revision of paper

examples/02_pump_test_het_3D.py

@@ -8,11 +8,11 @@
 srf = SRF(model=cov_model, mean=-9, seed=1000)
 # ogs base class
 model = OGS(task_root="test_het_3D", task_id="model", output_dir="out")
-# generate a radial 3D mesh and  conductivity field
+# generate a radial 3D mesh and conductivity field
 model.gli.generate("radial", dim=3, angles=64, rad_out=100, z_size=-10)
 model.gli.add_polyline("pwell", [[0, 0, 0], [0, 0, -10]])
 model.msh.generate(
-    "radial", dim=3, angles=64, rad=np.arange(101), z_arr=-np.arange(11),
+    "radial", dim=3, angles=64, rad=np.arange(101), z_arr=-np.arange(11)
 )
 cond = np.exp(srf.mesh(model.msh))
 mpd = MPD(model.task_id)
@@ -36,28 +36,21 @@
     GEO_TYPE=["POLYLINE", "pwell"],
     DIS_TYPE=["CONSTANT_NEUMANN", -1.0e-3],
 )
-model.ic.add_block(  # set the initial condition
-    PCS_TYPE="GROUNDWATER_FLOW",
-    PRIMARY_VARIABLE="HEAD",
-    GEO_TYPE="DOMAIN",
-    DIS_TYPE=["CONSTANT", 0.0],
-)
 model.mmp.add_block(  # permeability, storage and porosity
     GEOMETRY_DIMENSION=3,
     STORAGE=[1, 1.0e-4],
     PERMEABILITY_DISTRIBUTION=model.task_id + ".mpd",
     POROSITY=0.2,
 )
 model.num.add_block(  # numerical solver
-    PCS_TYPE='GROUNDWATER_FLOW',
+    PCS_TYPE="GROUNDWATER_FLOW",
     LINEAR_SOLVER=[2, 5, 1.0e-14, 1000, 1.0, 100, 4],
 )
 model.out.add_block(  # set the outputformat
     PCS_TYPE="GROUNDWATER_FLOW",
     NOD_VALUES="HEAD",
     GEO_TYPE="DOMAIN",
     DAT_TYPE="PVD",
-    TIM_TYPE=["STEPS", 1],
 )
 model.pcs.add_block(  # set the process type
     PCS_TYPE="GROUNDWATER_FLOW", NUM_TYPE="NEW", TIM_TYPE="STEADY"

paper/paper.bib

@@ -8,7 +8,7 @@ @misc{zenodo_ogs5py
 }
 
 @misc{zenodo_gstools,
-  author       = {Sebastian Müller, Lennart Schüler},
+  author       = {Sebastian Müller and Lennart Schüler},
   title        = {gstools},
   month        = jan,
   year         = 2019,