DRoP: A Water Analysis Program Identifies Ras-GTP-Specific Pathway of Communication between Membrane-Interacting Regions and the Active Site

Ras GTPase mediates several cellular signal transduction pathways and is found mutated in a large number of cancers. It is active in the GTP-bound state, where it interacts with effector proteins, and at rest in the GDP-bound state. The catalytic domain is tethered to the membrane, with which it int...

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Veröffentlicht in:Journal of molecular biology 2014-02, Vol.426 (3), p.611-629
Hauptverfasser: Kearney, Bradley M., Johnson, Christian W., Roberts, Daniel M., Swartz, Paul, Mattos, Carla
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container_end_page 629
container_issue 3
container_start_page 611
container_title Journal of molecular biology
container_volume 426
creator Kearney, Bradley M.
Johnson, Christian W.
Roberts, Daniel M.
Swartz, Paul
Mattos, Carla
description Ras GTPase mediates several cellular signal transduction pathways and is found mutated in a large number of cancers. It is active in the GTP-bound state, where it interacts with effector proteins, and at rest in the GDP-bound state. The catalytic domain is tethered to the membrane, with which it interacts in a nucleotide-dependent manner. Here we present the program Detection of Related Solvent Positions (DRoP) for crystallographic water analysis on protein surfaces and use it to study Ras. DRoP reads and superimposes multiple Protein Data Bank coordinates, transfers symmetry-related water molecules to the position closest to the protein surface, and ranks the waters according to how well conserved and tightly clustered they are in the set of structures. Coloring according to this rank allows visualization of the results. The effector-binding region of Ras is hydrated with highly conserved water molecules at the interface between the P-loop, switch I, and switch II, as well as at the Raf-RBD binding pocket. Furthermore, we discovered a new conserved water-mediated H-bonding network present in Ras-GTP, but not in Ras-GDP, that links the nucleotide sensor residues R161 and R164 on helix 5 to the active site. The double mutant RasN85A/N86A, where the final link between helix 5 and the nucleotide is not possible, is a severely impaired enzyme, while the single mutant RasN86A, with partial connection to the active site, has a wild-type hydrolysis rate. DRoP was instrumental in determining the water-mediated connectivity networks that link two lobes of the catalytic domain in Ras. [Display omitted] •Water-mediated H-bonds link Ras active site to distant nucleotide sensing residues.•The new program DRoP automates water analysis on multiple protein structures.•DRoP was used to identify nucleotide-specific H-bonding networks on Ras-GTPase.•DRoP is available on a server through DRoPinTheMattosLab.org.
doi_str_mv 10.1016/j.jmb.2013.10.036
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subjects Catalytic Domain
Cell Membrane - metabolism
crystallographic water analysis
Crystallography
Crystallography, X-Ray
DRoP software
Guanosine Triphosphate - metabolism
Models, Molecular
Mutagenesis, Site-Directed
Mutation - genetics
Protein Binding
Protein Conformation
protein hydration
Ras GTPase
ras Proteins - chemistry
ras Proteins - genetics
ras Proteins - metabolism
Signal Transduction
Water - metabolism
water-mediated networks in protein structure
title DRoP: A Water Analysis Program Identifies Ras-GTP-Specific Pathway of Communication between Membrane-Interacting Regions and the Active Site
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