Progress in the design of DNA sequence-specific lexitropsins
Wynn L. Walker, Mary L. Kopka, David S. Goodsell
Abstract
Wynn L. Walker, Mary L. Kopka, David S. Goodsell
Abstract
Sequence-specific polyamides that bind in the minor groove of DNA are attractive candidates for antibiotics, cancer chemotherapeutics, and transcriptional antagonists. This paper reviews the progress of structure-based design of minor-groove-binding polyamides, from the first structure of netropsin with DNA, to the effective linked polyamides currently under study. A theory of polyamide specificity is also reviewed, introducing methods to determine the optimal strategies for targeting a given DNA sequence within a genome of competing sequences.
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Sequence-specific polyamides that bind in the minor groove of DNA are attractive candidates for antibiotics, cancer chemotherapeutics, and transcriptional antagonists. This paper reviews the progress of structure-based design of minor-groove-binding polyamides, from the first structure of netropsin with DNA, to the effective linked polyamides currently under study. A theory of polyamide specificity is also reviewed, introducing methods to determine the optimal strategies for targeting a given DNA sequence within a genome of competing sequences.
Key concepts: Chemistry, Sequence (biology), Computational biology, DNA, Nanotechnology, Biochemistry, Biology, Materials science