remove state in all .py files

testcases/avalanch/avalanch1fluid/avalanch1fluidfriction.py

@@ -82,7 +82,7 @@ fluid.set_wall_boundary("Left")
 fluid.set_wall_boundary("Top",pressure=0)
 fluid.set_wall_boundary("Right")
 # Set locations of the grains in the mesh and compute the porosity in each computation cell.
-fluid.set_particles(p.mass(), p.volume(), p.state(),p.contact_forces(),init=True)
+fluid.set_particles(p.mass(), p.volume(), p.position(), p.velocity(),p.contact_forces(),init=True)
 # Write output files for post-visualization.
 fluid.export_vtk(outputdir,0,0)
 

testcases/avalanch/avalanch1fluid/avalanch1fluidnofriction.py

@@ -113,7 +113,7 @@ fluid.set_strong_boundary("Top",1,0)
 fluid.set_strong_boundary("Left",0,0)
 fluid.set_strong_boundary("Right",0,0)
 # Set locations of the grains in the mesh and compute the porosity in each computation cell.
-fluid.set_particles(p.mass(), p.volume(), p.state(), p.contact_forces(), init=True)
+fluid.set_particles(p.mass(), p.volume(), p.position(), p.velocity(), p.contact_forces(), init=True)
 # Pressure initialization
 fluid.solution()[:,2] =  (H-fluid.coordinates()[:,1])*(-g[1])*rhof
 # Write output files for post-visualization.

testcases/avalanch/avalanch2fluids/avalanch2fluids.py

@@ -130,7 +130,7 @@ fluid.set_wall_boundary("Left")
 fluid.set_wall_boundary("Top",pressure=0)
 fluid.set_wall_boundary("Right")
 # Set location of the particles in the mesh and compute the porosity in each computation cell
-fluid.set_particles(p.mass(), p.volume(), p.state(), p.contact_forces(), init=True)
+fluid.set_particles(p.mass(), p.volume(), p.position(), p.velocity(), p.contact_forces(), init=True)
 #Access to fluid fields and node coordiantes
 s         =  fluid.solution()
 x         =  fluid.coordinates()

testcases/avalanch/avalanch2fluids/avalanch2fluidsnofriction.py

@@ -83,7 +83,7 @@ fluid.set_wall_boundary("Left")
 fluid.set_wall_boundary("Top",pressure=0)
 fluid.set_wall_boundary("Right")
 # Set location of the particles in the mesh and compute the porosity in each computation cell
-fluid.set_particles(p.mass(), p.volume(), p.state(),p.contact_forces(),init=True)
+fluid.set_particles(p.mass(), p.volume(), p.position(), p.velocity(),p.contact_forces(),init=True)
 # Access to fluid fields and node coordiantes
 s = fluid.solution()
 x = fluid.coordinates()

testcases/couette-2d/couette.py

@@ -117,7 +117,7 @@ fluid.set_wall_boundary("Outer",velocity=[0,0],pressure=0)
 fluid.set_strong_boundary("Inner",0,lambda x : (x[:,1]/rout)*0.1)
 fluid.set_strong_boundary("Inner",1,lambda x : (-x[:,0]/rout)*0.1)
 # Set location of the grains in the mesh and compute the porosity in each computation cell
-fluid.set_particles(p.mass(), p.volume(), p.state(), p.contact_forces(), init=True)
+fluid.set_particles(p.mass(), p.volume(), p.position(), p.velocity(), p.contact_forces(), init=True)
 fluid.export_vtk(outputdir,0,0)
 tic = time.time()
 # 

testcases/depot-2d/depot.py

@@ -109,7 +109,7 @@ fluid.set_wall_boundary("Bottom")
 fluid.set_wall_boundary("Lateral")
 fluid.set_wall_boundary("Top",pressure=0)
 # Set location of the particles in the mesh and compute the porosity in each computation cell
-fluid.set_particles(p.mass(), p.volume(), p.state(), p.contact_forces(),init=True)
+fluid.set_particles(p.mass(), p.volume(), p.position(), p.velocity(), p.contact_forces(),init=True)
 fluid.export_vtk(outputdir,0,0)
 p.write_vtk(outputdir, 0, 0)
 

testcases/depot-3d/depot.py

@@ -104,7 +104,7 @@ fluid.set_wall_boundary("Bottom")
 fluid.set_wall_boundary("X")
 fluid.set_wall_boundary("Z")
 #Set location of the particles in the mesh and compute the porosity in each computation cell
-fluid.set_particles(p.mass(), p.volume(), p.state(),p.contact_forces(),init=True)
+fluid.set_particles(p.mass(), p.volume(), p.position(), p.velocity(), p.contact_forces(),init=True)
 
 tic = time.time()
 fluid.export_vtk(outputdir,0,0)

testcases/deprecated/hydro-quebec-2d/run.py

@@ -80,7 +80,7 @@ ii = 0
 mv.velocity = -1/tEnd
 p.setBoundaryVelocity("Pile", [0, mv.velocity])
 
-fluid.set_particles(p.mass(), p.volume(), p.state())
+fluid.set_particles(p.mass(), p.volume(), p.position(), p.velocity())
 p.write_vtk(outputdir, ii, t)
 p.write_boundary_vtk(outputdir, ii, t)
 fluid.write_solution(outputdir, ii, t, "vtk")
@@ -91,7 +91,7 @@ while t < tEnd :
     forces = fluid.solve()
     p.iterate(dt, forces)
     fluid.set_mesh_position(fluid.mesh_position() + mv.call(fluid.mesh_position()) * dt)
-    fluid.set_particles(p.mass(), p.volume(), p.state())
+    fluid.set_particles(p.mass(), p.volume(), p.position(), p.velocity())
     mv.position += dt * mv.velocity
     t += dt
     ii += 1

testcases/deprecated/hydro-quebec-3d/run.py

@@ -83,7 +83,7 @@ mv.position = 0.5
 t = 0
 ii = 0
 
-fluid.set_particles(p.mass(), p.volume(), p.state())
+fluid.set_particles(p.mass(), p.volume(), p.position(), p.velocity())
 p.write(outputdir, ii, t)
 fluid.write_solution(outputdir, ii, t)
 fluid.write_position(outputdir, ii, t)
@@ -96,7 +96,7 @@ while t < tEnd :
     forces = fluid.solve()
     p.iterate(dt, forces)
     fluid.set_mesh_position(fluid.mesh_position() + mv.cb(fluid.mesh_position()) * dt)
-    fluid.set_particles(p.mass(), p.volume(), p.state())
+    fluid.set_particles(p.mass(), p.volume(), p.position(), p.velocity())
     mv.position += dt * mv.velocity
     t += dt
     ii += 1

testcases/drag-2d/drag.py

@@ -54,12 +54,11 @@ filename = outputdir + "/Drag.csv"
 #Injected particles
 p = scontact.ParticleProblem(2,True,True)
 p.read_vtk("depot/outputNotOk",10)
-p.remove_particles_flag((p.state().x[:,1]-p.r()[:,0]>0.5)*(p.state().x[:,1]+p.r()[:,0] <0.61))
+p.remove_particles_flag((p.position()[:,1]-p.r()[:,0]>0.5)*(p.position()[:,1]+p.r()[:,0] <0.61))
 #Flow particles
 p2 = scontact.ParticleProblem(2,True,True)
 p2.read_vtk("depot/outputNotOk",10)
-state2 = p2.state()
-p2.remove_particles_flag(state2.x[:,1]+p2.r()[:,0] <0.5)
+p2.remove_particles_flag(p2.position()[:,1]+p2.r()[:,0] <0.5)
 p2.clear_boundaries()
 p2.load_msh_boundaries("mesh.msh", ["Inner","Left","Right"],material = "Steel") 
 p2.set_friction_coefficient(0.3,"Sand","Sand")
@@ -75,7 +74,7 @@ p2.write_vtk(outputdir, 0, 0)
 #fluid.set_wall_boundary("Right", velocity = [0,0])
 #fluid.set_open_boundary("Bottom", velocity = [0,vit])
 #fluid.set_open_boundary("Top",pressure = 0)
-#fluid.set_particles(p2.mass(), p2.volume(), state2, p2.contact_forces(),init=True)
+#fluid.set_particles(p2.mass(), p2.volume(), p2.position(), p2.velocity(), p2.contact_forces(),init=True)
 #fluid.export_vtk(outputdir, 0.,0)
 # 
 # COMPUTATION LOOP
@@ -83,17 +82,15 @@ p2.write_vtk(outputdir, 0, 0)
 def accumulate(F,nsub):
   F+=np.sum(p2.get_boundary_forces("Inner"),axis=0)/nsub
 while t < tEnd : 
-     state2 = p2.state()
-     p2.forced_flag()[(state2.x[:,1] + p2.r()[:,0] <= -0.5)] = 1
+     p2.forced_flag()[(p2.position()[:,1] + p2.r()[:,0] <= -0.5)] = 1
      if t > 2:
-       state2.v[p2.forced_flag()==1,:] = [0, vit]
+       p2.velocity()[p2.forced_flag()==1,:] = [0, vit]
      else :
-       state2.v[p2.forced_flag()==1,:] = [0, 0]
-     state2.omega[p2.forced_flag()==0] = 1
-     p2.set_state(state2)
-     if  max(p2.state().x[:,1]+p2.r()[:,0]) < 0.5 and t < 9 :
-       p2.add_particles(p.state().x,p.r(),p.mass(),v=p.state().v,tag="Sand",forced=p.forced_flag(),contact_forces=p.contact_forces())
-     p2.remove_particles_flag( (p2.state().x[:,1] + p2.r()[:,0] >-0.55))
+       p2.velocity()[p2.forced_flag()==1,:] = [0, 0]
+     p2.omega()[p2.forced_flag()==0] = 1
+     if  max(p2.position()[:,1]+p2.r()[:,0]) < 0.5 and t < 9 :
+       p2.add_particles(p.position(),p.r(),p.mass(),v=p.velocity(),tag="Sand",forced=p.forced_flag(),contact_forces=p.contact_forces())
+     p2.remove_particles_flag( (p2.position()[:,1] + p2.r()[:,0] >-0.55))
      F = np.zeros(2)
      #time_integration.particle_changed(fluid,p2)
      time_integration.iterate(None,p2,dt,1,contact_tol=5e-7,external_particles_forces=g*p2.mass(),after_sub_iter=lambda nsub : accumulate(F,nsub))

testcases/drag-3d/drag.py

@@ -60,14 +60,12 @@ filename = outputdir + "/Drag.csv"
 #Injected particles
 p = scontact.ParticleProblem(3,True,True)
 p.read_vtk("depot/"+ str(numDep),2)
-p.remove_particles_flag((p.state().x[:,1]-p.r()[:,0]>0.5)*(p.state().x[:,1]+p.r()[:,0] <0.52))
-state = p.state()
-state.v[:,1] = vit
-p.set_state(state)
+p.remove_particles_flag((p.position()[:,1]-p.r()[:,0]>0.5)*(p.position()[:,1]+p.r()[:,0] <0.52))
+p.velocity()[:,1] = vit
 #Flow particles
 p2 = scontact.ParticleProblem(3,True,True)
 p.read_vtk("depot/"+ str(numDep),2)
-p2.remove_particles_flag(p2.state().x[:,1]+p2.r()[:,0] <0.5)
+p2.remove_particles_flag(p2.position()[:,1]+p2.r()[:,0] <0.5)
 p2.clear_boundaries()
 p2.load_msh_boundaries("mesh.msh", ["Inner","Left", "Right","Front","Rear"],material = "Steel")
 p2.set_friction_coefficient(mupart,"Sand","Sand")
@@ -93,14 +91,12 @@ p2.write_vtk(outputdir, 0, 0)
 def accumulate(F,nsub):
   F+=np.sum(p2.get_boundary_forces("Inner"),axis=0)/nsub
 while t < tEnd : 
-     state2 = p2.state()
-     p2.forced_flag()[(state2.x[:,1] + p2.r()[:,0] <= -0.5)] = 1
-     state2.v[p2.forced_flag()==1,:] = [0, vit, 0]
-     state2.omega[p2.forced_flag()==1,:] = [0,0,0]
-     p2.set_state(state2)
-     if  max(p2.state().x[:,1]+p2.r()[:,0]) < 0.5 and t < 21 :
-       p2.add_particles(p.state().x,p.r(),p.mass(),v=p.state().v,tag="Sand",forced=p.forced_flag(),contact_forces=p.contact_forces())
-     p2.remove_particles_flag( (p2.state().x[:,1] + p2.r()[:,0] >-0.52))
+     p2.forced_flag()[(p2.position()[:,1] + p2.r()[:,0] <= -0.5)] = 1
+     p2.velocity()[p2.forced_flag()==1,:] = [0, vit, 0]
+     p2.omega()[p2.forced_flag()==1,:] = [0,0,0]
+     if  max(p2.position()[:,1]+p2.r()[:,0]) < 0.5 and t < 21 :
+       p2.add_particles(p.position(),p.r(),p.mass(),v=p.velocity(),tag="Sand",forced=p.forced_flag(),contact_forces=p.contact_forces())
+     p2.remove_particles_flag( (p2.position()[:,1] + p2.r()[:,0] >-0.52))
      F = np.zeros(3)
      #time_integration.particle_changed(fluid,p2)
      time_integration.iterate(None,p2,dt,1,contact_tol=1e-6,external_particles_forces=g*p2.mass(),after_sub_iter=lambda nsub : accumulate(F,nsub))

testcases/drop-2d/InteractingDrops/Diag/2DiagDrops.py

@@ -123,7 +123,7 @@ fluid.set_wall_boundary("Top", pressure=0)
 fluid.set_wall_boundary("Bottom")
 fluid.set_wall_boundary("Lateral")
 # Set location of the particles in the mesh and compute the porosity in each computation cell
-fluid.set_particles(p.mass(), p.volume(), p.state(),p.contact_forces(),init=True)
+fluid.set_particles(p.mass(), p.volume(), p.position(), p.velocity(),p.contact_forces(),init=True)
 fluid.solution()[:,2] =  (H-(fluid.coordinates()[:,1]+0.25))*(-g[1])*rho
 
 t = 0

testcases/drop-2d/InteractingDrops/Vert/2VertDrops.py

@@ -123,7 +123,7 @@ fluid.set_wall_boundary("Top", pressure=0)
 fluid.set_wall_boundary("Bottom")
 fluid.set_wall_boundary("Lateral")
 # Set location of the particles in the mesh and compute the porosity in each computation cell
-fluid.set_particles(p.mass(), p.volume(), p.state(),p.contact_forces(),init=True)
+fluid.set_particles(p.mass(), p.volume(), p.position(), p.velocity(),p.contact_forces(),init=True)
 fluid.solution()[:,2] =  (H-(fluid.coordinates()[:,1]+0.25))*(-g[1])*rho
 
 t = 0

testcases/drop-2d/SimpleDrop/drop.py

@@ -116,7 +116,7 @@ fluid.set_wall_boundary("Top", pressure=0)
 fluid.set_wall_boundary("Bottom")
 fluid.set_wall_boundary("Lateral")
 # Set location of the particles in the mesh and compute the porosity in each computation cell
-fluid.set_particles(p.mass(), p.volume(), p.state(),p.contact_forces(),init=True)
+fluid.set_particles(p.mass(), p.volume(), p.position(), p.velocity(),p.contact_forces(),init=True)
 
 t = 0
 fluid.solution()[:,2] = (fluid.coordinates()[:,1]-0.6)*rho*g[1]

testcases/drop-2d/SimpleDrop/dropReload.py

@@ -82,7 +82,7 @@ fluid.set_wall_boundary("Bottom")
 fluid.set_wall_boundary("Lateral")
 fluid.import_vtk(outputrel+"/fluid_%05d.vtu"%iReload)
 
-fluid.set_particles(p.mass(), p.volume(), p.state(),reload=1)
+fluid.set_particles(p.mass(), p.volume(), p.position(), p.velocity(),reload=1)
 ii = (iReload-1)*outf+1
 t=ii*dt
 
@@ -111,7 +111,7 @@ while t < tEnd :
         p.iterate(dt/nsub, forces)  
 
     t += dt
-    fluid.set_particles(p.mass(), p.volume(), p.state())
+    fluid.set_particles(p.mass(), p.volume(), p.position(), p.velocity())
 
     # Output files writting
     if ii %outf == 0 :

testcases/drop-3d/InteractingDrops/Diag/2DiagDrops.py

@@ -129,7 +129,7 @@ H = 0.5
 fluid.solution()[:,3] =  (H-(fluid.coordinates()[:,1]+0.25))*(-g[1])*rho
 
 # Set location of the particles in the mesh and compute the porosity in each computation cell
-fluid.set_particles(p.mass(), p.volume(), p.state(), p.contact_forces(),init=True)
+fluid.set_particles(p.mass(), p.volume(), p.position(), p.velocity(), p.contact_forces(),init=True)
 
 t = 0
 fluid.export_vtk(outputdir,0,0)

testcases/drop-3d/InteractingDrops/DifferentDensities/2DDDrops.py

@@ -139,7 +139,7 @@ H = 0.5
 fluid.solution()[:,3] =  (H-(fluid.coordinates()[:,1]+0.25))*(-g[1])*rho
 
 # Set location of the particles in the mesh and compute the porosity in each computation cell
-fluid.set_particles(p.mass(), p.volume(), p.state(), p.contact_forces(),init=True)
+fluid.set_particles(p.mass(), p.volume(), p.position(), p.velocity(), p.contact_forces(),init=True)
 
 t = 0
 fluid.export_vtk(outputdir,0,0)

testcases/drop-3d/InteractingDrops/Vert/2VertDrops.py

@@ -128,7 +128,7 @@ H = 0.5
 fluid.solution()[:,3] =  (H-(fluid.coordinates()[:,1]+0.25))*(-g[1])*rho
 
 # Set location of the particles in the mesh and compute the porosity in each computation cell
-fluid.set_particles(p.mass(), p.volume(), p.state(),p.contact_forces(),init=True)
+fluid.set_particles(p.mass(), p.volume(), p.position(), p.velocity(),p.contact_forces(),init=True)
 
 t = 0
 tic = time.time()

testcases/drop-3d/SimpleDrop/drop.py

@@ -114,7 +114,7 @@ fluid.set_wall_boundary("X")
 fluid.set_wall_boundary("Z")
 fluid.solution()[:,3] = (fluid.coordinates()[:,1]-0.6)*rho*g[1]
 # Set location of the particles in the mesh and compute the porosity in each computation cell
-fluid.set_particles(p.mass(), p.volume(), p.state(), p.contact_forces(), init=True)
+fluid.set_particles(p.mass(), p.volume(), p.position(), p.velocity(), p.contact_forces(), init=True)
 
 t = 0
 fluid.export_vtk(outputdir,0,0)

testcases/funnel/depot.py

@@ -93,11 +93,11 @@ fluid.set_wall_boundary("Lateral")
 fluid.set_wall_boundary("Funnel")
 fluid.set_open_boundary("Hole", pressure=0)
 
-fluid.set_particles(p.mass(), p.volume(), p.state())
+fluid.set_particles(p.mass(), p.volume(), p.position(), p.velocity())
 fluid.export_vtk(outputdir,0,0)
 
 tic = time.time()
-fluid.set_particles(p.mass(), p.volume(), p.state())
+fluid.set_particles(p.mass(), p.volume(), p.position(), p.velocity())
 while t < tEnd : 
     fluid.implicit_euler(dt)
     forces = fluid.compute_node_force(dt)
@@ -107,7 +107,7 @@ while t < tEnd :
     print("NSUB", nsub,"VMAX",vmax, "VMAX * dt", vmax * dt, "r", min(p.r()))
     for i in range(nsub) :
         p.iterate(dt/nsub, forces,1e-6)  
-    fluid.set_particles(p.mass(), p.volume(), p.state())
+    fluid.set_particles(p.mass(), p.volume(), p.position(), p.velocity())
     t += dt
     if ii %outf == 0 :
         ioutput = int(ii/outf) + 1