Adenoviridae |
|
Adenovirus |
Synthetic peptides representing fiber knob of Ad-3 present cell receptor-binding sites and antigenic epitopes (Liebermann et al., 1998) |
Coronaviridae |
|
Murine coronavirus |
Mab recognized epitopes involved in the binding of virions to cellular receptors (Kubo 1993, Kubo 1994) |
Flaviviridae |
|
BVDV |
Anti-idiotypic antibodies mimicking viral antigens bind to cellular receptors (Xue 1993, Minocha 1997) |
Dengue virus |
Amino acid residues critical for mouse neurovirulence are involved in antibody binding (Hiramatsu et al., 1996) |
Yellow fever virus |
Amino acid residues critical for virus neurotropism are involved in antibody binding (Jennings et al., 1994) |
Hepadnaviridae |
|
Duck hepatitis B virus |
Residues critical for virus neutralization are involved in the interaction with cells (Tong 1995, Li 1996, Sunyach 1999) |
Hepatitis B virus |
Anti-idiotypic antibodies mimicking viral antigens bind to cellular receptors (Petit 1992, Hertogs 1994, Budkowska 1995) |
|
Anti-idiotypic antibodies mimicking cellular structures bind to small hepatitis B surface antigen (Neurath et al., 1986) |
|
A synthetic peptide analogue is recognized by both cell receptors and anti-HBV antibodies (Neurath et al., 1986) |
Herpesviridae |
|
BHV-1 |
Anti-idiotypic antibodies mimicking viral antigens bind to cellular receptors (Thaker 1994, Varthakavi 1996) |
HCMV |
Anti-idiotypic antibodies mimicking viral antigens bind to cellular receptors (Keay 1989, Keay 1991) |
HSV |
Anti-idiotypic antibodies mimicking viral antigens bind to cellular receptors (Huang and Campadelli-Fiume, 1996) |
|
Overlap between major neutralizing antigenic site and a receptor-binding domain of gD (Whitbeck et al., 1999) |
Orthomyxoviridae |
|
Influenza virus |
Amino acid residues within the sialic acid-binding pocket of virus hemagglutinin are accessible to neutralizing antibodies (Stewart and Nemerow, 1997) |
|
Antigenic and hemagglutinin variants selected upon egg adaptation (Robertson et al., 1987) |
|
Low-affinity neutralizing antibody response selected for receptor-binding variants of influenza virus HA (Laeeq et al., 1997) |
|
Amino acid changes at residues involved in antibody binding can modulate the hemagglutinating activity of influenza C virus (Matsuzaki et al., 1992) |
|
Passage of influenza C virus in HMV-II cells resulted in selection of antigenically distinct variants, which have an advantage in binding to the cell surface receptors (Umetsu et al., 1992) |
|
Hemagglutinin variants displayed increased resistance to neutralization (Nohinek et al., 1985) |
|
The receptor-binding specificity of the hemagglutinin can markedly influence the antigenic analysis obtained with monoclonal antibodies in HI tests (Yamada et al., 1984) |
Picornaviridae |
|
FMDV |
Overlap of integrin- and antibody-binding sites (Verdaguer et al., 1995) |
|
Monoclonal antibodies selected variants with altered integrin recognition (Martinez 1997, Baranowski 2000, Ruíz-Jarabo 2003) |
|
Adaptation to cell culture may result in antigenic variation (Curry 1996, Sa-Carvalho 1997, Baranowski 2000) |
|
Some amino acid residues involved in heparin-binding map at antigenic sites (Sa-Carvalho 1997, Fry 1999, Baranowski 2000) |
|
Antigenic variants with altered receptor specificity can be selected in vivo (Taboga et al., 1997; Tami et al., 2003) |
Poliovirus |
Receptor recognition influenced by residues of antigenic sites (Murray 1988, Harber 1995) |
|
The exposed BC loop of capsid protein VP1 plays a critical role in receptor interactions in the mouse central nervous system (Yeates et al., 1991) |
HRV |
Neutralizing antibody to human rhinovirus 14 penetrates the receptor-binding canyon (Smith et al., 1996) |
|
The footprint of very low density lipoprotein receptor on HRV-2 surface covers two exposed loops of capsid protein VP1 (BC- and HI-loops) (Hewat et al., 2000) |
TMEV |
Neutralization epitopes map close to the putative receptor binding region (Sato et al., 1996) |
|
Mutations associated with adaptation to some culture cells map in antigenic sites (Jnaoui and Michiels, 1998) |
Reoviridae |
|
Bluetongue virus |
Anti-idiotypic antibodies mimicking viral antigens bind to cellular receptors (Xu et al., 1997) |
Reovirus |
Anti-idiotypic antibodies mimicking viral antigens bind to cellular receptors (Co 1985a, Gaulton 1985, Williams 1988, Williams 1989, Williams 1991b) |
Rhabdoviridae |
|
Rabies virus |
Anti-idiotypic antibodies mimicking viral antigens bind to cellular receptors (Hanham et al., 1993) |
|
Amino acid residues critical for virus neurotropism are involved in antibody binding (Coulon et al., 1998) |
Togaviridae |
|
Sindbis virus |
Anti-idiotypic antibodies mimicking viral antigens bind to cellular receptors (Ubol 1991, Wang 1991b, Strauss 1994) |
|
Several antibodies bind to regions of the virions implicated in cell-receptor recognition (Smith et al., 1995) |
Ross River virus |
Several antibodies bind to regions of the virion implicated in cell-receptor recognition (Smith et al., 1995) |