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  1. Single-Site Glycoprotein Mutants Inhibit a Late Event in Sindbis Virus Assembly
  2. Locations of Carbohydrate Sites on Alphavirus Glycoproteins Show that E1 Forms an Icosahedral Scaffold
  3. Structural Differences Observed in Arboviruses of the Alphavirus and Flavivirus Genera
  4. Alphavirus Genome Delivery Occurs Directly at the Plasma Membrane in a Time- and Temperature-Dependent Process
  5. Flavivirus infection from mosquitoes in vitro reveals cell entry at the plasma membrane
  6. Conformational Changes in Sindbis Virus Induced by Decreased pH Are Revealed by Small-Angle Neutron Scattering
  7. Alphavirus adsorption to mosquito cells as viewed by freeze fracture immunolabeling
  8. An alternative pathway for alphavirus entry
  9. Role of the Vacuolar-ATPase in Sindbis Virus Infection
  10. Insect response to alphavirus infection—Establishment of alphavirus persistence in insect cells involves inhibition of viral polyprotein cleavage
  11. Growth and Maintenance of Chick Embryo Fibroblasts (CEF)
  12. Growth and Maintenance of Mosquito Cell Lines
  13. Growth and Maintenance of Baby Hamster Kidney (BHK) Cells
  14. The Structure of Sindbis Virus Produced from Vertebrate and Invertebrate Hosts as Determined by Small-Angle Neutron Scattering
  15. Sindbis Virus: Propagation, Quantification, and Storage
  16. A high capacity Alphavirus heterologous gene delivery system
  17. Differential Incorporation of Cholesterol by Sindbis Virus Grown in Mammalian or Insect Cells
  18. Sindbis Virus Conformational Changes Induced by a Neutralizing Anti-E1 Monoclonal Antibody
  19. Infection of cells by Sindbis virus at low temperature
  20. Location and Role of Free Cysteinyl Residues in the Sindbis Virus E1 and E2 Glycoproteins
  21. Sindbis virus infection of two model insect cell systems—A comparative study
  22. Mutations in the Endodomain of Sindbis Virus Glycoprotein E2 Define Sequences Critical for Virus Assembly
  23. Structural characterization of the E2 glycoprotein from Sindbis by lysine biotinylation and LC-MS/MS
  24. Single and multiple deletions in the transmembrane domain of the Sindbis virus E2 glycoprotein identify a region critical for normal virus growth
  25. Sindbis Virus: Propagation, Quantification, and Storage
  26. Single Amino Acid Insertions at the Junction of the Sindbis Virus E2 Transmembrane Domain and Endodomain Disrupt Virus Envelopment and Alter Infectivity
  27. In vivo processing and isolation of furin protease-sensitive alphavirus glycoproteins: a new technique for producing mutations in virus assembly
  28. Rapid preparative purification of West Nile and Sindbis virus PCR products utilizing a microbore anion-exchange column
  29. Deletions in the Transmembrane Domain of a Sindbis Virus Glycoprotein Alter Virus Infectivity, Stability, and Host Range
  30. Sindbis Virus-Associated Pathology in Aedes albopictus (Diptera: Culicidae)
  31. Morphological variants of sindbis virus produced by a mutation in the capsid protein
  32. Exposure to Low pH Is Not Required for Penetration of Mosquito Cells by Sindbis Virus
  33. Sindbis Virus Glycoprotein E1 Is Divided into Two Discrete Domains at Amino Acid 129 by Disulfide Bridge Connections
  34. The Surface Conformation of Sindbis Virus Glycoproteins E1 and E2 at Neutral and Low pH, as Determined by Mass Spectrometry-Based Mapping
  35. A Single Deletion in the Membrane-Proximal Region of the Sindbis Virus Glycoprotein E2 Endodomain Blocks Virus Assembly
  36. Comparison of Sindbis Virus-Induced Pathology in Mosquito and Vertebrate Cell Cultures
  37. Characterization of the infection of Aedes albopictus cell clones by Sindbis virus
  38. Mutations in the Endo Domain of Sindbis Virus Glycoprotein E2 Block Phosphorylation, Reorientation of the Endo Domain, and Nucleocapsid Binding
  39. Assembly of the Sindbis Virus Spike Protein Complex
  40. Identification of a protein binding site on the surface of the alphavirus nucleocapsid and its implication in virus assembly
  41. Replication and Tissue Tropism of the Alphavirus Sindbis in the Mosquito Aedes albopictus
  42. The Configuration of Sindbis Virus Envelope Proteins Is Stabilized by the Nucleocapsid Protein
  43. Mutations in an Exposed Domain of Sindbis Virus Capsid Protein Result in the Production of Noninfectious Virions and Morphological Variants
  44. Phosphorylation and Dephosphorylation Events Play Critical Roles in Sindbis Virus Maturation
  45. Purification and Characterization of A Sindbis Virus-Induced Peptide Which Stimulates Its Own Production and Blocks Virus RNA Synthesis
  46. The distribution of Sindbis virus proteins in mosquito cells as determined by immunofluorescence and immunoelectron microscopy
  47. Disulfide bonds are essential for the stability of the sindbis virus envelope
  48. The mass of the Sindbis virus nucleocapsid suggests it has T = 4 icosahedral symmetry
  49. Sindbis virus infection of a chinese hamster ovary cell mutant defective in the acidification of endosomes
  50. Alphavirus Infection in Cultured Tissue Cells
  51. Intracellular transport and processing of sindbis virus glycoproteins
  52. Organization of the sindbis virus nucleocapsid as revealed by bifunctional cross-linking agents
  53. Topological organization of Sindbis virus capsid protein in isolated nucleocapsids
  54. Sindbis Virus-mediated Cell Fusion from Without Is a Two-step Event
  55. Replication of Alphaviruses in Mosquito Cells
  56. Sindbis virus induced fusion of tissue cultured Aedes albopictus ( mosquito) cells
  57. Evidence for a change in capsid morphology during Sindbis virus envelopment
  58. Sindbis virus maturation in cultured mosquito cells is sensitive to actinomycin D
  59. Distribution of virus structural proteins and protein-protein interactions in plasma membrane of baby hamster kidney cells infected with Sindbis or vesicular stomatitis virus.
  60. The Assembly of Alphaviruses
  61. MORPHOGENESIS OF SINDBIS VIRUS IN CULTURED MOSQUITO CELLS
  62. Incomplete particles of adenovirus