Team:Queens Canada/synbio

What is Synthetic Biology? Synthetic biology is an exciting new field that applies engineering principles to biological systems in order to create novel organisms that are beneficial to human beings. Synthetic biology has its inception in 1978, where the discovery of restriction enzymes gave scientists the basic tools necessary to cut DNA into discrete segments, the first step in harnessing their engineering potential. Since then this toolkit has expanded rapidly, now even a team of undergraduate’s students can create a synthetic organism in as little as a summer!

Synthetic biology allows the construction of genetic circuits that will change the world. Despite its infancy, this field has already found many practical applications. Insulin for diabetics is currently produced in massive quantities by synthetic bacteria. Before this, insulin had to be harvested from pig or cow pancreases in a process which is both cruel and inefficient. Synthetic biology has also been instrumental in fighting famine across the globe by producing genetically robust crop lines that are much more durable than their natural counterparts. As we move into the future it will be fascinating to see what change this genetic revolution inspires.

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 <h3green> What is Synthetic Biology?</h3green>
+<regulartext> Synthetic biology is an exciting new field that applies engineering principles to biological systems in order to create novel organisms that are beneficial to human beings.  Synthetic biology has its inception in 1978, where the discovery of restriction enzymes gave scientists the basic tools necessary to cut DNA into discrete segments, the first step in harnessing their engineering potential. Since then this toolkit has expanded rapidly, now even a team of undergraduate’s students can create a synthetic organism in as little as a summer! </regulartext><p>
+<regulartext> Synthetic biology allows the construction of genetic circuits that will change the world. Despite its infancy, this field has already found many practical applications. Insulin for diabetics is currently produced in massive quantities by synthetic bacteria. Before this, insulin had to be harvested from pig or cow pancreases in a process which is both cruel and inefficient. Synthetic biology has also been instrumental in fighting famine across the globe by producing genetically robust crop lines that are much more durable than their natural counterparts. As we move into the future it will be fascinating to see what change this genetic revolution inspires. </regulartext>
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