All Stories

  1. Detecting asymmetry in the presence of symmetry with maximum likelihood three-dimensional reconstructions of viruses from electron microscope images
  2. Lysine Addressability and Mammalian Cell Interactions of Bacteriophage λ Procapsids
  3. A Pseudo-Atomic Model for the Capsid Shell of Bacteriophage Lambda Using Chemical Cross-Linking/Mass Spectrometry and Molecular Modeling
  4. The Enzymology of a Viral Genome Packaging Motor Is Influenced by the Assembly State of the Motor Subunits
  5. Thermodynamic Characterization of Viral Procapsid Expansion into a Functional Capsid Shell
  6. Assembly of a Genome Packaging Motor on Viral DNA Influences Packaging Mechanism
  7. Energy Independent Helicase Activity of a Viral Genome Packaging Motor
  8. Challenging Packaging Limits and Infectivity of Phage
  9. Challenging Packaging Limits and Infectivity of Phage λ
  10. Energy-Independent Helicase Activity of a Viral Genome Packaging Motor
  11. The Bacteriophage Lambda gpNu3 Scaffolding Protein Is an Intrinsically Disordered and Biologically Functional Procapsid Assembly Catalyst
  12. Cooperative Assembly of Host and Viral Proteins into a DNA Packaging Motor Complex Analyzed by Fluorescence-Monitored Analytical Ultracentrifugation
  13. Assembly and Maturation of the Bacteriophage Lambda Procapsid: gpC Is the Viral Protease
  14. Dissecting Lambda Terminase: A Viral DNA Packaging Motor
  15. Kinetic Analysis of the Genome Packaging Reaction in Bacteriophage λ
  16. Packaging of a Unit-Length Viral Genome: The Role of Nucleotides and the gpD Decoration Protein in Stable Nucleocapsid Assembly in Bacteriophage λ
  17. Biophysics of viral infectivity: matching genome length with capsid size
  18. Measurements of Single DNA Molecule Packaging Dynamics in Bacteriophage λ Reveal High Forces, High Motor Processivity, and Capsid Transformations
  19. The DNA Maturation Domain of gpA, the DNA Packaging Motor Protein of Bacteriophage Lambda, Contains an ATPase Site Associated with Endonuclease Activity
  20. Studies of viral DNA packaging motors with optical tweezers: a comparison of motor function in bacteriophages φ29, λ, and T4
  21. Assembly of Bacteriophage Lambda Terminase into a Viral DNA Maturation and Packaging Machine
  22. Bacteriophage Lambda gpNu1 and Escherichia coli IHF Proteins Cooperatively Bind and Bend Viral DNA:  Implications for the Assembly of a Genome-Packaging Motor
  23. Building a Virus from Scratch: Assembly of an Infectious Virus Using Purified Components in a Rigorously Defined Biochemical Assay System
  24. Nucleotides Regulate the Conformational State of the Small Terminase Subunit from Bacteriophage Lambda:  Implications for the Assembly of a Viral Genome-Packaging Motor
  25. Self-association Properties of the Bacteriophage λ Terminase Holoenzyme: Implications for the DNA Packaging Motor
  26. Viral Genome Packaging Machines
  27. A Minimal Kinetic Model for a Viral DNA Packaging Machine
  28. Biochemical Characterization of Bacteriophage Lambda Genome Packaging in Vitro
  29. Insights into Specific DNA Recognition during the Assembly of a Viral Genome Packaging Machine
  30. The Functional Asymmetry of cosN, the Nicking Site for Bacteriophage λ DNA Packaging, Is Dependent on the Terminase Binding Site, cosB
  31. Kinetic Characterization of the GTPase Activity of Phage λ Terminase:  Evidence for Communication between the Two “NTPase” Catalytic Sites of the Enzyme
  32. Domain Structure of gpNu1, a Phage Lambda DNA Packaging Protein
  33. Cloning, Expression, and Characterization of a DNA Binding Domain of gpNu1, a Phage λ DNA Packaging Protein
  34. The phage lambda terminase enzyme: 1. Reconstitution of the holoenzyme from the individual subunits enhances the thermal stability of the small subunit
  35. The phage lambda terminase enzyme: 2. Refolding of the gpNu1 subunit from the detergent-denatured and guanidinium hydrochloride-denatured state yields different oligomerization states and altered protein stabilities
  36. Kinetic Characterization of the Strand Separation (“Helicase”) Activity of the DNA Packaging Enzyme from Bacteriophage λ
  37. Kinetic Analysis of the Endonuclease Activity of Phage λ Terminase:  Assembly of a Catalytically Competent Nicking Complex Is Rate-Limiting
  38. Assembly of a Nucleoprotein Complex Required for DNA Packaging by Bacteriophage λ
  39. Kinetic and Mutational Dissection of the Two ATPase Activities of Terminase, the DNA Packaging Enzyme of Bacteriophage λ
  40. Virus DNA packaging: the strategy used by phage λ
  41. Kinetic characterization of the ATPase activity of the DNA packaging enzyme from bacteriophage .lambda.
  42. Interaction of Escherichia coli DNA polymerase I with azidoDNA and fluorescent DNA probes: identification of protein-DNA contacts
  43. Transition metals in oxidative stress
  44. Inactivation of DNA polymerase I (Klenow fragment) by adenosine 2',3'-epoxide 5'-triphosphate: evidence for the formation of a tight-binding inhibitor
  45. Oxene transfer, electron abstraction, and cooxidation in the epoxidation of stilbene and 7,8-dihydroxy-7,8-dihydrobenzo[a]pyrene by hemoglobin
  46. Bacteriophage Lambda Terminase and the Mechanism of Viral DNA Packaging