Parts for Bioengineers

Are Genome Hackers the Future of Biotech?

Scientists from Stanford University and the University of California-Berkeley have also launched their own open-source genetic lab called Biofab. They hope to identify thousands of molecules and processes that would allow them to efficiently assemble DNA parts in the lab, which would then become available for free to any would-be visionaries.

There's hardly any limit to the early ambitions of synthetic biologists. Even the Pentagon's mad scientists at DARPA have expressed the wish to immortal living organisms with genetically encoded kill-switches. But iGEM teams seem intent on more practical or at least achievable goals for now, including a seizure-inducing fluorescent Mario based on glow-in-the-dark bacteria.
 
Open-Source Lab Promises Free DNA Parts for Bioengineers

The new Biofab laboratory plans to churn out thousands of free standard DNA parts that academic and private biotech labs can use to create new designer microbes that can make everything from new drugs to fuel.

This could give a significant boost for research efforts, considering that a single designer microbe may cost years and tens of millions of dollars. One University of California-Berkeley effort to engineer microbes that could synthesize an anti-malarial drug took a decade and $25 million to reach small-scale production.

Scientists from Stanford University and UC Berkeley have focused on identifying the thousands of molecules and processes so that they can mix and match DNA parts in the Biofab lab. Their funding comes from the U.S. National Science Foundation, as well as the Lawrence Berkeley National Laboratory and the BioBricks Foundation.

Related Articles
Japanese Create Fluorescent Mario from Genetically Engineered Bacteria
Synthetic Alcohol Gives Drinkers a Buzz Minus the Hangover, Addiction
Synthetic Molecules Trick Body Into Improved Immune Response to HIV, Cancer

Open source as an engine for innovation has caught fire recently.

Pharmaceutical giant GlaxoSmithKline has offered up thousands of chemical compounds from its database in hopes of someone finding a cure for the mosquito-borne disease malaria.

The Pentagon's mad science lab DARPA has also pushed for a similar business revolution along the lines of the semiconductor industry, where certain firms focus on innovation and leave the tedious manufacturing to semiconductor foundries. But in this case, Biofab would provide the raw building blocks that allow synthetic biologists to more quickly realize their dreamt-up creations.
 
Back
Top