Abstract |
The efficacy of antiretroviral agents approved for the treatment of HIV-1 infection is limited by the virus's ability to develop resistance. As such there is an urgent need for new ways of thinking about anti-HIV drug development, and accordingly novel viral and cellular targets critical to HIV-1 replication need to be explored and exploited. The retroviral RNA genome encodes for three enzymes essential for viral replication: HIV-1 protease (PR), HIV-1 reverse transcriptase (RT) and HIV-1 integrase (IN). The enzymatic functioning of each of these enzymes is entirely dependent on their oligomeric structures, suggesting that inhibition of subunit-subunit assembly or modulation of their quaternary structures provide alternative targets for HIV-1 inhibition. This review discusses the recent advances in the design and/or identification of synthetic peptides and small molecules that specifically target the subunit-subunit interfaces of these retroviral enzymes, resulting in the inactivation of their enzymatic functioning.
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Authors | Nicolas Sluis-Cremer, Gilda Tachedjian |
Journal | European journal of biochemistry
(Eur J Biochem)
Vol. 269
Issue 21
Pg. 5103-11
(Nov 2002)
ISSN: 0014-2956 [Print] England |
PMID | 12392542
(Publication Type: Journal Article, Research Support, Non-U.S. Gov't, Review)
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Chemical References |
- Anti-HIV Agents
- Enzyme Inhibitors
- Peptides
- HIV Integrase
- HIV Reverse Transcriptase
- HIV Protease
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Topics |
- Anti-HIV Agents
(chemistry, pharmacology)
- Dimerization
- Drug Design
- Enzyme Inhibitors
(chemistry, pharmacology)
- HIV Integrase
(chemistry, drug effects)
- HIV Protease
(chemistry, drug effects)
- HIV Reverse Transcriptase
(antagonists & inhibitors, chemistry)
- HIV-1
(enzymology)
- Models, Molecular
- Peptides
(chemistry, pharmacology)
- Protein Conformation
(drug effects)
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