Thread: [Matplotlib-users] plot isnt plotting anymore, error in code?

hi,

my code was working fine, but now i cant figure out what went wrong.
any ideas?

the code is supposed to plot a timeseries which it does and overlay it 
with another that is partially defined
the input file is contructed like this:
the first line is just for information purposes.
after that:
the first row is a growing number (the x value), the second is the 
timeseries and the third is the partially defined second timeseries

this is the code, after the code is a example input file.
the code is also accessible via this paste service: 
https://dpaste.de/5ZrX     it got a nice python code formatter.

 1. def plotTimeSeriesAndSAX(inputfile_tmp, verbose=False):
 2.
 3. if verbose:
 4. print "plotTimeSeriesAndSAX()"
 5. print "\tinputfile:", inputfile_tmp
 6. print "\toutputfile: %s.png" % inputfile_tmp
 7.
 8. inputfile = open(inputfile_tmp, "r");
 9.
10.
11. # this holds my timeseries
12. x = []
13. y = []
14.
15. # this holds my "pattern"
16. pattern_x_values = []
17. pattern_y_values = []
18.
19. # these are for temporary use only, hold the current pattern data
20. tmp_x = []
21. tmp_y = []
22.
23.
24. # remove pattern/sax string, sax_string_with_Z from the datafile,
    only used as text in the plot
25. first_line = inputfile.readline()
26. pattern, sax, sax_string_with_Z = first_line.split()
27.
28.
29.
30.
31. for line in inputfile.readlines():
32.
33. data = line.split()
34. x_data = data[0]
35. y_data = data[1]
36.
37. #if there is a third line (pattern at this position)
38. if len(data) == 3:
39. y2_data = data[2]
40. tmp_y.append(y2_data)
41. tmp_x.append(x_data)
42. else:
43. # if the pattern ends, add it to pattern_x/y_value and clear the tmp
    list
44. if len(tmp_x) != 0:
45. pattern_x_values.append(tmp_x)
46. pattern_y_values.append(tmp_y)
47. tmp_x = []
48. tmp_y = []
49.
50.
51. x.append(x_data)
52. y.append(y_data)
53.
54. #if pattern == "ccd":
55. #    print "pattern x_values:", pattern_x_values
56. #    print "pattern y_values:", pattern_y_values
57. if verbose:
58. print "\ttimeseries y value", y
59. print "pattern x_values:", pattern_x_values
60. print "pattern y_values:", pattern_y_values
61.
62.
63.
64. colors = ["red", "magenta", "mediumblue", "darkorchid", "grey"]
65. #linestyle = ["-", "--"]
66.
67. # without this, the second plot contains the first and the second
68. # the third plot contains: the first, second and third
69. plot.clf()
70.
71. # plot all my patterns into the plot
72. for s in range(0,len(pattern_x_values)):
73. #if verbose:
74. #    print "\tpattern x value:", pattern_x_values[s]
75. #    print "\tpattern y value:", pattern_y_values[s]
76.
77. plot.plot(pattern_x_values[s], pattern_y_values[s], colors[1])
78.
79.
80. #plot.plot(x_all[0], y_all[0])
81.
82.
83. import matplotlib.patches as mpatches
84.
85.
86. #red_patch = mpatches.Patch(color='red', label='The red data')
87.
88. from time import gmtime, strftime
89. current_date = strftime("%Y-%m-%d%H:%M:%S", gmtime())
90.
91.

92. fig = plot.figure()
93.
94.
95. fig.text(0, 0, 'bottom-left corner')
96. fig.text(0, 1, current_date, ha='left', va='top')
97. mytext = "pattern: %ssax: %ssax with Z: %s" % (pattern, sax,
    sax_string_with_Z)
98. fig.text(1,1, mytext )
99.
100.
101. # add the original timeseries to the plot
102. plot.plot(x,y, "forestgreen")
103. #if pattern == "ccd":
104. #        plot.show()
105.
106.
107. directory, filename = os.path.split(inputfile_tmp)
108.
109. plot.savefig(os.path.join(directory, "plots/%s.png" % filename))#,
    bbox_inches='tight')
110. # remove the last figure from memory
111. #plot.close()
112.
113.
114.
115.
116.
117.
118.
119.
120. #input:
121. dee ccccccccccaacddeedcccccccdc ZZZZZZZZZZZZZZdeeZZZZZZZZZZ
122. 1 -0.015920084
123. 2 -0.044660769
124. 3 -0.044660769
125. 4 -0.092561907
126. 5 0.012820599
127. 6 -0.015920084
128. 7 0.012820599
129. 8 -0.054240996
130. 9 0.031981054
131. 10 0.031981054
132. 11 -0.025500313
133. 12 -0.044660769
134. 13 0.012820599
135. 14 -0.025500313
136. 15 0.0032403709
137. 16 -0.006339857
138. 17 0.0032403709
139. 18 -0.025500313
140. 19 0.031981054
141. 20 0.031981054
142. 21 0.031981054
143. 22 0.022400826
144. 23 0.031981054
145. 24 0.05114151
146. 25 0.079882193
147. 26 0.05114151
148. 27 0.05114151
149. 28 0.05114151
150. 29 0.099042646
151. 30 0.060721738
152. 31 -0.015920084
153. 32 -0.054240996
154. 33 0.23316584
155. 34 0.26190652
156. 35 0.37686926
157. 36 0.12778333
158. 37 -0.044660769
159. 38 -0.26500601
160. 39 -0.41828965
161. 40 -0.38954897
162. 41 -0.26500601
163. 42 -0.14046305
164. 43 -0.073401452
165. 44 -0.12130259
166. 45 -0.082981679
167. 46 -0.14046305
168. 47 -0.054240996
169. 48 -0.082981679
170. 49 -0.015920084
171. 50 -0.073401452
172. 51 -0.015920084
173. 52 0.10862288
174. 53 1.1816084
175. 54 -1.3379915
176. 55 -4.6335899
177. 56 -6.74124
178. 57 -4.7772933
179. 58 -3.4839626
180. 59 -2.075669
181. 60 -1.0984858
182. 61 -0.37038851
183. 62 -0.063821223
184. 63 0.11820311
185. 64 0.13736356
186. 65 0.15652401
187. 66 0.11820311
188. 67 0.32896812
189. 68 0.27148675
190. 69 0.30022744
191. 70 0.31938789
192. 71 0.3577088 0.5449999999999999
193. 72 0.40560994 0.5449999999999999
194. 73 0.44393085 0.5449999999999999
195. 74 0.49183198 0.5449999999999999
196. 75 0.67385632 0.5449999999999999
197. 76 0.79839928 0.84
198. 77 0.9995841 0.84
199. 78 1.1528677 0.84
200. 79 1.4115338 0.84
201. 80 1.5552373 0.84
202. 81 1.7468418 0.84
203. 82 1.7755825 0.84
204. 83 1.7276813 0.84
205. 84 1.4115338 0.84
206. 85 1.0858061 0.84
207. 86 0.65469586
208. 87 0.43435063
209. 88 0.21400538
210. 89 0.14694379
211. 90 0.089462421
212. 91 0.070301966
213. 92 0.031981054
214. 93 0.05114151
215. 94 0.070301966
216. 95 0.13736356
217. 96 0.079882193
218. 97 0.12778333
219. 98 0.15652401
220. 99 0.16610425
221. 100 0.13736356
222. 101 0.13736356
223. 102 0.089462421
224. 103 0.2523263
225. 104 0.21400538
226. 105 0.22358561
227. 106 0.1852647
228. 107 0.19484493
229. 108 0.1852647
230. 109 0.16610425
231. 110 0.13736356
232. 111 0.15652401
233. 112 0.14694379
234. 113 0.16610425
235. 114 0.099042646
236. 115 0.12778333
237. 116 0.13736356
238. 117 0.089462421
239. 118 0.079882193
240. 119 0.089462421
241. 120 0.041561282
242. 121 0.041561282
243. 122 0.079882193
244. 123 0.11820311
245. 124 0.099042646
246. 125 0.089462421
247. 126 0.05114151
248. 127 0.17568447
249. 128 0.30022744
250. 129 0.32896812
251. 130 0.42477039
252. 131 0.17568447
253. 132 0.022400826
254. 133 -0.20752464
255. 134 -0.24584556
256. 135 -0.24584556

On 07/09/2015 06:40 PM, peter wrote:
> hi,
>
> my code was working fine, but now i cant figure out what went wrong.
> any ideas?
>
> the code is supposed to plot a timeseries which it does and overlay it 
> with another that is partially defined
> the input file is contructed like this:
> the first line is just for information purposes.
> after that:
> the first row is a growing number (the x value), the second is the 
> timeseries and the third is the partially defined second timeseries
>
> this is the code, after the code is a example input file.
> the code is also accessible via this paste service: 
> https://dpaste.de/5ZrX     it got a nice python code formatter.
>

ups, the last mail had a leading number from dpaste, this is the code 
without:



def plotTimeSeriesAndSAX(inputfile_tmp, verbose=False):

     if verbose:
         print "plotTimeSeriesAndSAX()"
         print "\tinputfile:", inputfile_tmp
         print "\toutputfile: %s.png" % inputfile_tmp

     inputfile = open(inputfile_tmp, "r");


     # this holds my timeseries
     x = []
     y = []

     # this holds my "pattern"
     pattern_x_values = []
     pattern_y_values = []

     # these are for temporary use only, hold the current pattern data
     tmp_x = []
     tmp_y = []


     # remove pattern/sax string, sax_string_with_Z from the datafile, 
only used as text in the plot
     first_line = inputfile.readline()
     pattern, sax, sax_string_with_Z = first_line.split()




     for line in inputfile.readlines():

         data = line.split()
         x_data = data[0]
         y_data = data[1]

         #if there is a third line (pattern at this position)
         if len(data) == 3:
             y2_data = data[2]
             tmp_y.append(y2_data)
             tmp_x.append(x_data)
         else:
             # if the pattern ends, add it to pattern_x/y_value and 
clear the tmp list
             if len(tmp_x) != 0:
                 pattern_x_values.append(tmp_x)
                 pattern_y_values.append(tmp_y)
                 tmp_x = []
                 tmp_y = []


         x.append(x_data)
         y.append(y_data)

     #if pattern == "ccd":
     #    print "pattern x_values:", pattern_x_values
     #    print "pattern y_values:", pattern_y_values
     if verbose:
         print "\ttimeseries y value", y
         print "pattern x_values:", pattern_x_values
         print "pattern y_values:", pattern_y_values



     colors = ["red", "magenta", "mediumblue", "darkorchid", "grey"]
     #linestyle = ["-", "--"]

     # without this, the second plot contains the first and the second
     # the third plot contains: the first, second and third
     plot.clf()

     # plot all my patterns into the plot
     for s in range(0,len(pattern_x_values)):
         #if verbose:
         #    print "\tpattern x value:", pattern_x_values[s]
         #    print "\tpattern y value:", pattern_y_values[s]

         plot.plot(pattern_x_values[s], pattern_y_values[s], colors[1])


     #plot.plot(x_all[0], y_all[0])


     import matplotlib.patches as mpatches


     #red_patch = mpatches.Patch(color='red', label='The red data')

     from time import gmtime, strftime
     current_date = strftime("%Y-%m-%d %H:%M:%S", gmtime())


     fig = plot.figure()


     fig.text(0, 0, 'bottom-left corner')
     fig.text(0, 1,  current_date, ha='left', va='top')
     mytext = "pattern: %s sax: %s sax with Z: %s" % (pattern, sax, 
sax_string_with_Z)
     fig.text(1,1, mytext )


     # add the original timeseries to the plot
     plot.plot(x,y, "forestgreen")
     #if pattern == "ccd":
     #        plot.show()


     directory, filename = os.path.split(inputfile_tmp)

     plot.savefig(os.path.join(directory, "plots/%s.png" % filename))#, 
bbox_inches='tight')
     # remove the last figure from memory
     #plot.close()









dee ccccccccccaacddeedcccccccdc ZZZZZZZZZZZZZZdeeZZZZZZZZZZ
1    -0.015920084
2    -0.044660769
3    -0.044660769
4    -0.092561907
5    0.012820599
6    -0.015920084
7    0.012820599
8    -0.054240996
9    0.031981054
10    0.031981054
11    -0.025500313
12    -0.044660769
13    0.012820599
14    -0.025500313
15    0.0032403709
16    -0.006339857
17    0.0032403709
18    -0.025500313
19    0.031981054
20    0.031981054
21    0.031981054
22    0.022400826
23    0.031981054
24    0.05114151
25    0.079882193
26    0.05114151
27    0.05114151
28    0.05114151
29    0.099042646
30    0.060721738
31    -0.015920084
32    -0.054240996
33    0.23316584
34    0.26190652
35    0.37686926
36    0.12778333
37    -0.044660769
38    -0.26500601
39    -0.41828965
40    -0.38954897
41    -0.26500601
42    -0.14046305
43    -0.073401452
44    -0.12130259
45    -0.082981679
46    -0.14046305
47    -0.054240996
48    -0.082981679
49    -0.015920084
50    -0.073401452
51    -0.015920084
52    0.10862288
53    1.1816084
54    -1.3379915
55    -4.6335899
56    -6.74124
57    -4.7772933
58    -3.4839626
59    -2.075669
60    -1.0984858
61    -0.37038851
62    -0.063821223
63    0.11820311
64    0.13736356
65    0.15652401
66    0.11820311
67    0.32896812
68    0.27148675
69    0.30022744
70    0.31938789
71    0.3577088     0.5449999999999999
72    0.40560994     0.5449999999999999
73    0.44393085     0.5449999999999999
74    0.49183198     0.5449999999999999
75    0.67385632     0.5449999999999999
76    0.79839928     0.84
77    0.9995841     0.84
78    1.1528677     0.84
79    1.4115338     0.84
80    1.5552373     0.84
81    1.7468418     0.84
82    1.7755825     0.84
83    1.7276813     0.84
84    1.4115338     0.84
85    1.0858061     0.84
86    0.65469586
87    0.43435063
88    0.21400538
89    0.14694379
90    0.089462421
91    0.070301966
92    0.031981054
93    0.05114151
94    0.070301966
95    0.13736356
96    0.079882193
97    0.12778333
98    0.15652401
99    0.16610425
100    0.13736356
101    0.13736356
102    0.089462421
103    0.2523263
104    0.21400538
105    0.22358561
106    0.1852647
107    0.19484493
108    0.1852647
109    0.16610425
110    0.13736356
111    0.15652401
112    0.14694379
113    0.16610425
114    0.099042646
115    0.12778333
116    0.13736356
117    0.089462421
118    0.079882193
119    0.089462421
120    0.041561282
121    0.041561282
122    0.079882193
123    0.11820311
124    0.099042646
125    0.089462421
126    0.05114151
127    0.17568447
128    0.30022744
129    0.32896812
130    0.42477039
131    0.17568447
132    0.022400826
133    -0.20752464
134    -0.24584556
135    -0.24584556

Can you be more specific about the problem you are having?
-Sterling

On Jul 9, 2015, at 9:40AM, peter <com...@ya...> wrote:

> hi,
> 
> my code was working fine, but now i cant figure out what went wrong.
> any ideas?
> 
> the code is supposed to plot a timeseries which it does and overlay it with another that is partially defined
> the input file is contructed like this:
> the first line is just for information purposes.
> after that:
> the first row is a growing number (the x value), the second is the timeseries and the third is the partially defined second timeseries
> 
> this is the code, after the code is a example input file.
> the code is also accessible via this paste service: https://dpaste.de/5ZrX     it got a nice python code formatter.
> 
> 	• def plotTimeSeriesAndSAX(inputfile_tmp, verbose=False):
> 	•     
> 	•     if verbose:
> 	•         print "plotTimeSeriesAndSAX()"
> 	•         print "\tinputfile:", inputfile_tmp
> 	•         print "\toutputfile: %s.png" % inputfile_tmp
> 	•         
> 	•     inputfile = open(inputfile_tmp, "r");
> 	•     
> 	•     
> 	•     # this holds my timeseries
> 	•     x = []
> 	•     y = []
> 	•     
> 	•     # this holds my "pattern"
> 	•     pattern_x_values = []
> 	•     pattern_y_values = []
> 	•     
> 	•     # these are for temporary use only, hold the current pattern data
> 	•     tmp_x = []
> 	•     tmp_y = []
> 	•     
> 	•     
> 	•     # remove pattern/sax string, sax_string_with_Z from the datafile, only used as text in the plot
> 	•     first_line = inputfile.readline()
> 	•     pattern, sax, sax_string_with_Z = first_line.split()
> 	•   
> 	•     
> 	•     
> 	•     
> 	•     for line in inputfile.readlines():
> 	•               
> 	•         data = line.split()
> 	•         x_data = data[0]
> 	•         y_data = data[1]
> 	•         
> 	•         #if there is a third line (pattern at this position)
> 	•         if len(data) == 3:
> 	•             y2_data = data[2]
> 	•             tmp_y.append(y2_data)
> 	•             tmp_x.append(x_data)
> 	•         else:
> 	•             # if the pattern ends, add it to pattern_x/y_value and clear the tmp list
> 	•             if len(tmp_x) != 0:
> 	•                 pattern_x_values.append(tmp_x)
> 	•                 pattern_y_values.append(tmp_y)
> 	•                 tmp_x = []
> 	•                 tmp_y = []
> 	•         
> 	•         
> 	•         x.append(x_data)
> 	•         y.append(y_data)
> 	•         
> 	•     #if pattern == "ccd":
> 	•     #    print "pattern x_values:", pattern_x_values
> 	•     #    print "pattern y_values:", pattern_y_values
> 	•     if verbose:
> 	•         print "\ttimeseries y value", y
> 	•         print "pattern x_values:", pattern_x_values
> 	•         print "pattern y_values:", pattern_y_values
> 	•     
> 	•     
> 	•     
> 	•     colors = ["red", "magenta", "mediumblue", "darkorchid", "grey"]
> 	•     #linestyle = ["-", "--"]
> 	•     
> 	•     # without this, the second plot contains the first and the second
> 	•     # the third plot contains: the first, second and third
> 	•     plot.clf()
> 	•     
> 	•     # plot all my patterns into the plot
> 	•     for s in range(0,len(pattern_x_values)):
> 	•         #if verbose:
> 	•         #    print "\tpattern x value:", pattern_x_values[s]
> 	•         #    print "\tpattern y value:", pattern_y_values[s]
> 	•             
> 	•         plot.plot(pattern_x_values[s], pattern_y_values[s], colors[1])
> 	•         
> 	•     
> 	•     #plot.plot(x_all[0], y_all[0])  
> 	•     
> 	•   
> 	•     import matplotlib.patches as mpatches
> 	•  
> 	•  
> 	•     #red_patch = mpatches.Patch(color='red', label='The red data')
> 	•     
> 	•     from time import gmtime, strftime
> 	•     current_date = strftime("%Y-%m-%d %H:%M:%S", gmtime())
> 	•     
> 	• 
> 	•     fig = plot.figure()
> 	•     
> 	•     
> 	•     fig.text(0, 0, 'bottom-left corner')
> 	•     fig.text(0, 1,  current_date, ha='left', va='top')
> 	•     mytext = "pattern: %s sax: %s sax with Z: %s" % (pattern, sax, sax_string_with_Z)
> 	•     fig.text(1,1, mytext )
> 	•     
> 	•     
> 	•     # add the original timeseries to the plot
> 	•     plot.plot(x,y, "forestgreen")
> 	•     #if pattern == "ccd":
> 	•     #        plot.show()
> 	•     
> 	•     
> 	•     directory, filename = os.path.split(inputfile_tmp)
> 	•     
> 	•     plot.savefig(os.path.join(directory, "plots/%s.png" % filename))#, bbox_inches='tight')
> 	•     # remove the last figure from memory
> 	•     #plot.close()
> 	•  
> 	•  
> 	•  
> 	•  
> 	•  
> 	•  
> 	•  
> 	•  
> 	• #input:
> 	• dee ccccccccccaacddeedcccccccdc ZZZZZZZZZZZZZZdeeZZZZZZZZZZ
> 	• 1    -0.015920084          
> 	• 2    -0.044660769          
> 	• 3    -0.044660769          
> 	• 4    -0.092561907          
> 	• 5    0.012820599          
> 	• 6    -0.015920084          
> 	• 7    0.012820599          
> 	• 8    -0.054240996          
> 	• 9    0.031981054          
> 	• 10    0.031981054          
> 	• 11    -0.025500313          
> 	• 12    -0.044660769          
> 	• 13    0.012820599          
> 	• 14    -0.025500313          
> 	• 15    0.0032403709          
> 	• 16    -0.006339857          
> 	• 17    0.0032403709          
> 	• 18    -0.025500313          
> 	• 19    0.031981054          
> 	• 20    0.031981054          
> 	• 21    0.031981054          
> 	• 22    0.022400826          
> 	• 23    0.031981054          
> 	• 24    0.05114151          
> 	• 25    0.079882193          
> 	• 26    0.05114151          
> 	• 27    0.05114151          
> 	• 28    0.05114151          
> 	• 29    0.099042646          
> 	• 30    0.060721738          
> 	• 31    -0.015920084          
> 	• 32    -0.054240996          
> 	• 33    0.23316584          
> 	• 34    0.26190652          
> 	• 35    0.37686926          
> 	• 36    0.12778333          
> 	• 37    -0.044660769          
> 	• 38    -0.26500601          
> 	• 39    -0.41828965          
> 	• 40    -0.38954897          
> 	• 41    -0.26500601          
> 	• 42    -0.14046305          
> 	• 43    -0.073401452          
> 	• 44    -0.12130259          
> 	• 45    -0.082981679          
> 	• 46    -0.14046305          
> 	• 47    -0.054240996          
> 	• 48    -0.082981679          
> 	• 49    -0.015920084          
> 	• 50    -0.073401452          
> 	• 51    -0.015920084          
> 	• 52    0.10862288          
> 	• 53    1.1816084          
> 	• 54    -1.3379915          
> 	• 55    -4.6335899          
> 	• 56    -6.74124          
> 	• 57    -4.7772933          
> 	• 58    -3.4839626          
> 	• 59    -2.075669          
> 	• 60    -1.0984858          
> 	• 61    -0.37038851          
> 	• 62    -0.063821223          
> 	• 63    0.11820311          
> 	• 64    0.13736356          
> 	• 65    0.15652401          
> 	• 66    0.11820311          
> 	• 67    0.32896812          
> 	• 68    0.27148675          
> 	• 69    0.30022744          
> 	• 70    0.31938789          
> 	• 71    0.3577088     0.5449999999999999    
> 	• 72    0.40560994     0.5449999999999999    
> 	• 73    0.44393085     0.5449999999999999    
> 	• 74    0.49183198     0.5449999999999999    
> 	• 75    0.67385632     0.5449999999999999    
> 	• 76    0.79839928     0.84    
> 	• 77    0.9995841     0.84    
> 	• 78    1.1528677     0.84    
> 	• 79    1.4115338     0.84    
> 	• 80    1.5552373     0.84    
> 	• 81    1.7468418     0.84    
> 	• 82    1.7755825     0.84    
> 	• 83    1.7276813     0.84    
> 	• 84    1.4115338     0.84    
> 	• 85    1.0858061     0.84    
> 	• 86    0.65469586          
> 	• 87    0.43435063          
> 	• 88    0.21400538          
> 	• 89    0.14694379          
> 	• 90    0.089462421          
> 	• 91    0.070301966          
> 	• 92    0.031981054          
> 	• 93    0.05114151          
> 	• 94    0.070301966          
> 	• 95    0.13736356          
> 	• 96    0.079882193          
> 	• 97    0.12778333          
> 	• 98    0.15652401          
> 	• 99    0.16610425          
> 	• 100    0.13736356          
> 	• 101    0.13736356          
> 	• 102    0.089462421          
> 	• 103    0.2523263          
> 	• 104    0.21400538          
> 	• 105    0.22358561          
> 	• 106    0.1852647          
> 	• 107    0.19484493          
> 	• 108    0.1852647          
> 	• 109    0.16610425          
> 	• 110    0.13736356          
> 	• 111    0.15652401          
> 	• 112    0.14694379          
> 	• 113    0.16610425          
> 	• 114    0.099042646          
> 	• 115    0.12778333          
> 	• 116    0.13736356          
> 	• 117    0.089462421          
> 	• 118    0.079882193          
> 	• 119    0.089462421          
> 	• 120    0.041561282          
> 	• 121    0.041561282          
> 	• 122    0.079882193          
> 	• 123    0.11820311          
> 	• 124    0.099042646          
> 	• 125    0.089462421          
> 	• 126    0.05114151          
> 	• 127    0.17568447          
> 	• 128    0.30022744          
> 	• 129    0.32896812          
> 	• 130    0.42477039          
> 	• 131    0.17568447          
> 	• 132    0.022400826          
> 	• 133    -0.20752464          
> 	• 134    -0.24584556          
> 	• 135    -0.24584556          
> 
> 
> 
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