Interaction of Malaria Parasite-Inhibitory Antibodies with the Merozoite Surface Protein MSP1(19) by Computational Docking. Autore, F., Melchiorre, S., Kleinjung, J., Morgan, W. D., & Fraternali, F. Prot.~Struct.~Func.~Bio, 66:513--527, 2007.
doi  abstract   bibtex   
Merozoite surface protein 1 (MSP1) of the malaria parasite Plasmodium falciparum is an important vaccine candidate antigen. Antibodies specific for the C-terminal maturation product, MSP1(19), have been shown to inhibit erythrocyte invasion and parasite growth. Specific monoclonal antibodies react with conformational epitopes contained within the two EGF-like domains that constitute the antigen MSP1(19). To gain greater insight into the inhibitory process, the authors selected two strongly inhibitory antibodies (designated 12.8 and 12.10) and modeled their structures by homology. Computational docking was used to generate antigen-antibody complexes and a selection filter based on NMR data was applied to obtain plausible models. Molecular Dynamics simulations of the selected complexes were performed to evaluate the role of specific side chains in the binding. Favorable complexes were obtained that complement the NMR data in defining specific binding sites. These models can provide valuable guidelines for future experimental work that is devoted to the understanding of the action mechanism of invasion-inhibitory antibodies. Proteins 2007;66:513-527. (c) 2006 Wiley-Liss, Inc.
@article{Autore:2007aa,
	Abstract = {Merozoite surface protein 1 (MSP1) of the malaria parasite Plasmodium falciparum is an important vaccine candidate antigen. Antibodies specific for the C-terminal maturation product, MSP1(19), have been shown to inhibit erythrocyte invasion and parasite growth. Specific monoclonal antibodies react with conformational epitopes contained within the two EGF-like domains that constitute the antigen MSP1(19). To gain greater insight into the inhibitory process, the authors selected two strongly inhibitory antibodies (designated 12.8 and 12.10) and modeled their structures by homology. Computational docking was used to generate antigen-antibody complexes and a selection filter based on NMR data was applied to obtain plausible models. Molecular Dynamics simulations of the selected complexes were performed to evaluate the role of specific side chains in the binding. Favorable complexes were obtained that complement the NMR data in defining specific binding sites. These models can provide valuable guidelines for future experimental work that is devoted to the understanding of the action mechanism of invasion-inhibitory antibodies. Proteins 2007;66:513-527. (c) 2006 Wiley-Liss, Inc.},
	Author = {Autore, Flavia and Melchiorre, Sara and Kleinjung, Jens and Morgan, William D. and Fraternali, Franca},
	Date-Added = {2007-12-11 17:01:03 -0500},
	Date-Modified = {2007-12-11 17:01:03 -0500},
	Doi = {DOI 10.1002/prot.21212},
	Journal = {Prot.~Struct.~Func.~Bio},
	Keywords = {antibody-antigen complex; docking; molecular dynamics; NMR; malaria; Plasmodium falciparum; MSP1 (merozoite surface protein 1); malaria},
	Local-Url = {file://localhost/Users/rguha/Documents/articles/autor-malaria-2007-66-513.pdf},
	Pages = {513--527},
	Title = {Interaction of Malaria Parasite-Inhibitory Antibodies with the Merozoite Surface Protein {MSP1}(19) by Computational Docking},
	Volume = {66},
	Year = {2007},
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