Writing Genetic Code
An anonymous reader writes "The Globe and Mail is reporting on another group of researchers delving into the field of 'synthetic biology.' The project stemming from the efforts of two biology labs in British Columbia and Maryland is attempting to create the first synthetic life form. From the article: 'The project is being spearheaded by U.S. scientist Craig Venter, who gained fame in his former job as head of Celera Genomics, which completed a privately-owned map of the human genome in 2000. Dr. Venter, 59, has since shifted his focus from determining the chemical sequences that encode life to trying to design and build it: "We're going from reading to writing the genetic code," he said in an interview.'" This is certainly not the first group to venture into this territory.
Just wait until someone writes a piece of code that cures a genetic disease, but must be 'fed' with a certain medication. If not fed with said medication, it will do something real bad.
Job? I don't have time to get a job! Who will sit around and bitch about being broke and unemployed then?
Good to hear somebody is working on something important.
If God didn't mean us to create life he would smite these people straight out, so we can kill that objection, BTW.
The interesting part is going to be how they actually turn their new genome into a living bacteria. They're basically going to have to either assemble the first one from whole cloth or trick some other microbe into producing what they want.
And even if we can make these things perform useful functions, how to make sure they don't die out from lack of an evolutionary niche or mutate and become pathological?
I think one of the biggest challenges isn't in synthesizing strings of DNA, per se - it's in knowing what DNA to synthesize. The real holy grail of synthetic biology is to engineer genetic functions to accomplish a particular goal - design to spec. From the average /. POV, this means "programming" genes in some high-level language (C++ DNA lib, anyone?). Take a look at The Registry of Standard Biological Parts for a first library of genetic "functions".
As I understand it, the current state-of-the-art in terms of programming DNA is basic logic gates that still tend to lose coherence when connected together. Once this is accomplished (best guess, 3-4 years from now to work out the basic science), all of the sophisticated tools and techniques developed by the IT community over the last decade(s) can be rapidly applied, and that goal of design/build to spec will become possible.