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  1. Constrained evolution of overlapping genes in viral host adaptation: Acquisition of glycosylation motifs in hepadnaviral precore/core genes
  2. Host cell-dependent late entry step as determinant of hepatitis B virus infection
  3. Multiple roles of PP2A binding motif in hepatitis B virus core linker and PP2A in regulating core phosphorylation state and viral replication
  4. Role of Hepatitis B virus capsid phosphorylation in nucleocapsid disassembly and covalently closed circular DNA formation
  5. Common and Distinct Capsid and Surface Protein Requirements for Secretion of Complete and Genome-Free Hepatitis B Virions
  6. Identification of an Intermediate in Hepatitis B Virus Covalently Closed Circular (CCC) DNA Formation and Sensitive and Selective CCC DNA Detection
  7. Capsid Phosphorylation State and Hepadnavirus Virion Secretion
  8. Cell-Free Hepatitis B Virus Capsid Assembly Dependent on the Core Protein C-Terminal Domain and Regulated by Phosphorylation
  9. Viral DNA-Dependent Induction of Innate Immune Response to Hepatitis B Virus in Immortalized Mouse Hepatocytes
  10. Alteration of Mature Nucleocapsid and Enhancement of Covalently Closed Circular DNA Formation by Hepatitis B Virus Core Mutants Defective in Complete-Virion Formation
  11. Hepatitis B Virus Covalently Closed Circular DNA Formation in Immortalized Mouse Hepatocytes Associated with Nucleocapsid Destabilization
  12. Regulation of Multiple Stages of Hepadnavirus Replication by the Carboxyl-Terminal Domain of Viral Core Protein in trans
  13. Sequences in the terminal protein and reverse transcriptase domains of the hepatitis B virus polymerase contribute to RNA binding and encapsidation
  14. Comparative Analysis of Hepatitis B Virus Polymerase Sequences Required for Viral RNA Binding, RNA Packaging, and Protein Priming
  15. In Vitro Epsilon RNA-Dependent Protein Priming Activity of Human Hepatitis B Virus Polymerase
  16. Noncompetitive Inhibition of Hepatitis B Virus Reverse Transcriptase Protein Priming and DNA Synthesis by the Nucleoside Analog Clevudine
  17. Maturation-Associated Destabilization of Hepatitis B Virus Nucleocapsid
  18. Noncompetitive Inhibition of Hepatitis B Virus Reverse Transcriptase Protein Priming and DNA Synthesis by the Nucleoside Analog Clevudine
  19. Hepatitis B virus reverse transcriptase: diverse functions as classical and emerging targets for antiviral intervention
  20. Protein-Primed Terminal Transferase Activity of Hepatitis B Virus Polymerase
  21. Cyclin-Dependent Kinase 2 Phosphorylates S/T-P Sites in the Hepadnavirus Core Protein C-Terminal Domain and Is Incorporated into Viral Capsids
  22. TP-RT Domain Interactions of Duck Hepatitis B Virus Reverse Transcriptase in cis and in trans during Protein-Primed Initiation of DNA Synthesis In Vitro
  23. Phosphorylation State-Dependent Interactions of Hepadnavirus Core Protein with Host Factors
  24. A Theoretical Model for the Dynamic Structure of Hepatitis B Nucleocapsid
  25. Secretion of Genome-Free Hepatitis B Virus – Single Strand Blocking Model for Virion Morphogenesis of Para-retrovirus
  26. Cryptic Protein Priming Sites in Two Different Domains of Duck Hepatitis B Virus Reverse Transcriptase for Initiating DNA Synthesis In Vitro
  27. An interdomain RNA binding site on the hepadnaviral polymerase that is essential for reverse transcription
  28. trans-Complementation of HBV rtM204I mutant replication by HBV wild-type polymerase
  29. RNA-protein interactions in hepadnavirus reverse transcription
  30. Hepatitis B virus–cell interactions and pathogenesis
  31. HIV–HBV and HIV–HCV Coinfection and Liver Cancer Development
  32. Hepatitis B Virus Reverse Transcriptase and ε RNA Sequences Required for Specific Interaction In Vitro
  33. Requirement of Heat Shock Protein 90 for Human Hepatitis B Virus Reverse Transcriptase Function
  34. Therapy for chronic hepatitis B: the earlier, the better?
  35. Reconstitution of a Functional Duck Hepatitis B Virus Replication Initiation Complex from Separate Reverse Transcriptase Domains Expressed in Escherichia coli
  36. In Vitro Reconstitution of a Functional Duck Hepatitis B Virus Reverse Transcriptase: Posttranslational Activation by Hsp90
  37. Why are hepadnaviruses DNA and not RNA viruses?
  38. RNA Signals That Control DNA Replication in Hepadnaviruses
  39. Mutagenesis of a Hepatitis B Virus Reverse Transcriptase Yields Temperature-Sensitive Virus
  40. Hsp90 is required for the activity of a hepatitis B virus reverse transcriptase.
  41. Studying DHBV Polymerase by In Vitro Transcription and Translation