adding a folder creation with the good plot files inside
[hooke.git] / hemingclamp.py
index 780c5cb9b6e40850def787137bbc92341982ad95..e2f2e1c2ebaee147cf0500b020c3750be382a920 100755 (executable)
@@ -5,7 +5,7 @@ libhemingclamp.py
 
 Library for interpreting Hemingway force spectroscopy files.
 
-Copyright (C) 2006 Massimo Sandal (University of Bologna, Italy) 
+Copyright (C) 2008 Massimo Sandal, Marco Brucale (University of Bologna, Italy) 
 
 This program is released under the GNU General Public License version 2.
 '''
@@ -18,17 +18,6 @@ __changelog__='''
 import string
 import libhookecurve as lhc 
 
-def hemingclamp_magic(filepath):
-    '''
-    we define our magic heuristic for HemingClamp files
-    '''
-    myfile=file(filepath)
-    headerlines=myfile.readlines()[0:3]
-    if headerlines[0][0:10]=='#Hemingway' and headerlines[1][0:19]=='#Experiment: FClamp':
-        return True
-    else:
-        return False
-
 class DataChunk(list):
     '''Dummy class to provide ext and ret methods to the data list.
     In this case ext and self can be equal.
@@ -69,26 +58,26 @@ class hemingclampDriver(lhc.Driver):
             return False
         
     def _getdata_all(self):
-        time = []\r
+        time = []
         phase = []
         zpiezo = []
-        defl = []\r
-        imposed = []\r
-        trim_indexes = []\r
-        trim_counter = 0.0\r
+        defl = []
+        imposed = []
+        trim_indexes = []
+        trim_counter = 0.0
                         
         for i in self.data:
             temp = string.split(i)
             #time.append(float(temp[0])*(1.0e-3)) # This is managed differently now, since each data point = 1ms: see below
-            phase.append(float(temp[1])*(1.0e-7)) # The nonsensical (e-7) multiplier is just there to make phase data nicely plottable along other data\r
+            phase.append(float(temp[1])*(1.0e-7)) # The nonsensical (e-7) multiplier is just there to make phase data nicely plottable along other data
             zpiezo.append(float(temp[2])*(1.0e-9))
-            defl.append(float(temp[3])*(1.0e-9))\r
-            imposed.append(float(temp[4])*(1.0e-9))\r
-\r
+            defl.append(float(temp[3])*(1.0e-9))
+            imposed.append(float(temp[4])*(1.0e-9))
+
         for x in range (0,len(phase)):
             if phase[x] != trim_counter:
                 trim_indexes.append(x)
-                trim_counter = phase[x]\r
+                trim_counter = phase[x]
        
         #we rebuild the time counter assuming 1 point = 1 millisecond
         c=0.0
@@ -100,21 +89,21 @@ class hemingclampDriver(lhc.Driver):
         
     def time(self):
         return DataChunk(self._getdata_all()[0])
-\r
+
     def phase(self):
-        return DataChunk(self._getdata_all()[1])\r
+        return DataChunk(self._getdata_all()[1])
     
     def zpiezo(self):
         return DataChunk(self._getdata_all()[2])
      
     def deflection(self):
         return DataChunk(self._getdata_all()[3])
-\r
+
     def imposed(self):
-        return DataChunk(self._getdata_all()[4])\r
-\r
-    def trimindexes(self):\r
-        return DataChunk(self._getdata_all()[5])\r
+        return DataChunk(self._getdata_all()[4])
+
+    def trimindexes(self):
+        return DataChunk(self._getdata_all()[5])
     
     def close_all(self):
         '''
@@ -126,11 +115,11 @@ class hemingclampDriver(lhc.Driver):
         main_plot=lhc.PlotObject()
         defl_plot=lhc.PlotObject()
         
-        time=self.time()\r
+        time=self.time()
         phase=self.phase()
         zpiezo=self.zpiezo()
-        deflection=self.deflection()\r
-        imposed=self.imposed()\r
+        deflection=self.deflection()
+        imposed=self.imposed()
                 
         main_plot.vectors=[[time,zpiezo],[time,phase]]
         main_plot.units=['seconds','meters']
@@ -139,7 +128,7 @@ class hemingclampDriver(lhc.Driver):
         
         defl_plot.vectors=[[time,deflection],[time,imposed]]
         defl_plot.units=['seconds','Newtons']
-        defl_plot.destination=1\r
+        defl_plot.destination=1
  
         return [main_plot, defl_plot]
     
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