All Stories

  1. Discovery of three novel neutralizing antibody epitopes on the human astrovirus capsid spike and mechanistic insights into virus neutralization
  2. Structure and antigenicity of the divergent human astrovirus VA1 capsid spike
  3. Human astrovirus capsid protein releases a membrane lytic peptide upon trypsin maturation
  4. Differential virome composition and richness between children's diarrheagenic stools kept at ultra-low temperatures for long-term
  5. Mature Rotavirus Particles Contain Equivalent Amounts of 7me GpppG-Capped and Noncapped Viral Positive-Sense RNAs
  6. Phylogenetic analysis of avian influenza viruses from migratory waterfowl at Pacific wetlands
  7. The Association of Human Astrovirus with Extracellular Vesicles Facilitates Cell Infection and Protects the Virus from Neutralizing Antibodies
  8. The Capsid Precursor Protein of Astrovirus VA1 Is Proteolytically Processed Intracellularly
  9. Mature rotavirus particles contain equivalent amounts of7meGpppGcap and noncapped viral positive-sense RNAs
  10. The capsid precursor protein of astrovirus VA1 is proteolytically processed intracellularly
  11. Lipid metabolism is involved in the association of rotavirus viroplasms with endoplasmic reticulum membranes
  12. Structures of Two Human Astrovirus Capsid/Neutralizing Antibody Complexes Reveal Distinct Epitopes and Inhibition of Virus Attachment to Cells
  13. High Seropositivity Rate of Neutralizing Antibodies to Astrovirus VA1 in Human Populations
  14. Genetic Analysis of SARS-CoV-2 Variants in Mexico during the First Year of the COVID-19 Pandemic
  15. The association of human astrovirus with extracellular vesicles facilitates cell infection and protects the virus from neutralizing antibodies
  16. The gut virome of healthy children during the first year of life is diverse and dynamic
  17. Protein Disulfide Isomerase A4 Is Involved in Genome Uncoating during Human Astrovirus Cell Entry
  18. The gut virome of healthy children during the first year of life is diverse and dynamic
  19. Saliva Sampling and Its Direct Lysis, an Excellent Option To Increase the Number of SARS-CoV-2 Diagnostic Tests in Settings with Supply Shortages
  20. Rotaviruses Associate with Distinct Types of Extracellular Vesicles
  21. Saliva sampling is an excellent option to increase the number of SARS CoV2 diagnostic tests in settings with supply shortages
  22. Role of the Guanine Nucleotide Exchange Factor GBF1 in the Replication of RNA Viruses
  23. The Guanine Nucleotide Exchange Factor GBF1 Participates in Rotavirus Replication
  24. Development of a novel DNA based reverse genetics system for classic human astroviruses
  25. The guanine nucleotide exchange factor GBF1 participates in rotavirus replication
  26. Isolation of Neutralizing Monoclonal Antibodies to Human Astrovirus and Characterization of Virus Variants That Escape Neutralization
  27. Author Correction: Zika Virus in Salivary Glands of Five Different Species of Wild-Caught Mosquitoes from Mexico
  28. The Geographic Structure of Viruses in the Cuatro Ciénegas Basin, a Unique Oasis in Northern Mexico, Reveals a Highly Diverse Population on a Small Geographic Scale
  29. Zika Virus in Salivary Glands of Five Different Species of Wild-Caught Mosquitoes from Mexico
  30. Actin-Dependent Nonlytic Rotavirus Exit and Infectious Virus Morphogenetic Pathway in Nonpolarized Cells
  31. The Ubiquitin-Proteasome System Is Necessary for Efficient Replication of Human Astrovirus
  32. Structural Basis for Escape of Human Astrovirus from Antibody Neutralization: Broad Implications for Rational Vaccine Design
  33. Bats, Primates, and the Evolutionary Origins and Diversification of Mammalian Gammaherpesviruses
  34. Crystal Structure of the Human Astrovirus Capsid Protein
  35. Rotavirus Controls Activation of the 2′-5′-Oligoadenylate Synthetase/RNase L Pathway Using at Least Two Distinct Mechanisms
  36. Identification of Host Cell Factors Associated with Astrovirus Replication in Caco-2 Cells
  37. The tight junction protein JAM-A functions as coreceptor for rotavirus entry into MA104 cells
  38. Rotavirus Entry: a Deep Journey into the Cell with Several Exits
  39. Rotaviruses Reach Late Endosomes and Require the Cation-Dependent Mannose-6-Phosphate Receptor and the Activity of Cathepsin Proteases To Enter the Cell
  40. PhyloFlu, a DNA Microarray for Determining the Phylogenetic Origin of Influenza A Virus Gene Segments and the Genomic Fingerprint of Viral Strains
  41. The Spike Protein VP4 Defines the Endocytic Pathway Used by Rotavirus To Enter MA104 Cells