That was the first question that came to mind after reading this article:
I mean, why build nanites if you can program a cell to perform any nano-scale tasks you need to do? Mother Nature has already mastered problems that nanotech grapples with (self-replication, energy source, mobility), so why reinvent the wheel? Scientists at The University of Nottingham are leading an ambitious research project to develop an in vivo biological cell-equivalent of a computer operating system. The success of the project to create a 're-programmable cell' could revolutionise synthetic biology and would pave the way for scientists to create completely new and useful forms of life using a relatively hassle-free approach.Stunning visualizations of the inner workings of our own bodies show that we've already got trillions of molecular factories inside of us, and there would be no need for specialized and artificial "nano-hives" if we could harness the machinery we already have. Of course, this is all wildly speculative, but I'm interested to hear what other folks think about this.
root@Why needs nanotech?
[hr] Last I knew, we didn't know how to create gates in a lipid bilayer yet. Adapting cells to wildly different purposes seems a bit out of our league if we have no control over the I/O "protocols" for cells.@-rep +1
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[hr] Can I get a reference for the designer ion channels? I lost an argument recently because I didn't have any evidence that we could do that. I was reasoning that if we could imbed customized ion channels in sheets of lipid bilayers we should be able to make some really cool stacked filters, including the cellular equivalent of a protein assembly line, and I got shot down. Such are the dangers of coffee-shop biochemistry discussions.@-rep +1
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[hr] Thanks!@-rep +1
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