Computational data for: Mutations in Mig6 reduce inhibition of the epidermal growth factor receptor
Data files
Jun 27, 2025 version files 4.64 GB
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G344R_mut.tar.gz
1.15 GB
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no_mut.tar.gz
1.16 GB
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P377S_mut.tar.gz
1.16 GB
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README.md
3.39 KB
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S390N_mut.tar.gz
1.16 GB
Abstract
Mitogen-inducible gene 6 (Mig6) is a cellular inhibitor of epidermal growth factor receptor (EGFR) that binds directly to the EGFR kinase domain and interferes with signaling. Reduced Mig6 expression is correlated with increased EGFR activity in multiple cancer models. Here, we investigated whether disease-associated point mutations could reduce the inhibitory potency of Mig6. We show that several cancer-associated mutations, and a mutation derived from Alzheimer's Disease patients, diminish the ability of Mig6 to bind and inhibit EGFR in vitro. In mammalian cells, the mutations decreased the Mig6-induced suppression of basal and EGF-stimulated autophosphorylation, MAP kinase phosphorylation, and cell migration. To probe the mechanisms by which the mutations could lead to reduced Mig6 inhibition, we constructed atomic-level computational models of Mig6 complexed with the EGFR catalytic domain and performed molecular dynamics simulations for wild-type and mutant complexes.
Description of the data and file structure
Atomic-level AMBER program (version 22) input and output files are provided for molecular dynamics (MD) setups and simulations of MIG6 (wildtype, G334R, S390N, and P377S variants) complexed EGFR and solvated in TIP3P water. In this repository, there are four mutations of pdb 4ZJV used for the corresponding work.
Files and variables
Download folder structure
Each tar.gz folder represents one of the four mutations.
- wild-type or
no_mut.tar.gz - G344R mutation or
G344R_mut.tar.gz - S390N mutation or
S390N_mut.tar.gz - P377S mutation or
P377S_mut.tar.gz
Folder structure for each download xxx.tar.gz folder
Each xxx.tar.gz contains three folders:
01_prep: prepared models for modeling using equilibration and production MD02_equi: input and output files for equilibrating models03_production: input and output files for production MD for only first seed (6 seeds total)
01_prep folder contents
Here, 01_prep contains the prepared models for the solvated (wet) and unsolvated (gas) in the form of .prmtop and .rst7 files.
4zjv.gas.complex.prmtop: Topology for gas-phase complex4zjv.wet.complex.prmtop: Topology for solvated complex4zjv.gas.complex.rst7: Coordinates and velocities for gas-phase complex4zjv.wet.complex.rst7: Coordinates and velocities for solvated complex
02_equi folder contents
Here, 02_equi contains the input and outputs of the 9-step equilibration and minimization protocol. Please refer to the original work in Table 1. The folder will contain five file types:
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.info– Metadata or descriptive information -
.mdin– Input parameters for the MD simulation -
.mdout– Output logs from the MD run -
.rst7– Restart files containing updated coordinates -
.trj– Trajectory files storing atomic positions during simulationEach file will have the protocol step number, min or equi tag, and the file type embbeded into the file names.
Naming convention:
Each file includes the step number, the type of step (min for minimization or equi for equilibration), and the file type.
For example:
01.min.trj→ Trajectory file from step 1 (minimization)03.equi.mdout→ Output log from step 3 (equilibration)
For example:
01.min.trj means step one in the protocol (01), where it is the minimization (min) and its a trajectory file. (.trj)
03_production
Here, we have five files for the first seed of the production MD simulation.
prod1.info– Descriptive info about this production run
prod1.mdin– Input parameters for production MDprod1.mdout– Output logprod1.rst7– Final restart fileprod1.trj– Trajectory of the MD simulation
Software Used
The simulations and data were generated using tools from the AMBER22 software suite:
tleap – for system preparation
pmemd.mpi – for running the MD simulations in parallel
Both programs are included in the AMBER22 package.
Access information
Data was derived from the following sources:
- We used pdb system 4ZJV to prepare the wildtype and mutated models.
