
doi: 10.1002/psc.1333
pmid: 21294227
handle: 11588/373167 , 11588/417462 , 20.500.14243/166098 , 10807/6837 , 11573/375971 , 2158/1256460
doi: 10.1002/psc.1333
pmid: 21294227
handle: 11588/373167 , 11588/417462 , 20.500.14243/166098 , 10807/6837 , 11573/375971 , 2158/1256460
AbstractNeuroglobin and cellular prion protein (PrPC) are expressed in the nervous system and co‐localized in the retinal ganglion cell layer. Both proteins do not have an unambiguously assigned function, and it was recently reported that PrPC aggregates rapidly in the presence of neuroglobin, whereas it does not aggregate in the presence of myoglobin, another globin with different tissue specificity. Electrostatic complementarity between the unstructured PrPC N‐terminus and neuroglobin has been proposed to mediate this specific interaction. To verifythis hypothesis experimentally, we have used a combined approach of automated docking and molecular dynamics (MD) studies carried out on short stretches of prion protein (PrP) N‐terminus to identify the minimal electrostatically interacting aminoacidic sequences with neuroglobin. Subsequently, we have performed the synthesis of these peptides by solid phase methods, and we tested their interaction with neuroglobin by surface plasmon resonance (SPR). Preliminary results confirm unequivocally the specific interaction between synthetic PrP peptides and neuroglobin suggesting a crucial role of PrPC positively charged regions in thisprotein–protein association. Copyright © 2011 European Peptide Society and John Wiley & Sons, Ltd.
Prions, MD, neuroglobin; prion protein; molecular recognition, Neuroglobin, proteina prionica, Nerve Tissue Proteins, Molecular Dynamics Simulation, Surface Plasmon Resonance, neuroglobina; proteina prionica; peptidi sintetici; MD., Cellular prion protein; Nervous system; Neuroglobin; Peptides synthesis; Surface plasmon resonance, Protein Structure, Secondary, Globins, neuroglobin, cellular prion protein; nervous system; neuroglobin; peptides synthesis; surface plasmon resonance, prion protein, neuroglobina, peptidi sintetici, molecular recognition, Protein Binding
Prions, MD, neuroglobin; prion protein; molecular recognition, Neuroglobin, proteina prionica, Nerve Tissue Proteins, Molecular Dynamics Simulation, Surface Plasmon Resonance, neuroglobina; proteina prionica; peptidi sintetici; MD., Cellular prion protein; Nervous system; Neuroglobin; Peptides synthesis; Surface plasmon resonance, Protein Structure, Secondary, Globins, neuroglobin, cellular prion protein; nervous system; neuroglobin; peptides synthesis; surface plasmon resonance, prion protein, neuroglobina, peptidi sintetici, molecular recognition, Protein Binding
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