reemharel22 / hydro-ped

Hydro Poro-elastic Damage Simulation

Hydro-PED: Hydro Poro-elastic damage simulation

Hydro-PED models nucleation and propagation of damage zones and seismicity patterns induced by wellbore fluid injection. The model formulation of Hydro-PED accounts for the following general aspects of brittle rock deformation: (1) Nonlinear elasticity that connects the effective elastic moduli to a damage variable and loading conditions; (2) Evolution of the damage variable as a function of the ongoing deformation and gradual conversion of elastic strain to permanent inelastic deformation during material degradation; (3) Macro- scopic brittle instability at a critical level of damage and related rapid conversion of elastic strain to permanent inelastic strain; (4) Coupling between deformation and porous fluid flow through poro-elastic constitutive relationships incorporating damage rheology with Biot's poroelasticity.

A Doxygen documentation of the code is available at (https://harellevin.github.io/hydroped).

Instructions

Requirements

1. C++ and Fortran compiler (as GNU, Intel or XL).
2. BLAS implementation (OpenBLAS, MKL, ESSL, etc.).
3. LLNL's Trilinos (link), built with one the following packages:
   • Belos
   • TeuchosCore
   • TeuchosComm
   • TeuchosRemainder
   • TeuchosParameterList
   • TeuchosNumerics
4. And one of the following Trilinos package combinations:

Templated Version	Basic Version
Tpetra	Epetra
BelosTpetra	BelosEpetra
Kokkos

Compilation

1. Edit the places marked on make.inc.AIX or make.inc.Linux (depends on your OS).
2. make
3. ./poro.exe

The tool iaja.f creates CSR coordinates according to nodes.dat and elements.dat. The tool dat2tec.f90 converts *.nodes.dat and *.tetra.dat output files to tecplot files.

Citation

If you use the code for science or any form of scientific and technical dissemination activity, we kindly ask to cite the code using the following references:

• Shalev, E., Lyakhovsky, V.: Modeling reservoir stimulation induced by wellbore fluid injection. In: Thirty Eighth Workshop on Geothermal Reservoir Engineering, Stanford University Stanford, California (2013) Additionally, please cite

@inproceedings{DBLP:conf/parco/LevinOSL19.bib,
  author    = {Harel Levin, 
               Gal Oren, 
               Eyal Shalev and 
               Vladimir Lyakhovsky},
  editor    = {Ian Foster and
               Gerhard R. Joubert and
               Luděk Kučera and
               Wolfgang E. Nagel and
               Frans Peters},
  title     = {Acceleration of Hydro Poro-Elastic Damage Simulation in a Shared-Memory Environment},
  booktitle = {Parallel Computing: Technology Trends, Proceedings of the International
               Conference on Parallel Computing, Prague, Czech Republic, 10-13 September 2019},
  series    = {Advances in Parallel Computing},
  volume    = {36},
  pages     = {341--353},
  publisher = {{IOS} Press},
  year      = {2020},
  doi       = {10.3233/APC200075},
  biburl    = {https://dblp.org/rec/conf/parco/LevinOSL19.bib},
  bibsource = {dblp computer science bibliography, https://dblp.org}
}