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. 2004 Jan 7;62:19–111. doi: 10.1016/S0065-3527(03)62002-6

Table IV.

Examples of Overlap between Antibody and Receptor-Binding Sites in Viruses

Viral system Main observations
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)