Check converg3

cgyro/bin/cgyro_converge

@@ -9,18 +9,25 @@ from pygacode.cgyro import data
 from pygacode.gacodefuncs import *
 
 
-directory="/global/cfs/cdirs/cgyrodb/"
+# --- to visualize results for one case plot=True------
+plot=True
 
-fout = "./cases_results.txt"
-fo = open(fout, "w")
+if plot:
+    directory='./'
+    write_output=False
+else:
+    directory= "/global/cfs/cdirs/cgyrodb/"
+    write_output=True
+    fout = "./cases_results_20%.txt"
+    fo = open(fout, "w")
 
 
 for path, folders, files in os.walk(directory):
     # Open file#
     for filename in files:
       if 'out.cgyro.info' in filename:
-
-        fo.write(f"#-----{path}-----#")
+        if write_output:          
+           fo.write(f"#-----{path}-----#")
         # read minimal data for setup (look in current directory)
         sim = data.cgyrodata(f'{path}/',fast=True,silent=True)
 
@@ -34,8 +41,9 @@ for path, folders, files in os.walk(directory):
 
         # Simulation length (max time)
         tmax = t[-1]
-        #if len(t)!=tmax:
-          # fo.write("!! Problem with a time array !!")
+
+
+
 
         # size and number of time windows
         #dt = 50.0
@@ -45,48 +53,64 @@ for path, folders, files in os.walk(directory):
         t0 = tmax-nwin*dt
 
 
-        #add plot for visualization
-        #fig = plt.figure(figsize=(12,6))
+        if plot:
+         #add plot for visualization
+         fig = plt.figure(figsize=(12,6))
+
+         plt.xlabel('time [$c_s$/a]')
+         plt.ylabel('Flux')
+         colors = mpl.cm.rainbow(np.linspace(0, 1, nwin))
+
 
-        #plt.xlabel('time [$c_s$/a]')
-        #plt.ylabel('Flux')
-        colors = mpl.cm.rainbow(np.linspace(0, 1, nwin))
         convergance = True
 
         # select field=0 (phi), moment=1 (Q), species (0), and sum over kx
         for species_index in range(ns):
           field=0 ; moment=1 ; 
           species=species_index
           y = np.sum(sim.ky_flux[species,moment,field,:,:],axis=0)
-          #plt.plot(t,y, label=f"Q_{species_index}", linestyle=linestyles[species_index], color=colors[species_index])
+
+          if plot:
+           plt.plot(t,y, label=f"Q_{species_index}", linestyle=linestyles[species_index], color=colors[species_index])
+
           average_array=[]
 
          # averaging over all windows (note that time_average function is fast/optimized)
           for i in range(nwin):
             w=str(tmax-(i+1)*dt)+','+str(tmax-i*dt)
-            imin,imax=time_index(t,w)
-
+
+            imin,imax=time_index(t,w)               
 
-            if imax>tmax:
-               fo.write("!! Problem with a time array !!")
             ave = time_average(y[:],t,imin,imax)
             average_array.append(ave)
-            #plt.hlines(y=ave, xmin=imin, xmax=imax, color=colors[i], lw=3, linestyle=linestyles[species_index])
+            if plot:
+              plt.hlines(y=ave, xmin=t[imin], xmax=t[imax], color=colors[i], lw=3, linestyle=linestyles[species_index])
+
 
 
 
 
 
 
         # define the convergence by std between last free averaged regions as a pesentage to the total
-          if np.std(average_array[:3]/np.mean(average_array[:3])) > 0.1:
-            convergance = False
 
+          if np.std(average_array[:3]/np.mean(average_array[:3])) > 0.2:
+            convergance = False
+
         if convergance:
-            fo.write("TRUE \n")
+            if write_output:
+              fo.write("TRUE \n")
+            else:
+               plt.title('Converged')
         else:
-            fo.write("FALSE \n")
-        #plt.legend()
-        #plt.show()
+            if write_output:
+              fo.write("FALSE \n")
+            else:
+              plt.title("Didn't converge")
+
+        if plot:
+          plt.legend()
+          plt.show()
+