Molecular modelling studies of a nerve growth factor receptor

Using computer simulations, a geometry for the receptor binding site for nerve growth factor (NGF) has been proposed. Variable basis Monte Carlo simulated annealing calculations have been used to ascertain the structures of the complexes of four fully active NGF analogues with the second leucine-ric...

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Veröffentlicht in:Canadian journal of chemistry 1998-10, Vol.76 (10), p.1389-1401
Hauptverfasser: Shamovsky, Igor L, Ross, Gregory M, Riopelle, Richard J, Weaver, Donald F
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container_title Canadian journal of chemistry
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creator Shamovsky, Igor L
Ross, Gregory M
Riopelle, Richard J
Weaver, Donald F
description Using computer simulations, a geometry for the receptor binding site for nerve growth factor (NGF) has been proposed. Variable basis Monte Carlo simulated annealing calculations have been used to ascertain the structures of the complexes of four fully active NGF analogues with the second leucine-rich motif (LRM-2) of trkA, a putative binding site for NGF. The previously suggested bioactive conformation of the amino and carboxyl termini of NGF docks favourably with the receptor defined by the LRM-2 of trkA: only minor conformational changes take place in the NGF analogues upon docking. Extensive intermolecular van der Waals contacts arise from the geometric fit of the NGF binding domain to the LRM-2. Within this receptor environment, five distinct binding areas reveal a highly selective multiple-point NGF-trkA recognition based on hydrophobic, ionic, hydrogen bonding, and van der Waals interactions. Binding specificity is determined primarily by residues Lys 100 , Asp 109 , and Phe 113 of trkA which bind to conserved NGF residues Asp 16 , Arg 114 , Lys 115 , and Phe 7 . An explicit atom-level model of the high-affinity NGF receptor is thus developed.Key words: NGF, trkA, leucine-rich motif, protein docking, Alzheimer's disease.
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subjects Alzheimer's disease
Amino acids
Chemical bonds
Monte Carlo simulation
Nervous system
Neurological disorders
Proteins
title Molecular modelling studies of a nerve growth factor receptor
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