1 | #------------------------------------------------------------------------------ |
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2 | # Import necessary modules |
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3 | #------------------------------------------------------------------------------ |
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4 | import anuga |
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5 | import subprocess |
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6 | import csv |
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7 | import os |
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8 | import time |
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9 | from anuga.abstract_2d_finite_volumes.util import add_directories |
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10 | from anuga.utilities.log_analyser import analyse_log |
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11 | |
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12 | #------------------------------------------------------------------------------ |
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13 | # Set up variables for the correct directories to store the output |
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14 | #------------------------------------------------------------------------------ |
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15 | home = os.getenv('INUNDATIONHOME') |
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16 | scenariodir = add_directories(home, ["data","mem_time_test", "triangles", |
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17 | "fromregions"]) |
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18 | meta = 'metalog.csv' |
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19 | meta_path = os.path.join(scenariodir, meta) |
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20 | final = 'final.csv' |
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21 | final_path = os.path.join(scenariodir, final) |
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22 | |
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23 | #these are the main loops that determine the maximum triangle area (m) and the map side length(n) |
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24 | for m in range(20,1000,50): |
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25 | for n in range(1,100000,10000): |
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26 | subprocess.call(['python2.5', 'runcairns.py',str(m),str(n)])#run simulation |
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27 | print 'DONE' |
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28 | |
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29 | #get the important data for the experiments from the anuga experiments |
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30 | analyse_log(scenariodir, os.path.join(scenariodir,'metalog.csv')) |
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31 | |
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32 | #open files to read from and write to |
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33 | metalog = csv.reader(open(meta_path,'rb')) |
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34 | final = csv.writer(open(final_path,'wb')) |
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35 | |
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36 | #list stores the index of the values requird |
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37 | indexlist = [] |
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38 | |
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39 | #read in the first row |
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40 | firstrow = metalog.next() |
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41 | |
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42 | #get the indices of the values we want, so that the data can be condensed |
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43 | indexlist.append(firstrow.index("beforetime")) |
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44 | indexlist.append(firstrow.index("aftertime")) |
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45 | indexlist.append(firstrow.index("aftermeshtime")) |
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46 | indexlist.append(firstrow.index("beforesimulationmemory")) |
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47 | indexlist.append(firstrow.index("aftermeshmemory")) |
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48 | indexlist.append(firstrow.index("afterinitialconditionsmemory")) |
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49 | indexlist.append(firstrow.index("afterboundarymemory")) |
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50 | indexlist.append(firstrow.index("aftersimulationmemory")) |
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51 | indexlist.append(firstrow.index("trianglearea")) |
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52 | indexlist.append(firstrow.index("extent")) |
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53 | indexlist.append(firstrow.index("numberoftriangles")) |
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54 | |
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55 | |
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56 | #write the header for the final csv |
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57 | final.writerow(["TimeTaken(s)","MeshTime(s)", |
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58 | firstrow[(indexlist[3])],firstrow[(indexlist[4])], |
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59 | firstrow[(indexlist[5])],firstrow[(indexlist[6])], |
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60 | firstrow[(indexlist[7])],firstrow[(indexlist[8])], |
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61 | firstrow[(indexlist[9])],firstrow[(indexlist[10])]]) |
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62 | |
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63 | #write the data for each column in the final csv |
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64 | for row in metalog: |
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65 | |
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66 | #manipulate the beginning and end time to get the time taken |
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67 | begin = time.strptime(row[(indexlist[0])],'%Y%m%d_%H%M%S') |
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68 | end = time.strptime(row[(indexlist[1])],'%Y%m%d_%H%M%S') |
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69 | mesh = time.strptime(row[(indexlist[2])],'%Y%m%d_%H%M%S') |
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70 | taken = time.mktime(end) - time.mktime(begin) |
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71 | meshtime = time.mktime(mesh) - time.mktime(begin) |
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72 | |
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73 | #write to file |
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74 | final.writerow([str(taken),str(meshtime), |
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75 | row[(indexlist[3])],row[(indexlist[4])], |
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76 | row[(indexlist[5])],row[(indexlist[6])], |
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77 | row[(indexlist[7])],row[(indexlist[8])], |
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78 | row[(indexlist[9])],row[(indexlist[10])]]) |
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