Synthetic biology with artificially expanded genetic information systems. From personalized medicine to extraterrestrial life

Over 15 years ago, the Benner group noticed that the DNA alphabet need not be limited to the four standard nucleotides known in natural DNA (1,2). Rather, twelve nucleobases forming six base pairs joined by mutually exclusive hydrogen bonding patterns are possible within the geometry of the Watson-C...

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Veröffentlicht in:Nucleic Acids Symposium Series 2003-09, Vol.3 (1), p.125-126
Hauptverfasser: Benner, Steven A., Hutter, Daniel, Sismour, A. Michael
Format: Artikel
Sprache:eng
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Zusammenfassung:Over 15 years ago, the Benner group noticed that the DNA alphabet need not be limited to the four standard nucleotides known in natural DNA (1,2). Rather, twelve nucleobases forming six base pairs joined by mutually exclusive hydrogen bonding patterns are possible within the geometry of the Watson-Crick pair (Fig. 1). Synthesis and studies on these compounds have brought us to the threshold of a synthetic biology, an artificial chemical system that does basic processes needed for life (in particular, Darwinian evolution), but with unnatural chemical structures. At the same time, the artificial genetic information systems (AEGIS) that we have developed have been used in FDA-approved commercial tests for managing HIV and hepatitis C infections in individual patients, and in a tool that seeks the virus for severe acute respiratory syndrome (SARS). AEGIS also supports the next generation of robotic probes to search for genetic molecules on Mars, Europa, and elsewhere where NASA probes will travel.
ISSN:0261-3166
1746-8272
DOI:10.1093/nass/3.1.125