Table 6.
Session | Speaker | Title |
---|---|---|
Keynote | Alan Engelman | Integrase host cofactors: Unanticipated antiretroviral bedfellows * |
1 | Robert Craigie | Retroviral integrase: Activities and structure |
Michael Miller | Anti-IN inhibitors: Clinical experience and new drug development | |
2 | Akram Alian | Another piece in the integrase multimerization puzzle: The first monomeric integrase core domain structure |
Duane Grandgenett | Structural biology of kinetically stabilized RSV and HIV-1 synaptic complexes produced with integrase strand transfer inhibitors | |
Min Li | Outer integrase subunits in the intasome are dispensable for catalysis of integration and a “magic” peptide that enhances HIV-1 integrase * | |
Mark Andrake | Multimerization properties of retroviral integrases | |
Marc Ruff | The HIV-1 pre-integration complexes: Structure, function and dynamics | |
Mamuka Kvaratskhelia | Structure and function of retroviral integrases as a therapeutic target | |
Kellie Jurado | Characterization of HIV-1 particle maturation defect caused by allosteric integrase inhibitors (selected from abstracts) | |
Samson Chow | Characterizing the interaction between HIV-1 IN and CA assemblies | |
3 | Carlos Casiano | Beyond HIV-1 integration: Emerging roles of LEDGF/p75 in cancer and autoimmunity |
Anna Cereseto | 3D analysis of retrovirus-nucleus interactions | |
Ganjam Kalpana | An essential role of integrase binding protein INI1/hSNF5 in HIV-1 post-transcriptional mechanisms leading to assembly | |
Eric Poeschla | TALEN knockout of the HIV-1 integration cofactor LEDGF/p75 | |
Anais Jaspart | Phosphorylation of HIV-1 integrase by GCN2 (selected from abstracts) * | |
4 | Mark Underwood | HIV-1 primary and secondary integrase mutations: Dolutegravir clinical response, and effects on DTG, raltegravir (RAL), and elvitegravir (EVG) resistance and replication capacity * |
Yves Pommier | Novel INSTIs to overcome drug resistance mechanisms | |
Zeger Debyser | Novel pleiotropic roles of HIV integrase revealed by LEDGINs and integrase polymorphisms | |
Richard Benarous | Resistance analysis with HIV-1 integrase-LEDGF allosteric inhibitors that effect virion maturation but do not influence packaging of a functional RNA genome (selected from abstracts) | |
Philippe Cotelle | 2-Hydroxyisoquinoline—1,3(2H, 4H)—diones (HIDs), novel inhibitors of HIV integrase with a high barrier to resistance | |
Ira Dicker | A simple and accurate in vitro method for predicting serum protein binding of HIV integrase strand transfer inhibitors | |
Nouri Neamati | Discovery of first-in-class inhibitors of HIV-1 integrase-HSP90 interaction | |
5 | Marc Lavigne | Role of DNA and chromatin structure in HIV-1 integration |
Vincent Parissi | Regulation of retroviral integration by chromatin and intasome structures | |
Stephen Hughes | Specific HIV integration sites are linked to the clonal expansion and persistence of infected cells in patients * | |
Henry Levin | Analysis of 1-million independent HIV-1 integration sites identifies a link with mRNA splicing | |
Monica J. Roth | MLV integration site selection | |
Frederic Bushman | Retroviral DNA integration in human gene therapy | |
6 | Suzanne Sandmeyer | Parsing the determinants of extreme integration specificity |
Karen Beemon | Targets of integration of ALV-J in chicken hemangiomas * | |
Donald Kohn | Clinical applications of integrating vectors for gene therapy | |
Emmanuelle Six | Tracking the dynamic of hematopoietic progenitors through integration site analysis in gene therapy trials | |
Richard Gabriel | Integration of retroviral vectors in gene therapy—understanding and avoiding severe side effects | |
Szilvia Solyom | Massive somatic L1 retrotransposition occurs early during gastrointestinal tumorigenesis |
1 Talks highlighted in main text denoted by *.