@@ -21,20 +21,22 @@ def plot_line_rel(csv, ax, title):
2121 for benchmark in data ['benchmark' ]:
2222 row = data [data ['benchmark' ] == benchmark ]
2323 plot_data = [
24- # row['ms (rean)'].values[0] / row['ms (init)'].values[0],
24+ row ['ms (rean)' ].values [0 ] / row ['ms (init)' ].values [0 ],
2525 row ['ms (NoOpt)' ].values [0 ] / row ['ms (rean)' ].values [0 ],
26- row ['ms (CI)' ].values [0 ] / row ['ms (rean)' ].values [0 ],
27- row ['ms (DI)' ].values [0 ] / row ['ms (rean)' ].values [0 ],
28- row ['ms (CI-DI)' ].values [0 ] / row ['ms (rean)' ].values [0 ],
29- row ['ms (WI)' ].values [0 ] / row ['ms (rean)' ].values [0 ],
30- row ['ms (DI-WI)' ].values [0 ] / row ['ms (rean)' ].values [0 ],
31- row ['ms (CI-WI)' ].values [0 ] / row ['ms (rean)' ].values [0 ],
32- row ['ms (CI-DI-WI)' ].values [0 ] / row ['ms (rean)' ].values [0 ],
26+ # row['ms (CI)'].values[0] / row['ms (rean)'].values[0],
27+ # row['ms (DI)'].values[0] / row['ms (rean)'].values[0],
28+ # row['ms (CI-DI)'].values[0] / row['ms (rean)'].values[0],
29+ # row['ms (WI)'].values[0] / row['ms (rean)'].values[0],
30+ # row['ms (DI-WI)'].values[0] / row['ms (rean)'].values[0],
31+ # row['ms (CI-WI)'].values[0] / row['ms (rean)'].values[0],
32+ # row['ms (CI-DI-WI)'].values[0] / row['ms (rean)'].values[0],
33+ row ['ms (CI-DI-WI+CY)' ].values [0 ] / row ['ms (rean)' ].values [0 ],
3334 ]
3435 ax .plot (plot_data , label = benchmark )
3536 ax .set_xlabel (title )
36- ax .set_xticklabels (['none' , 'NoOpt' , 'CI' , 'DI' , 'CI-DI' , 'WI' , 'DI-WI' , 'CI-WI' , 'CI-DI-WI' ])
37- ax .set_ylabel ('Relative time to reanalysis' )
37+ ax .set_xticklabels (['none' , 'Unoptimised' , 'Optimised' ])
38+ # ax.set_xticklabels(['none', 'NoOpt', 'CI', 'DI', 'CI-DI', 'WI', 'DI-WI', 'CI-WI', 'CI-DI-WI'])
39+ ax .set_ylabel ('Time relative to reanalysis' )
3840 ax .set_yscale ('log' )
3941
4042def plot_line (csv , ax , title ):
@@ -44,36 +46,40 @@ def plot_line(csv, ax, title):
4446 plot_data = [
4547 row ['ms (rean)' ].values [0 ],
4648 row ['ms (NoOpt)' ].values [0 ],
47- row ['ms (CI)' ].values [0 ],
48- row ['ms (DI)' ].values [0 ],
49- row ['ms (CI-DI)' ].values [0 ],
50- row ['ms (WI)' ].values [0 ],
51- row ['ms (DI-WI)' ].values [0 ],
52- row ['ms (CI-WI)' ].values [0 ],
53- row ['ms (CI-DI-WI)' ].values [0 ],
49+ #row['ms (CI)'].values[0],
50+ #row['ms (DI)'].values[0],
51+ #row['ms (CI-DI)'].values[0],
52+ #row['ms (WI)'].values[0],
53+ #row['ms (DI-WI)'].values[0],
54+ #row['ms (CI-WI)'].values[0],
55+ #row['ms (CI-DI-WI)'].values[0],
56+ row ['ms (CI-DI-WI+CY)' ].values [0 ],
5457 ]
5558 ax .plot (plot_data , label = benchmark )
5659 ax .set_xlabel (title )
5760 ax .set_yscale ('log' )
58- ax .set_xticklabels (['none' , 'rean' , 'NoOpt' , 'CI' , 'DI' , 'CI-DI' , 'WI' , 'DI-WI' , 'CI-WI' , 'CI-DI-WI' ])
61+ ax .set_xticklabels (['none' , 'Unoptimised' , 'Optimised' ])
62+ #ax.set_xticklabels(['none', 'rean', 'NoOpt', 'CI', 'DI', 'CI-DI', 'WI', 'DI-WI', 'CI-WI', 'CI-DI-WI'])
5963 ax .set_ylabel ('Time (ms)' )
6064
6165def plot_box (csv , ax , title , filtering = lambda x : x , log = True ):
6266 data = filtering (parse_data (csv ))
6367 if len (data ) == 0 :
6468 return
6569 sns .boxplot (ax = ax , data = [
66- np .divide (data ['ms (NoOpt)' ], data ['ms (rean)' ]),
67- np .divide (data ['ms (CI)' ], data ['ms (rean)' ]),
68- np .divide (data ['ms (DI)' ], data ['ms (rean)' ]),
69- np .divide (data ['ms (CI-DI)' ], data ['ms (rean)' ]),
70- np .divide (data ['ms (WI)' ], data ['ms (rean)' ]),
71- np .divide (data ['ms (DI-WI)' ], data ['ms (rean)' ]),
72- np .divide (data ['ms (CI-WI)' ], data ['ms (rean)' ]),
73- np .divide (data ['ms (CI-DI-WI)' ], data ['ms (rean)' ]),
70+ #np.divide(data['ms (NoOpt)'], data['ms (rean)']),
71+ #np.divide(data['ms (CI)'], data['ms (rean)']),
72+ #np.divide(data['ms (DI)'], data['ms (rean)']),
73+ #np.divide(data['ms (CI-DI)'], data['ms (rean)']),
74+ #np.divide(data['ms (WI)'], data['ms (rean)']),
75+ #np.divide(data['ms (DI-WI)'], data['ms (rean)']),
76+ #np.divide(data['ms (CI-WI)'], data['ms (rean)']),
77+ #np.divide(data['ms (CI-DI-WI)'], data['ms (rean)']),
78+ np .divide (data ['ms (CI-DI-WI+CY)' ].astype (int ), data ['ms (rean)' ].astype (int )),
7479 ])
7580 ax .set_xlabel (title + ' ({} programs)' .format (len (data )))
76- ax .set_xticklabels (['NoOpt' , 'CI' , 'DI' , 'CI-DI' , 'WI' , 'DI-WI' , 'CI-WI' , 'CI-DI-WI' ])
81+ #ax.set_xticklabels(['NoOpt', 'CI', 'DI', 'CI-DI', 'WI', 'DI-WI', 'CI-WI', 'CI-DI-WI'])
82+ ax .set_xticklabels (['Optimised' ])
7783 ax .set_ylabel ('Time relative to full reanalysis' )
7884 if log :
7985 ax .set_yscale ('log' )
@@ -87,19 +93,19 @@ def plot_box(csv, ax, title, filtering = lambda x: x, log = True):
8793fig .set_size_inches (16 , 16 )
8894fig .set_dpi (200 )
8995plot_box ('type-curated-performance.csv' , ax [0 ], 'Curated' , log = False )
90- plot_box ('type-generated-performance.csv' , ax [1 ], 'Generated, initial analysis <1s, full reanalysis <1s' , lambda x : x [x ['ms (rean)' ] < 1000 ][x ['ms (init)' ] < 1000 ])
96+ plot_box ('type-generated-performance.csv' , ax [1 ], 'Generated, initial analysis <1s, full reanalysis <1s' , lambda x : x [x ['ms (rean)' ] < 1000 ][x ['ms (init)' ] < 1000 ]. dropna )
9197#plot_box('type-generated-performance.csv', ax[2], 'Generated, initial analysis <1s, full reanalysis >=1s', lambda x: x[x['ms (rean)'] >= 1000][x['ms (init)'] < 1000])
92- plot_box ('type-generated-performance.csv' , ax [2 ], 'Generated, initial analysis >=1s, full reanalysis <1s' , lambda x : x [x ['ms (rean)' ] < 1000 ][x ['ms (init)' ] >= 1000 ])
93- plot_box ('type-generated-performance.csv' , ax [3 ], 'Generated, initial analysis >=1s, full reanalysis >=1s' , lambda x : x [x ['ms (rean)' ] >= 1000 ][x ['ms (init)' ] >= 1000 ])
98+ plot_box ('type-generated-performance.csv' , ax [2 ], 'Generated, initial analysis >=1s, full reanalysis <1s' , lambda x : x [x ['ms (rean)' ] < 1000 ][x ['ms (init)' ] >= 1000 ]. dropna )
99+ plot_box ('type-generated-performance.csv' , ax [3 ], 'Generated, initial analysis >=1s, full reanalysis >=1s' , lambda x : x [x ['ms (rean)' ] >= 1000 ][x ['ms (init)' ] >= 1000 ]. dropna )
94100
95101plt .savefig ('type-performance.pdf' )
96102
97- fig , ax = plt .subplots (4 )
98- fig .set_size_inches (16 , 16 )
99- fig .set_dpi (200 )
100- plot_box ('cp-curated-performance.csv' , ax [0 ], 'Curated' , log = False )
101- plot_box ('cp-generated-performance.csv' , ax [1 ], 'Generated, initial analysis <1s, full reanalysis <1s' , lambda x : x [x ['ms (rean)' ] < 1000 ][x ['ms (init)' ] < 1000 ])
102- #plot_box('cp-generated-performance.csv', ax[2], 'Generated, initial analysis <1s, full reanalysis >=1s', lambda x: x[x['ms (rean)'] >= 1000][x['ms (init)'] < 1000])
103- plot_box ('cp-generated-performance.csv' , ax [2 ], 'Generated, initial analysis >=1s, full reanalysis <1s' , lambda x : x [x ['ms (rean)' ] < 1000 ][x ['ms (init)' ] >= 1000 ])
104- plot_box ('cp-generated-performance.csv' , ax [3 ], 'Generated, initial analysis >=1s, full reanalysis >=1s' , lambda x : x [x ['ms (rean)' ] >= 1000 ][x ['ms (init)' ] >= 1000 ])
105- plt .savefig ('cp-performance.pdf' )
103+ # fig, ax = plt.subplots(4)
104+ # fig.set_size_inches(16, 16)
105+ # fig.set_dpi(200)
106+ # plot_box('cp-curated-performance.csv', ax[0], 'Curated', log = False)
107+ # plot_box('cp-generated-performance.csv', ax[1], 'Generated, initial analysis <1s, full reanalysis <1s', lambda x: x[x['ms (rean)'] < 1000][x['ms (init)'] < 1000])
108+ ## plot_box('cp-generated-performance.csv', ax[2], 'Generated, initial analysis <1s, full reanalysis >=1s', lambda x: x[x['ms (rean)'] >= 1000][x['ms (init)'] < 1000])
109+ # plot_box('cp-generated-performance.csv', ax[2], 'Generated, initial analysis >=1s, full reanalysis <1s', lambda x: x[x['ms (rean)'] < 1000][x['ms (init)'] >= 1000])
110+ # plot_box('cp-generated-performance.csv', ax[3], 'Generated, initial analysis >=1s, full reanalysis >=1s', lambda x: x[x['ms (rean)'] >= 1000][x['ms (init)'] >= 1000])
111+ # plt.savefig('cp-performance.pdf')
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