167 results on '"Linial, Maxine L."'
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2. Population dynamics of rhesus macaques and associated foamy virus in Bangladesh.
3. Reactivation of a Complex Retrovirus Is Controlled by a Molecular Switch and Is Inhibited by a Viral Protein
4. Human Foamy Virus Replication: A Pathway Distinct from That of Retroviruses and Hepadnaviruses
5. Diverse contexts of zoonotic transmission of simian foamy viruses in Asia
6. Tail-to-Head Arrangement of a Partial Chicken Glyceraldehyde-3-Phosphate Dehydrogenase Processed Pseudogene
7. EXPANDED TISSUE TARGETS FOR FOAMY VIRUS REPLICATION AFTER SIV INDUCED IMMUNO- SUPPRESSION: ABSTRACT #8
8. Foamy Virus Capsid Assembly Occurs at a Pericentriolar Region Through a Cytoplasmic Targeting/Retention Signal in Gag
9. Simian Foamy Virus Co-Infections
10. Corrigendum to “Spumaretroviruses: Updated taxonomy and nomenclature” [Virology 516 (2018) 158–164]
11. Taxonomic reorganization of the genus Spumavirus
12. Spumaretroviruses: Updated taxonomy and nomenclature
13. Foamy virus zoonotic infections
14. Simian Foamy Virus (SFV)
15. A Seminomadic Population in Bangladesh with Extensive Exposure to Macaques Does Not Exhibit High Levels of Zoonotic Simian Foamy Virus Infection
16. Obituary: Axel Rethwilm (1959–2014)
17. A Novel Bayesian Method for Detection of APOBEC3-Mediated Hypermutation and Its Application to Zoonotic Transmission of Simian Foamy Viruses
18. Simian Foamy Virus Infection of Rhesus Macaques in Bangladesh: Relationship of Latent Proviruses and Transcriptionally Active Viruses
19. Expression of Prototype Foamy Virus Pol as a Gag-Pol Fusion Protein Does Not Change the Timing of Reverse Transcription
20. Zoonotic simian foamy virus in Bangladesh reflects diverse patterns of transmission and co-infection
21. The DEAD-box RNA Helicase DDX6 is Required for Efficient Encapsidation of a Retroviral Genome
22. The C Terminus of Foamy Retrovirus Gag Contains Determinants for Encapsidation of Pol Protein into Virions
23. Mutations in the Amino Terminus of Foamy Virus Gag Disrupt Morphology and Infectivity but Do Not Target Assembly
24. Replication in a Superficial Epithelial Cell Niche Explains the Lack of Pathogenicity of Primate Foamy Virus Infections
25. A Premature Termination Codon Mutation at the C Terminus of Foamy Virus Gag Downregulates the Levels of Spliced pol mRNA
26. In vitro fidelity of the prototype primate foamy virus (PFV) RT compared to HIV-1 RT
27. Sensitive Assays for Simian Foamy Viruses Reveal a High Prevalence of Infection in Commensal, Free-Ranging Asian Monkeys
28. Role of the Foamy Virus Pol Cleavage Site in Viral Replication
29. Deletion of a Cys–His motif from the Alpharetrovirus nucleocapsid domain reveals late domain mutant-like budding defects
30. Prototype Foamy Virus Envelope Glycoprotein Leader Peptide Processing Is Mediated by a Furin-Like Cellular Protease, but Cleavage Is Not Essential for Viral Infectivity
31. Role of the C Terminus of Foamy Virus Gag in RNA Packaging and Pol Expression
32. Basic Residues of the Retroviral Nucleocapsid Play Different Roles in Gag-Gag and Gag-Ψ RNA Interactions
33. Characterization of the Polymerase and RNase H Activities of Human Foamy Virus Reverse Transcriptase
34. Importance of Basic Residues in Binding of Rous Sarcoma Virus Nucleocapsid to the RNA Packaging Signal
35. The Promyelocytic Leukemia Protein Does Not Mediate Foamy Virus Latency In Vitro
36. Mutation of the Catalytic Domain of the Foamy Virus Reverse Transcriptase Leads to Loss of Processivity and Infectivity
37. Identification of a Conserved Residue of Foamy Virus Gag Required for Intracellular Capsid Assembly
38. Cell-Type-Specific Regulation of the Two Foamy Virus Promoters
39. Yeast Three-Hybrid Screening of Rous Sarcoma Virus Mutants with Randomly Mutagenized Minimal Packaging Signals Reveals Regions Important for Gag Interactions
40. Multiple Integrations of Human Foamy Virus in Persistently Infected Human Erythroleukemia Cells
41. Secondary Structure Analysis of a Minimal Avian Leukosis-Sarcoma Virus Packaging Signal
42. An MΨ-Containing Heterologous RNA, but Not env mRNA, Is Efficiently Packaged into Avian Retroviral Particles
43. Endogenous Virus of BHK-21 Cells Complicates Electron Microscopy Studies of Foamy Virus Maturation
44. The Gag Domains Required for Avian Retroviral RNA Encapsidation Determined by Using Two Independent Assays
45. Proteolytic Activity, the Carboxy Terminus of Gag, and the Primer Binding Site Are Not Required for Pol Incorporation into Foamy Virus Particles
46. Foamy Viruses Are Unconventional Retroviruses
47. Evidence that the Human Foamy Virus Genome Is DNA
48. A Minimal Avian Retroviral Packaging Sequence Has a Complex Structure
49. Retrotransposition of Nonviral RNAs in an Avian Packaging Cell Line
50. The Roles of Pol and Env in the Assembly Pathway of Human Foamy Virus
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