HIV mutation literature information.


  HIV drug resistance surveillance using pooled pyrosequencing.
 PMID: 20174661       2010       PloS one
Abstract: Using Sanger sequencing, two TDR mutations, M46L and I84V, were each detected as mixtures at a frequency of 1.04% (1/96).
Table: I84V
Figure: All positive pyrosequencing reads containing M46L (a) and I84V (b) were analyzed with Sanger sequences from the 96 specimens using Neighbour-Joining (K-2-P) with 100 bootstraps.


  HIV-1 protease inhibitors with a transition-state mimic comprising a tertiary alcohol: improved antiviral activity in cells.
 PMID: 19961222       2010       Journal of medicinal chemistry
Abstract: The synthesis of 25 new and optically pure HIV-1 protease inhibitors is reported, along with methods for elongation of the inhibitor P1' side chain using microwave-accelerated, palladium-catalyzed cross-coupling reactions, the biological evaluation, and X-ray data obtained from one of the most potent analogues cocrystallized with both the wild type and the L63P, V82T, I84 V mutant of the HIV-1 protease.


  Design and synthesis of novel P2 substituents in diol-based HIV protease inhibitors.
 PMID: 19926360       2010       European journal of medicinal chemistry
Abstract: These inhibitors were also tested against an HIV protease inhibitor resistant strain carrying the M46I, V82F, and I84V mutations.


  Some insights into mechanism for binding and drug resistance of wild type and I50V V82A and I84V mutations in HIV-1 protease with GRL-98065 inhibitor from molecular dynamic simulations.
 PMID: 19910081       2010       European journal of medicinal chemistry
Abstract: Our results show I50V and V82A have larger structural changes than I84V compared with WT.
Abstract: The reduced van der Waals energy explains the drug resistance of I84V to GRL-98065.
Abstract: The single mutations I50V, V82A and I84V are considered as the key residue mutations of the HIV-1 protease drug resistance.


  Accurate ensemble molecular dynamics binding free energy ranking of multidrug-resistant HIV-1 proteases.
 PMID: 20384328       2010       Journal of chemical information and modeling
Abstract: Multidrug resistance to lopinavir is enthalpically driven and increases through a decrease in the protein-ligand van der Waals interaction, principally due to the V82A/I84V mutation, and an increase in net electrostatic repulsion due to water-mediated disruption of protein-ligand interactions in the catalytic region.


  Prevalence and clinical significance of HIV drug resistance mutations by ultra-deep sequencing in antiretroviral-naive subjects in the CASTLE study.
 PMID: 20532178       2010       PloS one
Table: I84V


  Prevalence, mutation patterns, and effects on protease inhibitor susceptibility of the L76V mutation in HIV-1 protease.
 PMID: 20805393       2010       Antimicrobial agents and chemotherapy
Abstract: Common partner mutations included M46I, I54V, V82A, I84V, and L90M.


  Amprenavir complexes with HIV-1 protease and its drug-resistant mutants altering hydrophobic clusters.
 PMID: 20695887       2010       The FEBS journal
Abstract: The PR(I84V)-APV complex had lost hydrophobic contacts with APV, the PR(V32I)-APV complex showed increased hydrophobic contacts within the hydrophobic cluster and the PR(I50V) complex had weaker polar and hydrophobic interactions with APV.
Abstract: The observed structural changes in PR(I84V)-APV, PR(V32I)-APV and PR(I50V)-APV were related to their reduced inhibition by APV of six-, 10- and 30-fold, respectively, relative to wild-type PR.
Abstract: The structural and kinetic effects of amprenavir (APV), a clinical HIV


  Decomposing the energetic impact of drug resistant mutations in HIV-1 protease on binding DRV.
 PMID: 20543885       2010       Journal of chemical theory and computation
Figure: B) The perturbation of Ile84 to Val84.
Figure: Perturbation of Val82 to Thr and Ile84 to Val.
Discussion: Comparing the trajectories from MD simulations on the wild-type protease and the V82F/I84V protease variant, Perryman et al.


  Novel protease inhibitors (PIs) containing macrocyclic components and 3(R),3a(S),6a(R)-bis-tetrahydrofuranylurethane that are potent against multi-PI-resistant HIV-1 variants in vitro.
 PMID: 20439612       2010       Antimicrobial agents and chemotherapy
Abstract: At passage 50 with GRL-216 (the HIV isolate selected with GRL-216 at up to 0.16 microM [HIV216-0.16 microM]), HIV-1NL4-3 containing the L10I, L24I, M46L, V82I, and I84V mutations remained relatively sensitive to PIs, including darunavir, with the EC50s being 3- to 8-fold-greater than the EC50 of each drug for HIV-1NL4-3.



Browser Board

 Co-occurred Entities




   Filtrator